EBB Bow 2

The user wants to continue implementing the bow. Let me look at the todo.md items related to the bow:

1. Arrows shot increase by 1 on hit (bow scaling)
2. Multiple arrows shooting with delay between each
3. Arrows stick to walls
4. Arrows disappear from walls like plants disappear blinking
5. Parried arrows disappear blinking too, and also rotate slowly based on how the parry weapon was moving (same idea as how plants rotate before dying)
6. Sounds for bow and sword

Let me first read the main game code and the relevant docs as instructed.

<tool_use_error>File does not exist.</tool_use_error>

<tool_use_error>Sibling tool call errored</tool_use_error>

<tool_use_error>Sibling tool call errored</tool_use_error>

E:\a327ex\anchor.blot.im\notes\Anchor Engine Overview.md

E:\a327ex\Anchor\docs\FRAMEWORK_API_QUICK.md
E:\a327ex\emoji-ball-battles\docs\FRAMEWORK_API_QUICK.md
E:\a327ex\anchor.blot.im\context\FRAMEWORK_API_QUICK.md

E:\a327ex\emoji-ball-battles\main.yue

1→Generated by Claude (Opus 4.5)
     2→
     3→---
     4→
     5→# Anchor Engine Overview
     6→
     7→Anchor is a 2D game engine for solo indie developers. It combines a C core with YueScript (a language that compiles to Lua) for game logic. The engine handles rendering, physics, audio, and input while the framework provides high-level abstractions for building games quickly.
     8→
     9→---
    10→
    11→## Core Philosophy
    12→
    13→**Locality** — Everything about a game object lives in one place. No scattered configuration files, no registering components in separate systems. A class definition contains its properties, behaviors, children, and cleanup logic together.
    14→
    15→**No bureaucracy** — No imports, no dependency injection, no boilerplate. Resources are registered once and accessed globally. Things work without setup.
    16→
    17→**YueScript** — A clean syntax that compiles to Lua. Classes, `@` for self-reference, significant whitespace, operator overloading. Pleasant to read and write.
    18→
    19→---
    20→
    21→## Architecture
    22→
    23→```
    24→┌─────────────────────────────────────────┐
    25→│  Game Code (YueScript)                  │
    26→│  - Your game objects and logic          │
    27→├─────────────────────────────────────────┤
    28→│  Framework (YueScript)                  │
    29→│  - object, layer, timer, collider, etc. │
    30→├─────────────────────────────────────────┤
... [601 more lines]

1→# Framework API Quick Reference
     2→
     3→Function signatures for YueScript framework classes. See `FRAMEWORK_API.md` for detailed documentation with examples.
     4→
     5→## Initialization
     6→
     7→```
     8→require('anchor')
     9→  width: 640        -- game resolution width (default: 480)
    10→  height: 360       -- game resolution height (default: 270)
    11→  title: "My Game"  -- window title (default: "Anchor")
    12→  scale: 2          -- initial window scale (default: 3)
    13→  vsync: true       -- vertical sync (default: true)
    14→  fullscreen: false -- start fullscreen (default: false)
    15→  resizable: true   -- window resizable (default: true)
    16→  filter: "rough"   -- "rough" or "smooth" (default: "rough")
    17→```
    18→
    19→## Root Object (an)
    20→
    21→### Engine State (Static)
    22→```
    23→an.width -> int           -- game resolution width
    24→an.height -> int          -- game resolution height
    25→an.dt -> number           -- fixed delta time (1/120)
    26→an.platform -> string     -- "web" or "windows"
    27→```
    28→
    29→### Engine State (Dynamic - updated every frame)
    30→```
... [622 more lines]

File content (43118 tokens) exceeds maximum allowed tokens (25000). Please use offset and limit parameters to read specific portions of the file, or use the GrepTool to search for specific content.

The main.yue file is too large to read at once. Let me search for arrow/bow-related code first to understand the current implementation.

26:bowstring = color 217, 158, 130

84:an\image 'bow', 'assets/bow.png'

85:an\image 'arrow', 'assets/arrow.png'

287:    @player_ball = ball @x + @w*0.25, @y + @h/2, 'player', 'bow'

1125:    elseif @weapon_type == 'bow'

1127:      @weapon_image = an.images.bow

1142:      @arrows_per_shot = 1

1143:      @bow_cooldown = 2

1144:      @bow_pull_amount = 0

1145:      @bow_sy = 1

1146:      @bow_pulling = false

1147:      @bow_has_fired = false

1148:      @bow_arrow_alpha = 0

1253:    elseif @weapon_type == 'bow'

1254:      @bow_ready = true

1255:      @timer\when (-> @bow_ready and @\bow_is_aligned!), 'bow_fire', (-> @\bow_fire!)

1342:    elseif @weapon_type == 'bow'

1343:      -- Auto-pull bow when cooldown reaches 75%

1344:      bow_should_pull = @bow_has_fired and @cooldown_bar.progress >= 0.75

1345:      if bow_should_pull

1346:        if not @bow_pulling

1347:          @bow_arrow_alpha = 1

1348:        @bow_pulling = true

1349:        @bow_pull_amount = math.lerp_dt(0.9, 0.5, dt, @bow_pull_amount, 8)

1350:        @bow_sy = math.lerp_dt(0.9, 0.5, dt, @bow_sy, 0.9)

1351:      elseif @bow_pulling

1352:        @bow_pulling = false

1353:        @bow_arrow_alpha = 0

1355:        @timer\tween 0.2, @, {bow_pull_amount: 0}, math.elastic_out, nil, 'bow_release'

1356:        @timer\tween 0.08, @, {bow_sy: 1}, math.cubic_in_out, nil, 'bow_sy_release'

... [52 more lines]

1120→      @thrust_speed = 200  -- added to current speed during thrust
  1121→      @thrust_duration = 0.5  -- how long thrust lasts
  1122→      @thrust_cooldown = 5  -- seconds between thrusts
  1123→      @afterimage_timer = 0
  1124→
  1125→    elseif @weapon_type == 'bow'
  1126→      @weapon_class = 'ranged'
  1127→      @weapon_image = an.images.bow
  1128→      @weapon_visual_offset = 12
  1129→      @weapon_perpendicular_offset = 0
  1130→      @weapon_hitbox_offset = 16
  1131→      @weapon_hitbox_length = 12
  1132→      @weapon_hitbox_width = 32
  1133→      @weapon_scale = -26/512
  1134→      @weapon_scale_y = 26/512
  1135→      @weapon_rotation_offset = math.pi/4
  1136→      @base_angular_velocity = 1.5*math.pi
  1137→      @max_angular_velocity = 3*math.pi
  1138→      @weapon_weight = 1.0
  1139→      @hit_stop_multiplier = 1.0
  1140→      @hit_particle_multiplier = 1.0
  1141→      @camera_shake_multiplier = 1.0
  1142→      @arrows_per_shot = 1
  1143→      @bow_cooldown = 2
  1144→      @bow_pull_amount = 0
  1145→      @bow_sy = 1
  1146→      @bow_pulling = false
  1147→      @bow_has_fired = false
  1148→      @bow_arrow_alpha = 0
  1149→
... [120 more lines]

1690→    @timer\after @thrust_cooldown, 'thrust_cooldown', -> @thrust_ready = true
  1691→    @cooldown_bar\activate @thrust_cooldown
  1692→
  1693→  -- Bow alignment check: raycast to see if enemy is in line of sight
  1694→  bow_is_aligned: =>
  1695→    tip_offset = @weapon_visual_offset + 12
  1696→    tip_x = @x + tip_offset*math.cos(@angle)
  1697→    tip_y = @y + tip_offset*math.sin(@angle)
  1698→
  1699→    ray_length = 500
  1700→    ray_end_x = tip_x + ray_length*math.cos(@angle)
  1701→    ray_end_y = tip_y + ray_length*math.sin(@angle)
  1702→
  1703→    debug_draw\line tip_x, tip_y, ray_end_x, ray_end_y, 2, red!
  1704→
  1705→    hit = an\raycast tip_x, tip_y, ray_end_x, ray_end_y, 'ball'
  1706→    hit and hit.object.team != @team
  1707→
  1708→  -- Bow callback: fire arrow with effects
  1709→  bow_fire: =>
  1710→    @bow_ready = false
  1711→    @bow_has_fired = true
  1712→    @bow_pulling = false
  1713→    @bow_arrow_alpha = 0
  1714→    @spring\pull 'weapon', 0.6
  1715→    @spring\pull 'hit', 0.25, 3, 0.5
  1716→    @timer\tween 0.2, @, {bow_pull_amount: 0}, math.elastic_out, nil, 'bow_release'
  1717→    @timer\tween 0.08, @, {bow_sy: 1}, math.cubic_in_out, nil, 'bow_sy_release'
  1718→    @timer\after @bow_cooldown, 'bow_cooldown', -> @bow_ready = true
  1719→    @cooldown_bar\activate @bow_cooldown
... [50 more lines]

2540→    @y += @velocity*math.sin(@direction)*dt
  2541→
  2542→    effects\push @x, @y, @direction, @scale*@spring.main.x, @scale*@spring.main.x
  2543→    effects\image an.images.dash, 0, 0, nil, @flashing and white!
  2544→    effects\pop!
  2545→
  2546→
  2547→
  2548→-- Hit effect: frame-based animation at collision points
  2549→class hit_effect extends object
  2550→  new: (@x, @y, args={}) =>
  2551→    super!
  2552→    @rotation = an.random\angle!
  2553→    @scale = args.scale or 1
  2554→
  2555→    @\add animation 'hit1', 0.05, 'once',
  2556→      [0]: => @\kill!
  2557→
  2558→  update: (dt) =>
  2559→    @hit1\update dt
  2560→
  2561→    effects\push @x, @y, @rotation, @scale, @scale
  2562→    effects\animation @hit1, 0, 0
  2563→    effects\pop!
  2564→
  2565→
  2566→
  2567→-- Projectile: flies through the arena, collides with walls/weapons/balls.
  2568→-- Uses projectile_type switches for type-specific behavior (bullet, arrow).
  2569→class projectile extends object
... [120 more lines]

Now let me also check the collision handling for projectiles, to understand how arrows currently interact with walls/balls/weapons.

1340→        speed = math.lerp(math.quad_out(@thrust_progress), @thrust_start_speed, @thrust_end_speed)
  1341→        @collider\set_velocity speed*math.cos(@thrust_angle), speed*math.sin(@thrust_angle)
  1342→    elseif @weapon_type == 'bow'
  1343→      -- Auto-pull bow when cooldown reaches 75%
  1344→      bow_should_pull = @bow_has_fired and @cooldown_bar.progress >= 0.75
  1345→      if bow_should_pull
  1346→        if not @bow_pulling
  1347→          @bow_arrow_alpha = 1
  1348→        @bow_pulling = true
  1349→        @bow_pull_amount = math.lerp_dt(0.9, 0.5, dt, @bow_pull_amount, 8)
  1350→        @bow_sy = math.lerp_dt(0.9, 0.5, dt, @bow_sy, 0.9)
  1351→      elseif @bow_pulling
  1352→        @bow_pulling = false
  1353→        @bow_arrow_alpha = 0
  1354→        @spring\pull 'weapon', 0.5
  1355→        @timer\tween 0.2, @, {bow_pull_amount: 0}, math.elastic_out, nil, 'bow_release'
  1356→        @timer\tween 0.08, @, {bow_sy: 1}, math.cubic_in_out, nil, 'bow_sy_release'
  1357→    elseif @weapon_type == 'dagger'
  1358→      -- Swing sound: first at 0.07 rotation, then every full rotation, max 5 times
  1359→      -- Fixed threshold based on original base (1.5π * 3.5 = 5.25π)
  1360→      -- Disabled when base velocity reaches 6.5π (~25 hits)
  1361→      -- Only plays within 1.33 seconds of a weapon-weapon or projectile-weapon hit
  1362→      @can_swing_sound_time += dt
  1363→      if @base_angular_velocity < 6.5*math.pi and angular_speed > 4.75*math.pi and @can_swing_sound_time <= 1.33
  1364→        if not @fast_spinning
  1365→          @fast_spinning = true
  1366→          @rotation_accumulator = 0
  1367→          @swing_sound_count = 0
  1368→        elseif @swing_sound_count < 5
  1369→          @rotation_accumulator += angular_speed * dt
... [140 more lines]

185:an\physics_tag 'projectile_sensor'

186:an\physics_collision 'projectile', 'wall'

188:an\physics_sensor 'projectile_sensor', 'ball'

189:an\physics_sensor 'projectile_sensor', 'plant_ghost'

711:    for event in *an\collision_begin_events 'projectile', 'wall'

716:      projectile_object\hit intensity, 'wall'

770:    for event in *an\sensor_begin_events 'projectile_sensor', 'ball'

771:      projectile_object = event.a  -- projectile_sensor tag

855:    for event in *an\sensor_begin_events 'projectile_sensor', 'plant_ghost'

2603:    @ball_sensor = @collider\add_box 'projectile_sensor', @w, @h, {sensor: true}

700→
   701→      -- Apply direct force to nearby plants when hitting floor (normal pointing down in screen coords)
   702→      if event.normal_y > 0.5
   703→        @\apply_direct_force_to_nearby_plants ball_object.x, ball_object.y, 75, vy
   704→        -- Sound (only if plants are nearby)
   705→        for p in *@plants.children
   706→          if math.abs(ball_object.x - p.x) < 40
   707→            an\sound_play "grass_impact_#{an.random\int(1, 3)}", 0.5, an.random\float(0.95, 1.05)
   708→            break
   709→
   710→    -- Projectile-wall collision: bounce and spawn effects
   711→    for event in *an\collision_begin_events 'projectile', 'wall'
   712→      projectile_object = event.a
   713→
   714→      vx, vy = projectile_object.collider\get_velocity!
   715→      intensity = math.remap math.length(vx, vy), 300, 600, 0, 1
   716→      projectile_object\hit intensity, 'wall'
   717→
   718→      -- Sound
   719→      an\sound_play "concrete_#{an.random\int(1, 3)}", 0.7, an.random\float(0.95, 1.05)
   720→
   721→      -- Spawn hit effects
   722→      normal_angle = math.angle event.normal_x, event.normal_y
   723→      @effects\add hit_circle event.point_x, event.point_y, {radius: 6 + 4*intensity, duration: an.random\float(0.15, 0.3), color: yellow, flash_on_spawn: true}
   724→      for i = 1, an.random\int 1, 3
   725→        @effects\add hit_particle event.point_x, event.point_y,
   726→          velocity: intensity*an.random\float(100, 200)
   727→          direction: normal_angle + math.pi + an.random\float(-math.pi/3, math.pi/3)
   728→          duration: an.random\float(0.3, 0.5)
   729→          color: yellow
... [150 more lines]

The user wants to remove the `bow_has_fired` logic that prevents the bow from showing a drawn arrow on the first shot. Let me trace through the code to understand what `bow_has_fired` does.

From what I've read:

1. In the bow init (line 1147): `@bow_has_fired = false`
2. In the update (line 1344): `bow_should_pull = @bow_has_fired and @cooldown_bar.progress >= 0.75` — this means the bow won't auto-pull until after the first shot has been fired
3. In `bow_fire` (line 1711): `@bow_has_fired = true` — set to true after first fire


4. The effect is that before the first shot, the bow doesn't show the pull animation, but after firing once, it starts showing the pull animation at 75% cooldown

To fix this, I need to remove the `@bow_has_fired` initialization and change the condition to just check the cooldown progress directly, removing the dependency on whether a shot has been fired yet.

But I'm realizing there's a potential issue: the cooldown_bar might not be initialized before the first shot, so its progress value could be undefined or 0. Let me check what the initial state of the cooldown_bar is before `bow_fire` is called.

1788:class cooldown_bar extends object

1788→class cooldown_bar extends object
  1789→  new: (args={}) =>
  1790→    super 'cooldown_bar'
  1791→    @w = args.w or 20
  1792→    @h = args.h or 3
  1793→    @bg_color = args.bg_color or (color 0, 0, 0, 160)
  1794→    @fill_color = args.fill_color or (color 255, 255, 255)
  1795→    @progress = 1
  1796→    @duration = 0
  1797→    @elapsed = 0
  1798→    @active = false
  1799→
  1800→  activate: (duration) =>
  1801→    @duration = duration
  1802→    @elapsed = 0
  1803→    @progress = 0
  1804→    @active = true
  1805→
  1806→  update: (dt) =>
  1807→    if @active
  1808→      @elapsed += dt
  1809→      @progress = math.min(1, @elapsed/@duration)
  1810→      if @progress >= 1
  1811→        @active = false
  1812→    if @active
  1813→      wx = @parent.weapon_ui.weapon_x
  1814→      wy = @parent.weapon_ui.weapon_y + 17
  1815→      ui\push wx, wy, 0, 1, 1
  1816→      ui\rounded_rectangle -@w/2, -@h/2, @w, @h, 2, @bg_color!
  1817→      ui\rounded_rectangle -@w/2, -@h/2, @w*@progress, @h, 2, @fill_color!
... [20 more lines]

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The first task is "Arrows shot increase by 1 on hit (bow scaling)". Let me look at the existing hit tracking for bow to understand where to add this.

From what I've already read, when a projectile hits a ball (line 770-786):

- Line 784: `owner = if projectile_object.team == 'player' then @player_ball else @enemy_ball`
- Line 785: `owner.hits_landed += 1`
- Line 786: `owner.weapon_ui\landed_hit!`

And for other weapons, there's scaling on hit (lines 812-819):

- Dagger increases `base_angular_velocity`


- Sword increases `thrust_damage`

So the pattern is clear — in the projectile-ball sensor section, I need to add a check for bow and increment `arrows_per_shot`. I also notice that other weapons spawn an emoji_text effect showing the scaling bonus, so I should do the same for bow. Let me examine the projectile-ball sensor section more carefully to find the right place to add this.

Looking at the sensor logic, I can see where the hit is registered and the weapon UI updates. I need to add the bow scaling logic right after that point, before the particle effects spawn.

I'm adding a check for bow-type weapons that increments the arrows per shot and displays a visual feedback message when a hit lands. Let me verify the emoji_text function signature to make sure I'm passing the parameters correctly.

780→
   781→      ball_object\take_damage 1
   782→
   783→      -- Track hit for projectile owner
   784→      owner = if projectile_object.team == 'player' then @player_ball else @enemy_ball
   785→      owner.hits_landed += 1
   786→      owner.weapon_ui\landed_hit!
   787→
   788→      -- Spawn star particles at hit location
   789→      x = (projectile_object.x + ball_object.x)/2
   790→      y = (projectile_object.y + ball_object.y)/2
   791→      for i = 1, an.random\int 1, 3
   792→        @effects\add star_particle x, y,
   793→          flash_on_spawn: true
   794→
   795→    -- Weapon-ball sensor: deal damage (melee only)
   796→    for event in *an\sensor_begin_events 'weapon_hitbox', 'ball'
   797→      attacker = event.a  -- weapon_hitbox tag (ball that owns the weapon)
   798→      defender = event.b  -- ball tag (ball that got hit)
   799→

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

1640→    tip_offset = @weapon_visual_offset + @weapon_hitbox_length/2
  1641→    tip_x = @x + tip_offset*math.cos(@angle)
  1642→    tip_y = @y + tip_offset*math.sin(@angle)
  1643→
  1644→    ray_length = 120
  1645→    ray_end_x = tip_x + ray_length*math.cos(@angle)
  1646→    ray_end_y = tip_y + ray_length*math.sin(@angle)
  1647→
  1648→    -- debug_draw\line tip_x, tip_y, ray_end_x, ray_end_y, 2, red!
  1649→
  1650→    hit = an\raycast tip_x, tip_y, ray_end_x, ray_end_y, 'ball'
  1651→    hit and hit.object.team != @team
  1652→
  1653→  -- Sword thrust: hit stop to signal, then lunge toward enemy
  1654→  sword_thrust: =>
  1655→    @thrust_ready = false
  1656→    @pre_thrust_angular_sign = math.sign(@collider\get_angular_velocity!)
  1657→    @thrust_angle = @angle  -- lock thrust direction
  1658→
  1659→    -- Stop rotation immediately during hit stop
  1660→    @collider\set_fixed_rotation true
  1661→    @collider\set_angular_velocity 0
  1662→
  1663→    -- Hit stop to signal the thrust
  1664→    an\hit_stop 0.3
  1665→
  1666→    -- After hit stop, begin the actual lunge
  1667→    @timer\after 0.01, 'thrust_start', ->
  1668→      @thrusting = true
  1669→      @thrust_hit_this_thrust = false
... [25 more lines]

667:      @\hit_stop 0.1 * math.max(ball_a.hit_stop_multiplier, ball_b.hit_stop_multiplier)

833:      @\hit_stop 0.15*attacker.hit_stop_multiplier

872:  get_hit_stop_probability: =>

880:    probability = @\get_hit_stop_probability!

891:  hit_stop: (duration=0.1) =>

892:    probability = @\get_hit_stop_probability!

894:      an\hit_stop duration

1102:      @hit_stop_multiplier = 1.0

1120:      @hit_stop_multiplier = 1.4 -- longer hit stops

1143:      @hit_stop_multiplier = 1.0

1167:      @hit_stop_multiplier = 1.0

1664:    an\hit_stop 0.3

888→      for i = 1, particle_count
   889→        @effects\add hit_particle x, y, {velocity: multiplier*an.random\float(100, 250), duration: multiplier*an.random\float(0.3, 0.5)}
   890→
   891→  hit_stop: (duration=0.1) =>
   892→    probability = @\get_hit_stop_probability!
   893→    if an.random\bool 100*probability
   894→      an\hit_stop duration
   895→    @time_since_last_hit = 0
   896→
   897→  -- Validated plant configurations: {image, size, offset}
   898→  -- offset: positive = sinks into ground, negative = sticks out more
   899→  plant_configs:
   900→    seedling: {
   901→      {size: 12, offset: 0}
   902→      {size: 14, offset: 0}
   903→      {size: 16, offset: 0}
   904→      {size: 22, offset: 0}
   905→    }
   906→    sheaf: {
   907→      {size: 12, offset: 0}

1257→      @bow_ready = true
  1258→      @timer\when (-> @bow_ready and @\bow_is_aligned!), 'bow_fire', (-> @\bow_fire!)
  1259→
  1260→  update: (dt) =>
  1261→    -- When paused, use dt = 0 so physics logic doesn't run
  1262→    dt = 0 if @parent.paused
  1263→
  1264→    -- Read angle from physics
  1265→    @angle = @collider\get_angle!
  1266→

E:\a327ex\Anchor\framework\init.yue:99:  an.hit_stop_active = false  -- True during hitstop
E:\a327ex\Anchor\framework\init.yue:100:  an.hit_stop_excluded_tags = {}  -- Tags that ignore hitstop
E:\a327ex\Anchor\framework\init.yue:566:      an\hit_stop 0.1                              -- freeze everything for 0.1s
E:\a327ex\Anchor\framework\init.yue:567:      an\hit_stop 0.05, except: 'ui'               -- 'ui' tagged objects use unscaled_dt
E:\a327ex\Anchor\framework\init.yue:568:      an\hit_stop 0.1, except: {'ui', 'particles'} -- multiple exclusions
E:\a327ex\Anchor\framework\init.yue:580:  an.hit_stop = (duration, options={}) =>
E:\a327ex\Anchor\framework\init.yue:585:        @hit_stop_excluded_tags = {[except]: true}
E:\a327ex\Anchor\framework\init.yue:587:        @hit_stop_excluded_tags = {}
E:\a327ex\Anchor\framework\init.yue:589:          @hit_stop_excluded_tags[tag] = true
E:\a327ex\Anchor\framework\init.yue:591:      @hit_stop_excluded_tags = {}
E:\a327ex\Anchor\framework\init.yue:594:    unless @hit_stop_active
E:\a327ex\Anchor\framework\init.yue:598:    @hit_stop_active = true
E:\a327ex\Anchor\framework\init.yue:599:    @hit_stop_remaining = duration
E:\a327ex\Anchor\framework\init.yue:613:    if @hit_stop_active and object.tags
E:\a327ex\Anchor\framework\init.yue:615:        if @hit_stop_excluded_tags[tag]
E:\a327ex\Anchor\framework\init.yue:620:  an\early_action 'hit_stop_countdown', (dt) =>
E:\a327ex\Anchor\framework\init.yue:621:    return unless @hit_stop_active
E:\a327ex\Anchor\framework\init.yue:622:    @hit_stop_remaining -= @unscaled_dt
E:\a327ex\Anchor\framework\init.yue:623:    if @hit_stop_remaining <= 0
E:\a327ex\Anchor\framework\init.yue:624:      @hit_stop_active = false
E:\a327ex\Anchor\framework\init.yue:625:      @hit_stop_excluded_tags = {}
E:\a327ex\Anchor\framework\main.lua:914:an:hit_stop(0.1)

E:\a327ex\Anchor\framework\main.lua:918:an:hit_stop(0.2, { except = 'ui' })

E:\a327ex\Anchor\framework\main.lua:926:print("  an.hit_stop_active = " .. tostring(an.hit_stop_active))end;if 

E:\a327ex\Anchor\framework\main.yue:914:    an\hit_stop 0.1
E:\a327ex\Anchor\framework\main.yue:918:    an\hit_stop 0.2, except: 'ui'
E:\a327ex\Anchor\framework\main.yue:926:    print "  an.hit_stop_active = #{an.hit_stop_active}"
E:\a327ex\Anchor\framework\anchor\init.lua:99:an.hit_stop_active = false

E:\a327ex\Anchor\framework\anchor\init.lua:100:an.hit_stop_excluded_tags = {  }

E:\a327ex\Anchor\framework\anchor\init.lua:580:an.hit_stop = function(self, duration, options)if options == nil then options = {  }end;local except = 

... [36 more lines]

593→    -- Only save pre_hitstop_time_scale if not already in hitstop
   594→    unless @hit_stop_active
   595→      @pre_hitstop_time_scale = @time_scale
   596→
   597→    -- Activate hitstop (engine sync happens in update loop)
   598→    @hit_stop_active = true
   599→    @hit_stop_remaining = duration
   600→    @time_scale = 0
   601→
   602→  --[[
   603→    Returns the appropriate dt for an object based on hitstop state.
   604→
   605→    Usage (internal, called by main loop):
   606→      dt = an\get_dt_for object
   607→
   608→    Returns:
   609→      - unscaled_dt if hitstop is active AND object has an excluded tag
   610→      - an.dt otherwise (which is 0 during hitstop, scaled_dt otherwise)
   611→  ]]
   612→  an.get_dt_for = (object) =>
   613→    if @hit_stop_active and object.tags
   614→      for tag, _ in pairs object.tags
   615→        if @hit_stop_excluded_tags[tag]
   616→          return @unscaled_dt
   617→    @dt
   618→
   619→  -- Hitstop countdown action (uses unscaled time)
   620→  an\early_action 'hit_stop_countdown', (dt) =>
   621→    return unless @hit_stop_active
   622→    @hit_stop_remaining -= @unscaled_dt
... [5 more lines]

1685:    @timer\cancel 'thrust_end'

781:      ball_object\take_damage 1

812:      defender\take_damage damage, attacker

1534:  take_damage: (amount, source) =>

1534→  take_damage: (amount, source) =>
  1535→    return unless @parent  -- Guard against events before fully added
  1536→    @hp -= amount
  1537→    @spring\pull 'hit', 0.3, 3, 0.7
  1538→    @\flash_ball!
  1539→
  1540→    -- Sound
  1541→    an\sound_play 'dagger_ball', 0.88, an.random\float(0.95, 1.05)
  1542→    -- if @team == 'player'
  1543→    --   an\sound_play 'player_hit', 0.5, an.random\float(0.95, 1.05)
  1544→
  1545→    -- Spawn damage number above
  1546→    @parent\add damage_number @x, @y - @radius - 10, amount, {duration_multiplier: 0.5}
  1547→
  1548→    -- Show HP bar
  1549→    @hp_bar\activate!
  1550→
  1551→    -- Update HP UI
  1552→    @hp_ui\refresh @hp
  1553→
  1554→    -- Update emoji display
  1555→    @weapon_ui\hit!
  1556→
  1557→    -- Camera shake when player takes damage
  1558→    if @team == 'player'
  1559→      an.camera.shake\shake 4, 0.15
  1560→
  1561→    if @hp <= 0
  1562→      an\sound_play 'player_death', 0.44, an.random\float(0.95, 1.05)
  1563→      @\kill!
... [20 more lines]

No matches found

E:\a327ex\Anchor\framework\init.yue:578:      - Objects with excluded tags get unscaled_dt via get_dt_for
E:\a327ex\Anchor\framework\init.yue:606:      dt = an\get_dt_for object
E:\a327ex\Anchor\framework\init.yue:612:  an.get_dt_for = (object) =>
E:\a327ex\Anchor\framework\init.yue:1502:    obj\_early_update an\get_dt_for(obj) for obj in *all_objects
E:\a327ex\Anchor\framework\init.yue:1504:    obj\_update an\get_dt_for(obj) for obj in *all_objects
E:\a327ex\Anchor\framework\init.yue:1506:    obj\_late_update an\get_dt_for(obj) for obj in *all_objects
E:\a327ex\Anchor\framework\anchor\init.lua:612:an.get_dt_for = function(self, object)if 

E:\a327ex\Anchor\framework\anchor\init.lua:1502:1, #all_objects do local obj = all_objects[_index_0]obj:_early_update(an:get_dt_for(obj))end;for _index_0 = 

E:\a327ex\Anchor\framework\anchor\init.lua:1504:1, #all_objects do local obj = all_objects[_index_0]obj:_update(an:get_dt_for(obj))end;for _index_0 = 

E:\a327ex\Anchor\framework\anchor\init.lua:1506:1, #all_objects do local obj = all_objects[_index_0]obj:_late_update(an:get_dt_for(obj))end

E:\a327ex\Anchor\framework\anchor\init.yue:578:      - Objects with excluded tags get unscaled_dt via get_dt_for
E:\a327ex\Anchor\framework\anchor\init.yue:606:      dt = an\get_dt_for object
E:\a327ex\Anchor\framework\anchor\init.yue:612:  an.get_dt_for = (object) =>
E:\a327ex\Anchor\framework\anchor\init.yue:1502:    obj\_early_update an\get_dt_for(obj) for obj in *all_objects
E:\a327ex\Anchor\framework\anchor\init.yue:1504:    obj\_update an\get_dt_for(obj) for obj in *all_objects
E:\a327ex\Anchor\framework\anchor\init.yue:1506:    obj\_late_update an\get_dt_for(obj) for obj in *all_objects

1495→    an.dt = engine_get_dt!
  1496→    an.unscaled_dt = engine_get_unscaled_dt!
  1497→
  1498→    all_objects = {an}
  1499→    all_objects[] = obj for obj in *an\all!
  1500→
  1501→    -- Early phase (uses per-object dt based on hitstop exclusion)
  1502→    obj\_early_update an\get_dt_for(obj) for obj in *all_objects
  1503→    -- Main phase
  1504→    obj\_update an\get_dt_for(obj) for obj in *all_objects
  1505→    -- Late phase
  1506→    obj\_late_update an\get_dt_for(obj) for obj in *all_objects
  1507→    an\cleanup!
  1508→  
  1509→    -- Detach camera transforms after all drawing is done
  1510→    for name, layer in pairs an.layers
  1511→      if layer.camera
  1512→        layer.camera\detach layer
  1513→

OK so the framework flattens all objects and calls `_update` on each with `an\get_dt_for(obj)`. The timer is a child of the ball. Let me check how the timer gets updated — does it receive the ball's dt or its own dt from `get_dt_for`?

Looking at the framework update loop: it gathers `all_objects` which is `an` plus all objects from `an\all!`. The timer is a child of the ball, so it would be in `an\all!`. Each object gets `an\get_dt_for(obj)` — this checks if the *object itself* has excluded tags. 

The timer probably doesn't have tags, so it gets `an.dt` which is 0 during hit stop. Since the timer receives dt=0 just like the ball does, the 0.01s timer in `sword_thrust` can't advance during hit stop. Once the hit stop ends and `an.dt` returns to normal, the timer should fire on the next frame.

The user says this sometimes works and sometimes doesn't, which suggests something intermittent is happening. Looking at the `sword_thrust` function, I'm seeing how it sets up the hit stop and then chains timer callbacks together — the initial 0.01s delay before `thrust_start`, then another timer for `thrust_duration` before `thrust_end`.

But the real question is how the condition that triggers `sword_thrust` in the first place actually works. There's a timer `when` that continuously checks if the player is ready and the sword is aligned, then fires the thrust callback. I need to understand whether this `when` fires once and removes itself, or if it keeps re-triggering.

192:      - Only fires when value actually changes (using != comparison)
230:  when: (condition_fn, name_or_callback, callback_or_times, times_or_after, after_function) =>

230→  when: (condition_fn, name_or_callback, callback_or_times, times_or_after, after_function) =>
   231→    name, callback, times, after = if type(name_or_callback) == 'string'
   232→      name_or_callback, callback_or_times, times_or_after, after_function
   233→    else
   234→      @\uid!, name_or_callback, callback_or_times, times_or_after
   235→    entry = {:name, mode: 'when', time: 0, condition: condition_fn, last_condition: false, :callback, :times, :after, count: 0}
   236→    if @\find name
   237→      @entries[@\find name] = entry
   238→    else
   239→      @entries[] = entry
   240→
   241→  --[[
   242→    Calls callback every delay seconds while condition is true.
   243→
   244→    Usage:
   245→      @timer\cooldown 2, (-> @target), -> @attack!
   246→      @timer\cooldown 1, (-> @can_shoot), 'shoot', (-> @shoot!), 5
   247→
   248→    Parameters:
   249→      delay        - cooldown time between fires
   250→      condition_fn - function returning boolean
   251→      name         - (optional) timer name
   252→      callback     - function to call
   253→      times        - (optional) limit number of fires
   254→      after        - (optional) callback when times limit reached
   255→
   256→    Behavior:
   257→      - Timer resets to 0 when condition transitions false->true
   258→      - Only fires when BOTH delay elapsed AND condition is true
   259→      - Timer keeps counting while condition is false (holds cooldown)
... [10 more lines]

235:    entry = {:name, mode: 'when', time: 0, condition: condition_fn, last_condition: false, :callback, :times, :after, count: 0}
408:      when 'when'
524:        when 'when'

520→              if entry.count >= entry.times
   521→                entry.after! if entry.after
   522→                to_remove[] = index
   523→
   524→        when 'when'
   525→          current_condition = entry.condition!
   526→          if current_condition and not entry.last_condition
   527→            entry.callback!
   528→            if entry.times
   529→              entry.count += 1
   530→              if entry.count >= entry.times
   531→                entry.after! if entry.after
   532→                to_remove[] = index
   533→          entry.last_condition = current_condition
   534→
   535→        when 'cooldown'
   536→          delay = entry.delay * (entry.multiplier or 1)
   537→          current_condition = entry.condition!
   538→          if current_condition and not entry.last_condition
   539→            entry.time = 0

The user is describing a scenario where:

1. Hit stop happens (everything freezes)
2. After hit stop ends, the thrust never actually happens
3. The "thrusting" emoji text spawns but is all white and quickly dies (progress 0)
4. This suggests `thrust_end` gets called almost immediately after `thrust_start`

The user suspects it might be related to a wall collision happening simultaneously. Let me think about this...

Let me re-read the thrust flow:

1. `sword_thrust` fires:
   - `@thrust_ready = false`
   - `@collider\set_fixed_rotation true`
   - `@collider\set_angular_velocity 0`
   - `an\hit_stop 0.3`
   - `@timer\after 0.01, 'thrust_start', ->` (sets up the actual lunge)

2. Inside `thrust_start` callback:
   - `@thrusting = true`
   - `@thrust_progress = 0`
   - Sets up velocity, gravity, bullet mode
   - Spawns status_text
   - `@timer\after @thrust_duration, 'thrust_end', -> @\thrust_end!`

3. `thrust_end`:
   - `return unless @thrusting`
   - `@thrusting = false`

So the flow is: hit_stop triggers, then after a brief delay thrust_start runs and sets up the lunge with a timer for when it should end. The issue is that thrust_end seems to fire almost immediately, cutting the animation short before it can progress.

Looking at what happens when the ball collides with a wall during or right after the hit stop phase—the collision handling code around line 660-710 handles wall impacts with squash, camera shake, and particles, but I need to check if something there is triggering thrust_end prematurely. The physics state gets locked during hit stop with fixed rotation, so I'm wondering if the collision response is somehow interfering with the thrust timing. So the ball could collide with a wall during that 0.01s window after hit stop ends but before thrust_start fires, but wall collisions don't trigger thrust_end. Let me check what thrust_end actually does — it looks like it cancels the thrusting state and cleans up the timer, but I need to see the full method to understand what else happens.

Looking at the thrust_end implementation, it resets the collider properties, clears the angular velocity timers, marks the thrust text as stopped, and sets up the cooldown timer. The key thing is it has an early return if thrusting isn't true, so it only runs if thrust_start actually set that flag. The user is saying the thrust text did spawn, which means thrust_start ran, but...

Resetting physics properties and managing the cooldown state... with progress 0 and quickly dying. This suggests `thrust_end` runs immediately or very soon after `thrust_start`.

Wait — the `thrust_end` timer name is `'thrust_end'`. What if something ELSE creates a timer with that name? No, that seems unlikely.

Let me look at the thrust update code. I'm seeing the sword update logic that increments thrust progress and calls `thrust_end` when it reaches completion. Then it's applying a lerp to calculate the current speed based on the progress, and setting the velocity using that speed and the thrust angle.

1320→        horizontal = math.sin(@angle)*dir
  1321→        -- Scale horizontal: full at right quadrant (0), opposite at left (π) for clockwise
  1322→        horizontal_scale = dir == 1 and (0.35 + 0.65*math.cos(@angle)) or (0.35 - 0.65*math.cos(@angle))
  1323→        horizontal = horizontal*horizontal_scale
  1324→        -- Vertical force: cos(angle), strongest at 0 and π
  1325→        vertical = -math.cos(@angle)*dir
  1326→        -- Only reduce upward (negative) vertical force that makes flame taller
  1327→        if vertical < 0
  1328→          vertical = vertical*0.3
  1329→        -- Add velocity-based force (flame bends opposite to movement direction)
  1330→        vx, vy = @collider\get_velocity!
  1331→        velocity_scale = 0.001  -- scale factor for velocity influence
  1332→        horizontal -= vx*velocity_scale
  1333→        vertical -= vy*velocity_scale*0.3  -- reduced vertical influence
  1334→        -- Convert to angle and magnitude
  1335→        force_angle = math.atan(vertical, horizontal)
  1336→        force_magnitude = speed/3
  1337→        flame\apply_wind force_angle, force_magnitude
  1338→        -- Base height scales with angular velocity (logistic curve)
  1339→        flame.velocity_height_scale = 1.6/(1 + math.exp(-(speed - 1.73)))
  1340→      -- During thrust, override velocity each frame (starts at current speed, accelerates)
  1341→      if @thrusting
  1342→        @thrust_progress = math.min(1, @thrust_progress + dt/@thrust_duration)
  1343→        speed = math.lerp(math.quad_out(@thrust_progress), @thrust_start_speed, @thrust_end_speed)
  1344→        @collider\set_velocity speed*math.cos(@thrust_angle), speed*math.sin(@thrust_angle)

683:        ball_object\thrust_end!

1343:        speed = math.lerp(math.quad_out(@thrust_progress), @thrust_start_speed, @thrust_end_speed)

1412:      thrust_speed = math.lerp(math.quad_out(@thrust_progress), @thrust_start_speed, @thrust_end_speed)

1673:      @thrust_end_speed = math.max(400, @thrust_start_speed + @thrust_speed)

1679:      @timer\after @thrust_duration, 'thrust_end', -> @\thrust_end!

1682:  thrust_end: =>

1685:    @timer\cancel 'thrust_end'

675→        ball_b.weapon_ui\reflect!
   676→
   677→    -- Ball-wall collision: probabilistically apply energy boost based on system energy
   678→    for event in *an\collision_begin_events 'ball', 'wall'
   679→      ball_object = event.a
   680→
   681→      -- Cancel thrust on wall hit
   682→      if ball_object.thrusting
   683→        ball_object\thrust_end!
   684→
   685→      vx, vy = ball_object.collider\get_velocity!
   686→      if an.random\bool(@wall_boost_chance) and @wall_energy_boost > 1
   687→        ball_object.collider\set_velocity vx*@wall_energy_boost, vy*@wall_energy_boost
   688→
   689→      -- Squash ball based on wall orientation, intensity shaped by easing
   690→      intensity = math.clamp(math.remap(math.length(vx, vy), 0, 800, 0, 1), 0, 1)
   691→
   692→      -- Sound (pitch increases linearly with intensity above 0.45)
   693→      pitch = if intensity > 0.45 then 1.0 + math.remap(intensity, 0.45, 0.7, 0, 1) else 1.0
   694→      an\sound_play 'ball_wall', 0.4, pitch*an.random\float(0.95, 1.05)

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The user wants:

1. Fire multiple arrows based on `arrows_per_shot`
2. Each arrow should have a delay between them
3. The scaling should be per-shot, not per-arrow - so if 10 arrows are fired and multiple hit, it only counts as +1

Let me think about the implementation:

For the multi-arrow firing:

- In `bow_fire`, instead of spawning a single arrow, spawn `arrows_per_shot` arrows with a delay between each
- Could use `timer\every` or a loop with `timer\after` with increasing delays

For the per-shot scaling:

- Currently the scaling is in the projectile-ball sensor handler, where it does `owner.arrows_per_shot += 1` for every hit


- I need to track which shot an arrow belongs to and only count the scaling once per shot, not once per arrow
- The simplest approach is to give each arrow a `shot_id` and track the last counted shot ID on the ball, so when any arrow from that shot hits, I check if it's a new shot before incrementing
- I should explain this approach to the user before implementing it

125:--   gun_fire_1 (revolver_shot1): -24.7 dB → 0.54

126:--   gun_fire_2 (revolver_shot2): -24.9 dB → 0.56

127:--   gun_fire_3 (revolver_shot3): -23.3 dB → 0.46

148:an\sound 'gun_fire_1', 'assets/revolver_shot1.ogg'

149:an\sound 'gun_fire_2', 'assets/revolver_shot2.ogg'

150:an\sound 'gun_fire_3', 'assets/revolver_shot3.ogg'

1233:    @burstfire_chance_increase_per_hit = 0.01  -- 1% per hit

1234:    @base_burstfire_delay = 0.4

1235:    @minimum_burstfire_delay = 0.05

1236:    @burstfire_delay_reduction_per_hit = (0.4 - 0.05) / 50  -- reaches 0.05s in 50 hits

1251:      @gun_ready = true

1252:      @timer\when (-> @gun_ready and @\gun_is_aligned!), 'gun_fire', (-> @\gun_fire!)

1594:    an\sound_play "gun_fire_#{an.random\int(1, 3)}", 0.63, an.random\float(0.95, 1.05)

1620:  gun_fire: =>

1621:    @gun_ready = false

1623:    @timer\after cooldown, 'gun_cooldown', -> @gun_ready = true

1626:    -- Check for burstfire

1627:    burstfire_chance = @burstfire_chance_increase_per_hit * @hits_landed

1628:    is_burstfire = an.random\bool burstfire_chance * 100

1630:    if is_burstfire

1631:      burst_delay = math.max(@minimum_burstfire_delay, @base_burstfire_delay - @hits_landed * @burstfire_delay_reduction_per_hit)

2036:      burst_chance = math.floor(math.min(ball.hits_landed*ball.burstfire_chance_increase_per_hit*100, 50))

1618→
  1619→  -- Gun callback: fire projectile with effects
  1620→  gun_fire: =>
  1621→    @gun_ready = false
  1622→    cooldown = math.max(@minimum_cooldown, @base_cooldown - @hits_landed * @cooldown_reduction_per_hit)
  1623→    @timer\after cooldown, 'gun_cooldown', -> @gun_ready = true
  1624→    @cooldown_bar\activate cooldown
  1625→
  1626→    -- Check for burstfire
  1627→    burstfire_chance = @burstfire_chance_increase_per_hit * @hits_landed
  1628→    is_burstfire = an.random\bool burstfire_chance * 100
  1629→
  1630→    if is_burstfire
  1631→      burst_delay = math.max(@minimum_burstfire_delay, @base_burstfire_delay - @hits_landed * @burstfire_delay_reduction_per_hit)
  1632→      @\fire_single_shot!
  1633→      @timer\after burst_delay, -> @\fire_single_shot!
  1634→      @timer\after burst_delay * 2, -> @\fire_single_shot!
  1635→    else
  1636→      @\fire_single_shot!
  1637→
  1638→  -- Sword alignment check: raycast from sword tip to detect enemy
  1639→  sword_is_aligned: =>
  1640→    tip_offset = @weapon_visual_offset + @weapon_hitbox_length/2
  1641→    tip_x = @x + tip_offset*math.cos(@angle)
  1642→    tip_y = @y + tip_offset*math.sin(@angle)
  1643→
  1644→    ray_length = 120
  1645→    ray_end_x = tip_x + ray_length*math.cos(@angle)
  1646→    ray_end_y = tip_y + ray_length*math.sin(@angle)
  1647→
... [30 more lines]

1592:  fire_single_shot: =>

1632:      @\fire_single_shot!

1633:      @timer\after burst_delay, -> @\fire_single_shot!

1634:      @timer\after burst_delay * 2, -> @\fire_single_shot!

1636:      @\fire_single_shot!

1592→  fire_single_shot: =>
  1593→    -- Sound
  1594→    an\sound_play "gun_fire_#{an.random\int(1, 3)}", 0.63, an.random\float(0.95, 1.05)
  1595→
  1596→    gun_tip_offset = @weapon_visual_offset + 12
  1597→    perpendicular = @angle - math.pi/2
  1598→
  1599→    -- Spawn boom particle
  1600→    boom_offset = an.random\float(0.9, 1.1)*gun_tip_offset
  1601→    boom_x = @x + boom_offset*math.cos(@angle) + 10*math.cos(perpendicular)
  1602→    boom_y = @y + boom_offset*math.sin(@angle) + 10*math.sin(perpendicular)
  1603→    @parent.effects\add boom_particle boom_x, boom_y
  1604→
  1605→    -- Weapon feedback
  1606→    @spring\pull 'weapon', 0.6, 3, 0.7
  1607→    @spring\pull 'hit', 0.25, 3, 0.5
  1608→    @\recoil_weapon!
  1609→    @weapon_ui\shoot!
  1610→
  1611→    -- Spawn projectile
  1612→    @parent.projectiles\add projectile boom_x, boom_y,
  1613→      velocity: 15
  1614→      direction: @angle
  1615→      flash_on_spawn: true
  1616→      team: @team
  1617→      bounces: 2
  1618→
  1619→  -- Gun callback: fire projectile with effects

1708→    hit = an\raycast tip_x, tip_y, ray_end_x, ray_end_y, 'ball'
  1709→    hit and hit.object.team != @team
  1710→
  1711→  -- Bow callback: fire arrow with effects
  1712→  bow_fire: =>
  1713→    @bow_ready = false
  1714→    @bow_pulling = false
  1715→    @bow_arrow_alpha = 0
  1716→    @spring\pull 'weapon', 0.6
  1717→    @spring\pull 'hit', 0.25, 3, 0.5
  1718→    @timer\tween 0.2, @, {bow_pull_amount: 0}, math.elastic_out, nil, 'bow_release'
  1719→    @timer\tween 0.08, @, {bow_sy: 1}, math.cubic_in_out, nil, 'bow_sy_release'
  1720→    @timer\after @bow_cooldown, 'bow_cooldown', -> @bow_ready = true
  1721→    @cooldown_bar\activate @bow_cooldown
  1722→
  1723→    -- Spawn arrow
  1724→    spawn_x = @x + 20*math.cos(@angle)
  1725→    spawn_y = @y + 20*math.sin(@angle)
  1726→    @parent.projectiles\add projectile spawn_x, spawn_y,
  1727→      projectile_type: 'arrow'
  1728→      velocity: 3
  1729→      direction: @angle
  1730→      flash_on_spawn: true
  1731→      team: @team
  1732→      bounces: 0

Good point. The pull animation (bow_pull_amount tween and bow_sy tween) should fit within the delay between shots. If the delay is 0.1s, the pull release tween should complete within that window. Currently I have 0.2s for the elastic_out tween and 0.08s for bow_sy, but those should scale with the delay.

Actually, let me think more carefully. The `fire_single_arrow` shows the release animation (snap from pulled to released). But we also want to show the pull-up animation before each arrow fires. So the sequence for each arrow should be:

1. Show arrow being pulled back (bow_pull_amount goes from 0 to 8, bow_sy goes to 0.9, bow_arrow_alpha = 1)


2. Release: snap bow_pull_amount to 0, bow_sy to 1, bow_arrow_alpha to 0, spawn arrow

For subsequent arrows, the delay between shots should contain both the pull animation and the release snap. The user wants a fast pull animation for each shot, so I need to make sure the pull-up happens quickly within that delay window, followed by the release snap that spawns the arrow.

Looking at how the current code drives the pull animation through the cooldown_bar progress, I should pass the delay value to `fire_single_arrow` and scale the tween durations proportionally. If shots are 0.1s apart, the entire pull-and-release cycle needs to fit within that 0.1s window instead of using hardcoded durations like 0.2 and 0.08.

Refactoring the function...

The user is right. The tweens in `fire_single_arrow` are for the *release* (bow_pull_amount going from 8 to 0, bow_sy going from 0.9 to 1). But the *pull* animation (bow_pull_amount going from 0 to 8, bow_sy going from 1 to 0.9, bow_arrow_alpha appearing) isn't happening - I'm just snapping those values instantly with `@bow_pull_amount = 8`, `@bow_sy = 0.9`.

For the first shot, the pull is handled by the update loop (the `bow_should_pull` logic at lines 1344-1356 that uses `lerp_dt`). 

For subsequent shots in a burst, I need to animate the pull phase too. Each arrow should have a pull animation that transitions the bow state before the release phase fires, so I need to either split `fire_single_arrow` into separate pull and release phases or schedule them sequentially.

The timing works out to: during the 0.1s delay between shots, pull the string back in the first part, then release and fire at the end. I could have the first arrow fire immediately since the pull is already done, then for each subsequent arrow, schedule the pull to start at `i*delay - pull_time` and the fire to happen at `i*delay`. the release (spawn arrow + release tween), and simultaneously start pulling the next arrow. So each `fire_single_arrow` call handles both the current release and preps the next pull. Looking at the current update loop, the pull uses a continuous lerp_dt rather than a tween, so for the burst I need to compress that same lerp behavior into each 0.1s window between shots. a faster version. I think the simplest approach is:

In `fire_single_arrow`:

1. Spawn arrow + release animation
2. Then immediately start pulling back for the next shot (tween bow_pull_amount from 0 to 8 over the delay period)

But wait, the release tween goes bow_pull_amount → 0 and the pull tween goes bow_pull_amount → 8. If they use the same tween name, the pull would override the release. So maybe:

1. Snap release: instantly set bow_pull_amount = 0, bow_sy = 1 (or do a very fast release tween)
2. Then tween pull: bow_pull_amount 0 → 8 over `delay` seconds

Actually, the sequence should be more like:

- Fire arrow (release snap) → immediate pull back → hold at pulled state → fire next arrow

For the timing, I should schedule each arrow's pull tween to start before it fires, so the bow visually draws back over the delay window before releasing. The simplest structure would be to fire the first arrow immediately, then for each subsequent arrow, schedule its pull tween to begin at the right offset and fire when the delay completes. I'm spawning the arrow at the correct offset from the player, then scheduling the pull animation for the next shot to begin after a delay—but I'm realizing the tween name overrides might cause issues if animations overlap, so I should clarify what I'm actually trying to achieve here.

The user is asking where the pull animation happens and how it's timed, so I need to structure this properly: each subsequent arrow should have its pull animation (scaling and alpha changes) run over the full delay period, then trigger the release and spawn when that completes.

OK so the user wants:

1. First shot: normal release animation (0.2 for bow_pull_amount, 0.08 for bow_sy) - the pull was already done by the update loop
2. Middle shots: pull and release scaled to the delay (0.1s)
3. Last shot: normal release animation (0.2 for bow_pull_amount, 0.08 for bow_sy), and also if it's a middle shot it would have had a scaled pull

Wait, let me re-read. "the first shot has the full pull animation without the scaled delay" - so the first shot's release uses the original durations (0.2, 0.08). "the last shot has the full release animation (0.2, 0.8)" - I think they mean (0.2, 0.08) for the release. "Only shots in between should be affected by the 0.1s delay both in the pull and release."
 
So the pattern is: first shot gets a normal release with no scaled pull, middle shots get both pull and release scaled by the delay, and the last shot gets a normal release but its preceding pull (if it's also a middle shot) would be scaled. The first shot's pull is already handled naturally by the update loop, so I just need to make sure its release uses the standard durations while everything in between gets compressed. read: "the first shot has the full pull animation without the scaled delay" - yes, the first shot's pull was the natural one from the update loop. Its release uses (0.2, 0.08).

"the last shot has the full release animation (0.2, 0.8)" - the last shot's release uses (0.2, 0.08). But its pull (if it's not the first) would be scaled.

Wait, the user wrote (0.2, 0.8) - I think that's a typo for (0.2, 0.08). Let me just use the original values.

So the logic:

- First arrow: fire immediately with release durations (0.2, 0.08). If not the only arrow, start a pull tween for the next.
- Middle arrows: fire with release durations scaled to delay. Start pull tween for next
- Last arrow: fire with release durations (0.2, 0.08). No pull for next.

For single arrows, it's both first and last so use normal release. With two arrows, the first fires normally and triggers a pull, then the second fires with normal release. With three or more, the first uses normal release and starts a pull, middle arrows get scaled release and pull, and the last uses normal release.

Now I'm realizing the pull timing is separate from the release timing—the pull always needs to fit within the 0.1s delay window regardless of whether it's leading into a middle or last arrow, so it should always scale to the delay. Only the release durations change based on position.

Implementing this now... Writing arrow release and spawn logic...

Actually, I'm noticing a potential issue with the animation timing. When the arrow releases, there's a tween that brings `bow_pull_amount` back to 0 over 0.2 seconds, but if this isn't the last arrow, I'm immediately starting another tween that pulls it back up to 8. Since both tweens have different names, they could conflict and cause the bow to behave unexpectedly during the transition between shots. but they're both tweening `bow_pull_amount` on the same object. That would conflict!

I need to handle this differently. The release should finish before the pull starts. So for the first arrow:

- Release tween (0.2s) for bow_pull_amount → 0
- After some time, start pull tween for next

Or maybe the pull should start after a small delay. But with a 0.1s window and a 0.2s release on the first shot, the release is actually longer than the window to the next shot.

This is getting complicated. The first shot fires immediately, the second at 0.1s, but the first shot's release takes 0.2s, so they'd overlap. The second shot would override the first shot's release tween since they share the same tween name. I think the solution is to use a scaled release for the first shot if more arrows are coming, but the user explicitly said the first shot should have the full pull animation without scaled delay. Let me reconsider what that actually means—it's about the pull animation from the update loop, not necessarily the release timing. The issue is that both tweens would be active simultaneously, fighting over the same property each frame. Instead, I should use a single tween for the pull that starts right after the previous arrow fires, and have it snap to release when the next shot triggers—basically canceling the release animation and letting the pull tween take over. I'm realizing the issue: the first shot needs its natural pull from the cooldown bar without interruption, but subsequent shots get snapped pulls that are immediately overwritten by the next arrow's pull tween, while the final shot gets the full leisurely release since nothing comes after it. So the pattern is really about managing when tweens interrupt each other based on whether there are more arrows queued. Writing the bow_fire function... I'm realizing the tween names need to be unified so the pull and release animations override each other properly instead of running simultaneously. I should use the same tween identifier for both the pull and release phases of the bow_pull_amount property.

Writing the bow_fire function... Writing the arrow release mechanics...

I'm spotting a timing issue though—when firing the first arrow, the release tween uses the 'bow_anim' name, but then if there are more arrows to fire, the pull tween for the next shot also uses 'bow_anim', which would cancel out the release animation. I need to make sure these tweens don't conflict with each other. the pull tween with the same name 'bow_anim' will override the release tween for bow_pull_amount, but bow_sy has a separate tween name 'bow_sy_anim' that won't get overridden. I need to make sure both properties use the same tween name so the pull completely replaces the release animation.

Refactoring the pull to use two separate named tweens... I see the issue now—when a middle arrow fires, the release tween and the next pull tween both target the same property, so the pull overrides the release and the bow never actually shows the release animation. I need to sequence them instead: release first with a quick duration, then start the pull tween after that completes.

The simplest fix is to snap the bow to the released state instantly, trigger the spring effects for feedback, spawn the arrow, then immediately begin tweening the pull over the full delay period.

Writing the middle arrow logic... For the first arrow, I'm setting up the full release animation with spring feedback, tweening the pull amount to zero with an elastic curve and the scale back to normal, then spawning the projectile at the calculated position relative to the bow.

Now I'm configuring the projectile properties like velocity and direction, then looping through the remaining arrows to schedule their timing. I'm realizing the scheduling logic is getting tangled—I need to think through the timeline more carefully for when each arrow should start its pull animation relative to when the previous one fires.

Looking at the timing for a 3-arrow burst: the first arrow gets its full release animation while immediately starting the pull for the second arrow, which overrides that release. The second arrow fires with a snapped release and springs, then starts pulling for the third. The last arrow gets the full release sequence. This means the first arrow's release animation gets wasted in a multi-shot burst, which conflicts with what the user wanted.

Re-reading their requirements: the first shot should have the full pull animation without any scaled delay, and the last shot should have the full release animation (0.2s, 0.08s). Only the middle shots get affected by the 0.1s delay. So for the first arrow in a burst, its release will get cut short by the incoming pull tween for the next arrow, but that seems like an acceptable trade-off since there are more arrows coming.

The implementation strategy is: first arrow fires immediately with whatever release happens, middle arrows pull over the delay then fire with a snappy release, and the last arrow pulls over the delay then fires with the full release duration. For edge cases like a single arrow, it just fires with the full release, and for two arrows, the first gets overridden by the second's pull while the second gets the full release.

Writing the firing logic... Still writing bow mechanics...

Wait, I'm seeing the issue now—when a middle arrow fires, `bow_release_and_fire` gets called without a duration so it snaps instantly, then `bow_start_pull` kicks in immediately, creating this rapid cycle of snap-release followed by pulling. But for the first arrow in a multi-shot sequence, the timings are different with explicit durations of 0.2 and 0.08 seconds.

The key insight is that the pull tween overrides the release tween since they share the same animation key, so the first arrow's release animation gets masked by the pull starting right away. Now I'm deciding on method naming—`fire_single_arrow` feels more consistent with the existing `fire_single_shot` for the gun, though I could also use the helper methods `bow_release_and_fire` and `bow_start_pull` directly. I think `fire_single_arrow` is the cleaner approach here.

I also need to update the projectile constructor to accept and store the `shot_id` parameter alongside the existing properties like `projectile_type`, `team`, `velocity`, `direction`, `bounces`, and `flash_on_spawn`. Once that's in place, I'll present the final implementation to the user for approval.

Let me re-read the user's requirements carefully:

- **First arrow**: full pull (from update loop, already done). Release: full (0.2, 0.08) only if it's the only arrow. If there are more arrows, shorter release.
- **Middle arrows**: arrow_delay scaled pull AND release.
- **Last arrow**: arrow_delay scaled pull, full release (0.2, 0.08).

So for a single arrow (n=1): full pull (update loop) + full release.
For n=2: first = full pull + short release + start pull; last = scaled pull + full release.
For n=3+: first = full pull + short release + start pull; middle = scaled pull + short release + start pull; last = scaled pull + full release.


The short release for first and middle arrows needs to be fast enough to fit within the arrow_delay window, allowing the next pull to start and complete before the next arrow fires. Since the pull tween can override the release tween with the same name, they can effectively overlap in timing.

For the middle arrows, the previous pull completes just as the next arrow fires with its scaled release, then immediately starts the pull for the following arrow. The last arrow gets the full release timing since there's no subsequent pull needed. This creates a rhythm where single arrows use full release, but in sequences the first and middle arrows compress their release to fit the pull cycle, while only the final arrow gets the extended release. Writing the arrow firing loop...

Actually, I'm realizing there's a timing conflict—the scaled release and the pull start happening simultaneously means the pull tween would override the release tween, which breaks the intended animation sequence.

I think snapping the release instantly and letting the springs handle the impact feedback while the pull tween plays might be cleaner. Or I could sequence them so the release happens first, then the pull starts after. With the tight arrow_delay timing, I need to figure out which approach feels best without making both animations too rushed.

Actually, for middle and first-with-more arrows, I should snap the release and tween the pull over the full arrow_delay. But the user specifically asked for both pull and release to be visible on scaled animations, just compressed. So I could split the timing: release tweens over 40% of arrow_delay, then pull tweens over the remaining 60%, using a timer to stagger them.

Setting up the sequenced animations... I'm realizing the tween override approach might be overcomplicating things. The user specifically asked for both animations scaled by arrow_delay, so let me go with a straightforward split: release takes the first half of the delay, then pull starts partway through and takes the second half, with a bit of overlap to keep things smooth.

Now let me implement all the changes:

1. Add `@bow_shot_id = 0` and `@bow_last_scaled_shot_id = 0` to the bow init
2. Replace `bow_fire` method
3. Add `fire_single_arrow` and `bow_start_pull` methods
4. Add `@shot_id = args.shot_id` to the projectile class
5. Update the scaling check in the projectile-ball sensor handler

Let me also make sure to handle the `@bow_pulling` state correctly. Currently in the update loop, there's code that manages `@bow_pulling` based on cooldown progress. During a burst, the cooldown bar will be at 0 progress (just activated), so `bow_should_pull` will be false and the update loop won't interfere. 

I'm checking the update loop's pull logic to ensure it won't conflict with the burst pull mechanism. The code around lines 1342-1356 handles the bow pulling state based on cooldown progress, and since the cooldown resets to 0 during a burst, the normal pull logic won't activate and interfere with our burst sequence. I'm realizing the tween names don't actually need to match since the update loop's pull only happens at 75% cooldown progress, which won't overlap with the burst firing sequence. The key insight is that when `bow_fire` sets `@bow_pulling = false`, the next update frame won't trigger either the pull or release branches since `bow_should_pull` is also false at that point.

Let me trace through the exact timing: the timer callback fires during the ball's update cycle, so `bow_fire` executes mid-frame, resetting the cooldown to 0 and setting `@bow_pulling = false`. When the bow update section continues later in that same frame, `bow_should_pull` evaluates to false since progress is at 0, so neither conditional branch executes—which is exactly what I want.

But I'm realizing I need to verify the execution order: the timer is a child object in the flat `all_objects` list, so depending on whether it updates before or after the ball, the cooldown bar might not be activated yet when the ball's update runs. Let me think through what happens if the timer fires first versus second.

Actually, children typically come after parents in the list, so the ball updates first while the cooldown bar is still at full progress from the last shot, then the timer fires and resets everything on the next frame. The extra frame of pulling that happens before the reset is invisible anyway.

Now I'm confident this approach will work, so let me start implementing. I need to add shot ID tracking to the bow initialization, completely rewrite the bow_fire method, add the new fire_single_arrow and bow_start_pull methods, update the Projectile class to store the shot ID, and modify the projectile-ball sensor scaling to check against that ID. There's also some tween naming in the update loop's bow pull section I need to verify.

Actually, I'm noticing a potential conflict with the tween names—the update loop uses 'bow_release' and 'bow_sy_release' for its tweens, but my new code uses 'bow_anim' and 'bow_sy_anim'. If both are active simultaneously on the same property, they'll interfere with each other. I should unify these names so they override each other properly instead of conflicting.

Let me standardize everything to use 'bow_release' and 'bow_sy_release' across all bow-related tweens—the update loop's release, the fire_single_arrow release, and the bow_start_pull (which overrides the release). The update loop's pull section uses continuous lerp_dt rather than tweens, so it shouldn't interfere with the burst animations as long as the tween names are consistent.

Now I'm laying out the specific edits needed: adding shot tracking variables to the bow init, replacing the bow_fire method, adding the new fire_single_arrow and bow_start_pull methods, updating the projectile constructor to track shot_id, and modifying the projectile-ball sensor logic.

Let me check the current state of those code sections to make sure I'm making the edits in the right places.

1140→      @base_angular_velocity = 1.5*math.pi
  1141→      @max_angular_velocity = 3*math.pi
  1142→      @weapon_weight = 1.0
  1143→      @hit_stop_multiplier = 1.0
  1144→      @hit_particle_multiplier = 1.0
  1145→      @camera_shake_multiplier = 1.0
  1146→      @arrows_per_shot = 1
  1147→      @bow_cooldown = 2
  1148→      @bow_pull_amount = 0
  1149→      @bow_sy = 1

1710→
  1711→  -- Bow callback: fire arrow with effects
  1712→  bow_fire: =>
  1713→    @bow_ready = false
  1714→    @bow_pulling = false
  1715→    @bow_arrow_alpha = 0
  1716→    @spring\pull 'weapon', 0.6
  1717→    @spring\pull 'hit', 0.25, 3, 0.5
  1718→    @timer\tween 0.2, @, {bow_pull_amount: 0}, math.elastic_out, nil, 'bow_release'
  1719→    @timer\tween 0.08, @, {bow_sy: 1}, math.cubic_in_out, nil, 'bow_sy_release'
  1720→    @timer\after @bow_cooldown, 'bow_cooldown', -> @bow_ready = true
  1721→    @cooldown_bar\activate @bow_cooldown
  1722→
  1723→    -- Spawn arrow
  1724→    spawn_x = @x + 20*math.cos(@angle)
  1725→    spawn_y = @y + 20*math.sin(@angle)
  1726→    @parent.projectiles\add projectile spawn_x, spawn_y,
  1727→      projectile_type: 'arrow'
  1728→      velocity: 3
  1729→      direction: @angle
  1730→      flash_on_spawn: true
  1731→      team: @team
  1732→      bounces: 0
  1733→
  1734→  flash_ball: (duration=0.15) =>

2586→      @collider\set_position @x, @y
  2587→      @collider\set_restitution 0.75
  2588→      @collider\set_friction 0
  2589→      @collider\set_gravity_scale 0.5
  2590→      @collider\set_density 0.4
  2591→    elseif @projectile_type == 'arrow'
  2592→      @w = 18
  2593→      @h = 4
  2594→      @\add collider 'projectile', 'dynamic', 'box', @w, @h
  2595→      @collider\set_position @x, @y
  2596→      @collider\set_restitution 0
  2597→      @collider\set_friction 1
  2598→      @collider\set_gravity_scale 0
  2599→      @collider\set_density 0.4
  2600→

785→      owner.hits_landed += 1
   786→      owner.weapon_ui\landed_hit!
   787→
   788→      -- Bow scaling: +1 arrow per hit
   789→      if owner.weapon_type == 'bow'
   790→        owner.arrows_per_shot += 1
   791→
   792→      -- Spawn star particles at hit location
   793→      x = (projectile_object.x + ball_object.x)/2
   794→      y = (projectile_object.y + ball_object.y)/2
   795→      for i = 1, an.random\int 1, 3
   796→        @effects\add star_particle x, y,

2570→-- Uses projectile_type switches for type-specific behavior (bullet, arrow).
  2571→class projectile extends object
  2572→  new: (@x, @y, args={}) =>
  2573→    super!
  2574→    @\tag 'projectile'
  2575→    @projectile_type = args.projectile_type or 'bullet'
  2576→    @team = args.team
  2577→    @velocity = args.velocity or 10
  2578→    @direction = args.direction or 0
  2579→    @bounces = args.bounces or 0

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The user wants a horizontal recoil effect on the bow - when firing, the bow kicks back slightly (opposite to the firing direction), then tweens back to 0. This is similar to the gun's `weapon_recoil_offset` which pulls the gun toward the ball on fire.

Let me look at how the gun's recoil works to follow the same pattern.

1569→    @weapon_flashing = true
  1570→    @timer\after duration, 'weapon_flash', -> @weapon_flashing = false
  1571→
  1572→  recoil_weapon: =>
  1573→    -- Kick back: rotate and pull toward ball
  1574→    @timer\tween 0.05, 'recoil_out', @, {weapon_recoil: -math.pi/4, weapon_recoil_offset: 4}, math.cubic_in_out, ->
  1575→      -- Return to rest
  1576→      @timer\tween 0.2, 'recoil_return', @, {weapon_recoil: 0, weapon_recoil_offset: 0}, math.linear
  1577→
  1578→  -- Gun alignment check: raycast to see if enemy is in line of sight

1446→      game\image @image, 0, 0, nil, @ball_flashing and white!
  1447→      game\pop!
  1448→      game\pop!
  1449→
  1450→    -- Draw weapon at offset, rotated with ball (recoil_offset pulls gun toward ball)
  1451→    actual_offset = @weapon_visual_offset - @weapon_recoil_offset
  1452→    if @thrusting
  1453→      actual_offset += @radius*stretch_amount*squash_t*2
  1454→    perpendicular_angle = @angle - math.pi/2
  1455→    weapon_x = @x + actual_offset*math.cos(@angle) + @weapon_perpendicular_offset*math.cos(perpendicular_angle)

1738→          else
  1739→            -- Middle arrow: scaled release, then pull for next
  1740→            @\fire_single_arrow shot_id, arrow_delay*0.5, arrow_delay*0.4
  1741→            @timer\after arrow_delay*0.3, -> @\bow_start_pull arrow_delay*0.7
  1742→
  1743→    @timer\after @bow_cooldown, 'bow_cooldown', -> @bow_ready = true
  1744→    @cooldown_bar\activate @bow_cooldown
  1745→
  1746→  -- Fire a single arrow with release animation
  1747→  fire_single_arrow: (shot_id, release_duration, sy_duration) =>
  1748→    @bow_arrow_alpha = 0
  1749→    @spring\pull 'weapon', 0.6
  1750→    @spring\pull 'hit', 0.25, 3, 0.5
  1751→    @timer\tween release_duration, @, {bow_pull_amount: 0}, math.elastic_out, nil, 'bow_release'
  1752→    @timer\tween sy_duration, @, {bow_sy: 1}, math.cubic_in_out, nil, 'bow_sy_release'

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

1572→  recoil_weapon: =>
  1573→    -- Kick back: rotate and pull toward ball
  1574→    @timer\tween 0.05, 'recoil_out', @, {weapon_recoil: -math.pi/4, weapon_recoil_offset: 4}, math.cubic_in_out, ->
  1575→      -- Return to rest
  1576→      @timer\tween 0.2, 'recoil_return', @, {weapon_recoil: 0, weapon_recoil_offset: 0}, math.linear
  1577→
  1578→  -- Gun alignment check: raycast to see if enemy is in line of sight
  1579→  gun_is_aligned: =>

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The user wants to:

1. Apply the recoil to the weapon_ui (the UI display of the weapon)
2. Make the recoil scale with arrow_delay for subsequent shots

Let me first look at the weapon_ui code to understand how it draws the bow and how it handles effects.

1954:class weapon_ui extends object

1954→class weapon_ui extends object
  1955→  new: (@team, weapon_type, emoji_image, emoji_hit_image) =>
  1956→    super 'weapon_ui'
  1957→    @weapon_type = weapon_type
  1958→
  1959→    -- Emoji properties
  1960→    @emoji_x = if @team == 'player' then 59 else 421
  1961→    @emoji_y = 60
  1962→    @emoji_image = emoji_image
  1963→    @emoji_hit_image = emoji_hit_image
  1964→    @emoji_scale = 20/512
  1965→    @emoji_scale *= 1.1 if emoji_image == an.images.cowboy
  1966→    @showing_hit = false
  1967→    @emoji_oy = 0
  1968→
  1969→    -- Weapon properties
  1970→    @weapon_x = if @team == 'player' then 91 else 389
  1971→    @weapon_y = 60
  1972→    @weapon_image = if weapon_type == 'gun' then an.images.gun elseif weapon_type == 'sword' then an.images.sword elseif weapon_type == 'bow' then an.images.bow else an.images.dagger
  1973→    @weapon_scale = 20/512
  1974→    @weapon_flip_x = if @team == 'player' then -1 else 1
  1975→
  1976→    -- Board properties
  1977→    -- @board_y = 102
  1978→    -- @board_scale = 102/512
  1979→
  1980→    -- Text properties
  1981→    @text_x = if @team == 'player' then 65 else 400
  1982→    @text_y = 92
  1983→    @text_oy = 0
... [90 more lines]

2126:  shoot: =>

2139:  reflect: =>

2145:  landed_hit: =>

2126→  shoot: =>
  2127→    -- Spawn boom emoji particles
  2128→    arena = @parent.parent
  2129→    for i = 1, an.random\int 1, 2
  2130→      arena.effects\add emoji_particle @weapon_x + 8, @weapon_y - 4, an.images.boom,
  2131→        velocity: an.random\float(75, 125)
  2132→        direction: an.random\float(-math.pi/4, 0)
  2133→        scale: an.random\float(1.4, 1.6)
  2134→        duration: an.random\float(0.3, 0.5)
  2135→        flash_on_spawn: 0.25
  2136→        gravity: an.random\float(128, 156)
  2137→        rotation_speed: an.random\float(2*math.pi, 4*math.pi)
  2138→
  2139→  reflect: =>
  2140→    -- Spawn hit effect and wobble rotation
  2141→    arena = @parent.parent
  2142→    arena.effects\add hit_effect @weapon_x - an.random\float(0, 12), @weapon_y + an.random\float(0, 12), {scale: an.random\float(1.0, 1.25)}
  2143→    @spring\pull 'weapon_rotation', an.random\float(-0.6, 0.6), 3, 0.5
  2144→
  2145→  landed_hit: =>
  2146→    -- Text bounce when landing a hit
  2147→    @text_oy = -3
  2148→    @timer\tween 0.5, @, {text_oy: 0}, math.cubic_out, nil, 'text_oy'
  2149→    @spring\pull 'text_scale', 0.15, 3, 0.4
  2150→    @spring\pull 'text_rotation', an.random\float(-0.1, 0.1), 3, 0.5
  2151→
  2152→
  2153→-- Star particle: spawns on collisions, shoots outward, spins, shrinks
  2154→class star_particle extends object
  2155→  new: (@x, @y, args={}) =>

The user wants to refactor the weapon_ui drawing so it doesn't have weapon-type-specific drawing code. Instead, it should just mirror whatever the ball draws, but with different position/rotation/scale.

Let me think about this. Currently:

- The ball draws the weapon at an offset from the ball, rotated by `@angle`
- The weapon_ui draws the weapon at a fixed UI position, with handcam shake

The ball's weapon drawing code is in the ball's `update` method (lines ~1453-1510). It handles gun, sword, bow, dagger with type-specific code. The weapon_ui also has type-specific code for bow (bowstring, arrow on string, etc.) and a generic path for other weapons.


The core issue is that the ball's weapon drawing is tightly coupled to its state variables like thrust squash, angle, and springs, while the UI needs to draw the same weapon independently with its own position, rotation, and scale. Extracting a shared method would help, but I need to separate the ball's intrinsic state (like bow_pull_amount) from its rendering context (like angle and position). Extracting the bow drawing logic into a reusable method makes sense, though passing all those parameters is unwieldy — maybe a context table would be cleaner. But I should focus on what the user actually needs here.

The real goal is to avoid duplicating weapon_recoil_offset logic between the ball and UI code. If I create a `draw_weapon` method on the ball that takes a layer, position, base angle, and scale, both the game rendering and the UI can call it with their respective contexts. Let me compare the ball's bow drawing against what the UI needs to see where they actually diverge.

Comparing the two implementations...

The ball version computes weapon position directly from the ball's coordinates plus an offset, while the UI version builds it from a base position plus a transform offset. The bow rendering logic is nearly identical between them—both handle the bowstring scaling, recoil angle, and arrow rendering the same way, just with different variable sources for position and rotation. The bowstring positioning is the tricky part since it uses absolute world coordinates rather than relative transforms, so scaling doesn't automatically apply through the push/pop stack like it would for the weapon sprite itself. I'm thinking a simpler approach might be to have the ball's `draw_weapon` method fully embrace the transform stack, taking layer, position, angle, and scale parameters, then rework how the bowstring gets positioned relative to those transforms instead of using fixed world coordinates. If lines aren't affected by the transform stack, I'd need to compute absolute world coordinates for the bowstring. But I could refactor `draw_weapon` to take position, angle, and scale as parameters, letting both the ball and UI call it with their respective coordinate spaces.

The tricky part is that the ball and UI use different scale factors for the weapon—the ball uses a negative scale while the UI applies a ratio adjustment to the bowstring. I need to figure out how to handle these different scaling conventions within the same method.

Looking at how the recoil offset works differently between the two contexts—in the ball it's applied along the ball's rotation angle, but in the UI it's more of a horizontal shift—I'm realizing this method might need to be more flexible about how it interprets and applies these transformations rather than trying to force both use cases into identical logic. The core issue is that the UI and ball rendering have fundamental differences—scale ratios, position calculations, and how recoil offsets apply—so a fully unified draw method would need so many parameters it'd actually obscure both call sites. But there's a middle ground: I can keep the UI bow code separate but have it read the same state variables and apply them consistently, with recoil_offset working along the UI's base angle or flip direction. The simplest approach is probably just...

Applying the recoil offset to the UI bow by scaling it with the weapon flip direction, so it pushes inward toward the emoji—negative x for the player side, positive x for the enemy side. The generic weapon drawing code handles most cases fine, but bows are fundamentally different because they need special rendering for the bowstring and arrow positioning—those visual elements can't be abstracted away like other weapon properties can.

The user wants me to:

1. Apply weapon_recoil_offset to the UI bow drawing
2. Make recoil_weapon scale with arrow_delay - full recoil on first shot, scaled on subsequent ones

Let me do all the changes:

1. Update `recoil_weapon` to take a duration parameter
2. Update `fire_single_arrow` to pass the appropriate duration
3. Update `bow_fire` to pass duration info to `fire_single_arrow`
4. Apply `weapon_recoil_offset` to UI bow `wx`

For the fire_single_arrow, currently it just calls `@\recoil_weapon!`. I need to pass a duration. 

Now I'm checking the current fire_single_arrow and bow_fire implementations to understand what parameters I need to pass through for the recoil scaling.

1711→    ray_end_x = tip_x + ray_length*math.cos(@angle)
  1712→    ray_end_y = tip_y + ray_length*math.sin(@angle)
  1713→
  1714→    debug_draw\line tip_x, tip_y, ray_end_x, ray_end_y, 2, red!
  1715→
  1716→    hit = an\raycast tip_x, tip_y, ray_end_x, ray_end_y, 'ball'
  1717→    hit and hit.object.team != @team
  1718→
  1719→  -- Bow callback: fire volley of arrows
  1720→  bow_fire: =>
  1721→    @bow_ready = false
  1722→    @bow_pulling = false
  1723→    @bow_shot_id += 1
  1724→    shot_id = @bow_shot_id
  1725→    arrow_delay = 0.1
  1726→    n = @arrows_per_shot
  1727→
  1728→    if n == 1
  1729→      -- Single arrow: full release
  1730→      @\fire_single_arrow shot_id, 0.2, 0.08
  1731→    else
  1732→      -- First arrow: scaled release, then pull for next
  1733→      @\fire_single_arrow shot_id, arrow_delay*0.5, arrow_delay*0.4
  1734→      @timer\after arrow_delay*0.3, -> @\bow_start_pull arrow_delay*0.7
  1735→
  1736→      -- Remaining arrows
  1737→      for i = 1, n - 1
  1738→        is_last = i == n - 1
  1739→        @timer\after i*arrow_delay, ->
  1740→          if is_last
... [30 more lines]

1572→  recoil_weapon: =>
  1573→    if @weapon_type == 'gun'
  1574→      -- Kick back: rotate and pull toward ball
  1575→      @timer\tween 0.05, 'recoil_out', @, {weapon_recoil: -math.pi/4, weapon_recoil_offset: 4}, math.cubic_in_out, ->
  1576→        -- Return to rest
  1577→        @timer\tween 0.2, 'recoil_return', @, {weapon_recoil: 0, weapon_recoil_offset: 0}, math.linear
  1578→    elseif @weapon_type == 'bow'
  1579→      -- Pull toward ball, no rotation
  1580→      @weapon_recoil_offset = 10
  1581→      @timer\tween 0.2, 'recoil_return', @, {weapon_recoil_offset: 0}, math.cubic_out

2023→    if @weapon_type == 'bow'
  2024→      bow_stretch = ball.bow_sy or 1
  2025→      wx = @weapon_x + weapon_t.x
  2026→      wy = @weapon_y + weapon_t.y
  2027→      base_angle = weapon_t.rotation + @spring.weapon_rotation.x

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

1183:    @collider\set_density 0, @weapon_shape

1188:    @collider\set_density 0, @weapon_sensor

2634:      @collider\set_density 0.4

2643:      @collider\set_density 0.1

2650:    @collider\set_density 0, @ball_sensor

The file E:\a327ex\emoji-ball-battles\main.yue has been updated. All occurrences of '    arrow_delay = 0.1' were successfully replaced with '    arrow_delay = 0.05'.

1719→  -- Bow callback: fire volley of arrows
  1720→  bow_fire: =>
  1721→    @bow_ready = false
  1722→    @bow_pulling = false
  1723→    @bow_shot_id += 1
  1724→    shot_id = @bow_shot_id
  1725→    arrow_delay = 0.08
  1726→    n = @arrows_per_shot
  1727→
  1728→    if n == 1
  1729→      -- Single arrow: full release, full recoil
  1730→      @\fire_single_arrow shot_id, 0.2, 0.08
  1731→    else
  1732→      -- First arrow: scaled release, full recoil, then pull for next
  1733→      @\fire_single_arrow shot_id, arrow_delay*0.5, arrow_delay*0.4
  1734→      @timer\after arrow_delay*0.3, -> @\bow_start_pull arrow_delay*0.7
  1735→
  1736→      -- Remaining arrows
  1737→      for i = 1, n - 1
  1738→        is_last = i == n - 1
  1739→        @timer\after i*arrow_delay, ->
  1740→          if is_last
  1741→            -- Last arrow: full release, scaled recoil
  1742→            @\fire_single_arrow shot_id, 0.2, 0.08, arrow_delay
  1743→          else
  1744→            -- Middle arrow: scaled release and recoil, then pull for next
  1745→            @\fire_single_arrow shot_id, arrow_delay*0.5, arrow_delay*0.4, arrow_delay
  1746→            @timer\after arrow_delay*0.3, -> @\bow_start_pull arrow_delay*0.7
  1747→
  1748→    @timer\after @bow_cooldown, 'bow_cooldown', -> @bow_ready = true
... [5 more lines]

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The user is saying that sometimes the bow's `weapon_recoil_offset` gets stuck at the max value (10) and never tweens back to 0.

Let me think about what could cause this. The recoil is set in `recoil_weapon`:
```yuescript
recoil_weapon: (duration=0.2) =>
  ...
  elseif @weapon_type == 'bow'
    @weapon_recoil_offset = 10
    @timer\tween duration, 'recoil_return', @, {weapon_recoil_offset: 0}, math.cubic_out
```

The tween uses name `'recoil_return'`. If another tween with the same name is created before this one completes, it would replace it. 

So the gun uses a two-stage tween chain with `'recoil_out'` leading into `'recoil_return'`, but the bow just triggers `'recoil_return'` directly. When firing multiple arrows, each call to `recoil_weapon` happens at arrow_delay intervals (0.08s), which is shorter than the 0.2s tween duration. This means the second arrow's recoil tween starts before the first one finishes, overwriting the `'recoil_return'` tween and resetting the offset back to 10, creating a cycle where the offset keeps getting reset and never completes its return to 0.

Now I'm wondering if something might cancel the final recoil tween after the last arrow fires. I need to check what other tweens are active at that moment—there's the recoil tween itself and the bow_pull_amount tween that runs over the release_duration.

Then once the barrage finishes and the cooldown bar hits 75%, the update loop's pull code activates, which resets the bow state and starts new tweens for the pull animation.

The tween names used in the pull sequence are different from the recoil tween, so they shouldn't interfere with each other. But I'm wondering if there's a timing issue where `bow_start_pull` gets called while the recoil animation is still running. Actually, even if the ball dies mid-barrage, its timer children would be cleaned up automatically, so any pending tweens would stop anyway.

Now I'm thinking about what happens if `recoil_weapon` gets called with a nil duration parameter. Looking at the first arrow call, it passes 0.2 and 0.08 as arguments, but I need to trace through what the actual duration value becomes when it reaches `recoil_weapon`.

In YueScript, default parameters work the same way as Lua — if nil is explicitly passed, it still triggers the default value. So when `recoil_weapon` is called with nil, it would use the 0.2 default. For subsequent arrows though, the duration gets set to the arrow delay of 0.08, which is much shorter and might be causing the tween to complete before the recoil animation finishes.

I'm wondering if there's a naming conflict with the `recoil_return` tween — the gun already uses that name for its own recoil animation, though it only runs for guns so there shouldn't be an issue. Let me look more closely at how the timer tween API works...

Actually, I think I found the problem — the parameter order in the gun code doesn't match the API signature. The API expects `timer\tween(duration, target, properties, easing?, name?, after?)`, but the gun is passing the name as the second argument instead of the fourth.

161:  tween: (duration, name_or_target, target_or_values, values_or_easing, easing_or_after, after_function) =>

161→  tween: (duration, name_or_target, target_or_values, values_or_easing, easing_or_after, after_function) =>
   162→    name, target, values, easing, after = if type(name_or_target) == 'string'
   163→      name_or_target, target_or_values, values_or_easing, easing_or_after, after_function
   164→    else
   165→      @\uid!, name_or_target, target_or_values, values_or_easing, easing_or_after
   166→    easing = easing or math.linear
   167→    initial_values = {}
   168→    for key, _ in pairs values
   169→      initial_values[key] = target[key]
   170→    entry = {:name, mode: 'tween', time: 0, :duration, :target, :values, :initial_values, :easing, :after}
   171→    if @\find name
   172→      @entries[@\find name] = entry
   173→    else
   174→      @entries[] = entry
   175→
   176→  --[[
   177→    Calls callback when parent[field] changes value.
   178→
   179→    Usage:
   180→      @timer\watch 'hp', (current, previous) -> print "HP: #{previous} -> #{current}"

1222:    @weapon_recoil_offset = 0  -- position offset for gun recoil (moves toward ball)

1451:    actual_offset = @weapon_visual_offset - @weapon_recoil_offset

1575:      @timer\tween 0.05, 'recoil_out', @, {weapon_recoil: -math.pi/4, weapon_recoil_offset: 4}, math.cubic_in_out, ->

1577:        @timer\tween duration, 'recoil_return', @, {weapon_recoil: 0, weapon_recoil_offset: 0}, math.linear

1580:      @weapon_recoil_offset = 10

1581:      @timer\tween duration, 'recoil_return', @, {weapon_recoil_offset: 0}, math.cubic_out

2027:      wx = @weapon_x + weapon_t.x + @weapon_flip_x*(ball.weapon_recoil_offset or 0)

1728→    if n == 1
  1729→      -- Single arrow: full release, full recoil
  1730→      @\fire_single_arrow shot_id, 0.2, 0.08
  1731→    else
  1732→      -- First arrow: scaled release, full recoil, then pull for next
  1733→      @\fire_single_arrow shot_id, arrow_delay*0.5, arrow_delay*0.4
  1734→      @timer\after arrow_delay*0.3, -> @\bow_start_pull arrow_delay*0.7
  1735→
  1736→      -- Remaining arrows
  1737→      for i = 1, n - 1
  1738→        is_last = i == n - 1
  1739→        @timer\after i*arrow_delay, ->
  1740→          if is_last
  1741→            -- Last arrow: full release, scaled recoil
  1742→            @\fire_single_arrow shot_id, 0.2, 0.08, arrow_delay
  1743→          else
  1744→            -- Middle arrow: scaled release and recoil, then pull for next
  1745→            @\fire_single_arrow shot_id, arrow_delay*0.5, arrow_delay*0.4, arrow_delay
  1746→            @timer\after arrow_delay*0.3, -> @\bow_start_pull arrow_delay*0.7
  1747→

1771→      shot_id: shot_id
  1772→
  1773→  -- Start bow pull animation for next arrow
  1774→  bow_start_pull: (duration) =>
  1775→    @bow_arrow_alpha = 1
  1776→    @timer\tween duration, @, {bow_pull_amount: 8}, math.quad_out, nil, 'bow_release'
  1777→    @timer\tween duration, @, {bow_sy: 0.9}, math.quad_out, nil, 'bow_sy_release'
  1778→

1345→        @thrust_progress = math.min(1, @thrust_progress + dt/@thrust_duration)
  1346→        speed = math.lerp(math.quad_out(@thrust_progress), @thrust_start_speed, @thrust_end_speed)
  1347→        @collider\set_velocity speed*math.cos(@thrust_angle), speed*math.sin(@thrust_angle)
  1348→    elseif @weapon_type == 'bow'
  1349→      -- Auto-pull bow when cooldown reaches 75%
  1350→      bow_should_pull = @cooldown_bar.progress >= 0.75
  1351→      if bow_should_pull
  1352→        if not @bow_pulling
  1353→          @bow_arrow_alpha = 1
  1354→        @bow_pulling = true
  1355→        @bow_pull_amount = math.lerp_dt(0.9, 0.5, dt, @bow_pull_amount, 8)
  1356→        @bow_sy = math.lerp_dt(0.9, 0.5, dt, @bow_sy, 0.9)
  1357→      elseif @bow_pulling
  1358→        @bow_pulling = false
  1359→        @bow_arrow_alpha = 0

1357→      elseif @bow_pulling
  1358→        @bow_pulling = false
  1359→        @bow_arrow_alpha = 0
  1360→        @spring\pull 'weapon', 0.5
  1361→        @timer\tween 0.2, @, {bow_pull_amount: 0}, math.elastic_out, nil, 'bow_release'
  1362→        @timer\tween 0.08, @, {bow_sy: 1}, math.cubic_in_out, nil, 'bow_sy_release'
  1363→    elseif @weapon_type == 'dagger'
  1364→      -- Swing sound: first at 0.07 rotation, then every full rotation, max 5 times

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The user is saying the recoil gets stuck after the barrage ends, not before the next one. So the last arrow's recoil tween isn't completing properly.

Let me think about what happens with the last arrow:

1. Last arrow fires: `@\fire_single_arrow shot_id, 0.2, 0.08, arrow_delay`
2. Inside `fire_single_arrow`: `@\recoil_weapon arrow_delay` (e.g., 0.08)
3. `recoil_weapon(0.08)`: `@weapon_recoil_offset = 10`, then `@timer\tween 0.08, 'recoil_return', @, {weapon_recoil_offset: 0}, math.cubic_out`


Then the cooldown kicks in, and once it reaches 75% progress, the update loop starts pulling the bow back with lerp animations on the arrow alpha and scale values.

This doesn't touch the weapon recoil offset, but when the bow alignment check passes and fire gets called again, that recoil offset resets to zero. The user's issue is that the bow gets stuck after the barrage finishes—somewhere between the last arrow firing and the next fire call. The recoil tween from that last arrow should've finished well before the 2-second cooldown expires, so I'm wondering if the barrage duration timer callback that creates the cooldown timer is somehow interfering with the state.

Looking at the timing more carefully: the barrage duration is calculated as `(n-1)*arrow_delay`, and that's exactly when the last arrow fires. So both events happen in the same frame—the final arrow triggers its recoil setup while simultaneously the barrage timer fires and initiates the cooldown sequence.

The real question is whether a `bow_start_pull` scheduled from one of the middle arrows could somehow fire after the last arrow completes, potentially interfering with the recoil state. arrow but before the last arrow fires. For three arrows, the middle one triggers at t=0.08 and schedules the pull at t=0.104, while the final arrow at t=0.16 applies the full recoil effect over 0.08 seconds with the cooldown starting right after. Let me trace through what happens at each timing to make sure there's no conflict.

When the pull starts at t=0.104, it creates tweens that finish at t=0.16, but then the last arrow fires at that exact moment and creates its own tweens that override them.

The recoil tween should complete by t=0.24, which is way before the cooldown bar hits 75% at t=1.66. So the timing doesn't explain why the weapon stays stuck in the recoiled position. I'm wondering if the recoil offset tween is actually being interrupted or cancelled before it finishes—maybe the `'recoil_return'` tween isn't completing as expected. I'm realizing the issue might be that when a new tween is created while a previous one is still active, the initial values get captured from the current partially-tweened state rather than the freshly-set offset value, but actually that should be fine since we're explicitly setting the offset to 10 before creating the new tween. Let me trace through a specific scenario to see where the problem actually lies. the tween.

OK so the initial_values capture should always be correct because we explicitly set `@weapon_recoil_offset = 10` before creating the tween.

Wait... actually I just realized something. Let me look at the tween entry creation more carefully. When replacing, it sets `time: 0`, so the tween restarts from the beginning. initial_values is {weapon_recoil_offset: 10} (from the current state after we set it to 10). values is {weapon_recoil_offset: 0}. The tween goes from 10 to 0.

That checks out. Let me shift focus and look at whether the recoil tween is even being updated—maybe the timer isn't ticking because of hit stop or a paused state. I need to examine how the timer's tween update logic handles these cases.

170:    entry = {:name, mode: 'tween', time: 0, :duration, :target, :values, :initial_values, :easing, :after}
456:      when 'during', 'tween'
503:        when 'tween'

500→            entry.after! if entry.after
   501→            to_remove[] = index
   502→
   503→        when 'tween'
   504→          duration = entry.duration * (entry.multiplier or 1)
   505→          progress = math.min entry.time / duration, 1
   506→          eased = entry.easing progress
   507→          for key, target_value in pairs entry.values
   508→            entry.target[key] = math.lerp eased, entry.initial_values[key], target_value
   509→          if entry.time >= duration
   510→            entry.after! if entry.after
   511→            to_remove[] = index
   512→
   513→        when 'watch'
   514→          entry.previous = entry.current
   515→          entry.current = @parent[entry.field]
   516→          if entry.previous != entry.current
   517→            entry.callback entry.current, entry.previous
   518→            if entry.times
   519→              entry.count += 1
   520→              if entry.count >= entry.times
   521→                entry.after! if entry.after
   522→                to_remove[] = index
   523→
   524→        when 'when'

450→    return nil unless index
   451→    entry = @entries[index]
   452→    switch entry.mode
   453→      when 'after', 'every', 'cooldown'
   454→        delay = entry.delay * (entry.multiplier or 1)
   455→        delay - entry.time
   456→      when 'during', 'tween'
   457→        duration = entry.duration * (entry.multiplier or 1)
   458→        duration - entry.time
   459→      when 'every_step', 'during_step'
   460→        entry.delays[entry.step_index] - entry.time
   461→      else
   462→        nil
   463→
   464→  --[[

396:        entry.time = 0
399:        entry.time = 0
402:        entry.time = 0
405:        entry.time = 0
475:      entry.time += dt
539:            entry.time = 0
542:            entry.time = 0

470→    to_remove = {}
   471→    for index, entry in ipairs @entries
   472→      if entry.cancelled
   473→        to_remove[] = index
   474→        continue
   475→      entry.time += dt
   476→
   477→      switch entry.mode
   478→        when 'after'
   479→          delay = entry.delay * (entry.multiplier or 1)

That's a great clue. The sword's thrust hit stop calls `an\hit_stop 0.3` which sets `an.time_scale = 0`, making `an.dt = 0` for all objects. During this time, the ball's timer receives dt=0, so all tweens freeze.

But the issue is: what if the bow fires an arrow right before or during the hit stop? The `recoil_weapon` sets `@weapon_recoil_offset = 10` and creates a tween. Then the hit stop freezes everything. When the hit stop ends, the tween should resume...

Wait, but `an\hit_stop 0.3` is called by the sword ball, not the bow ball. 

The hit stop affects all objects unless excluded by tag, so the bow ball's timer would also get dt=0 during the freeze. However, the `bow_fire` is triggered by a `when` timer that checks `@bow_ready and @\bow_is_aligned!` every frame, and this condition check still runs even when dt=0. Looking at how the timer update works, the `when` timer increments its time by dt, but the condition evaluation happens regardless, so it could fire during the hit stop if the conditions become true.

When `bow_fire` executes during hit stop, it calls `fire_single_arrow` which triggers `recoil_weapon`, setting the recoil offset and creating a tween. Since the tween starts at time=0 and receives dt=0 during the freeze, it stays frozen at its initial state with progress=0, meaning the lerp calculation keeps the recoil at its full 10-unit offset instead of animating back.

The real issue is that the `@timer\after` callbacks scheduled in `bow_fire` also get frozen during hit stop—their timers don't advance with dt=0, so they never fire when they're supposed to. When hit stop ends and dt returns to normal, these delayed callbacks should finally execute, but something's preventing them from completing properly. stop ends, they resume and eventually fire.

Hmm, but what about this scenario:

1. Bow fires its last arrow (or only arrow)
2. `recoil_weapon(0.08)` creates 'recoil_return' tween, duration 0.08s
3. 0.04s pass, tween is at time=0.04, offset is ~5
4. Sword triggers `an\hit_stop 0.3`
5. For 0.3s, the tween gets dt=0, stays at time=0.04
6. Hit stop ends, tween resumes
7. Tween completes at time=0.08, offset reaches 0

This should work fine. The tween just pauses and resumes.

Unless... there's a NEW `bow_fire` triggered during or right after the hit stop? No, `@bow_ready` is false.

Now I'm thinking through a multi-arrow barrage with hit stop interrupting it. The first arrow fires and starts the recoil tween, then a hit stop freezes everything—all the timers and callbacks that would trigger subsequent arrows just pause. Once the hit stop ends, those timers resume from where they left off and the remaining arrows fire normally. The recoil tween from the initial shot would also resume and complete. what if the hit stop starts EXACTLY when a `fire_single_arrow` is called? Like, in the same frame, the sword's `sword_thrust` fires a hit stop at 0.3 seconds AND the bow's timer fires `fire_single_arrow`. The order matters.

In the framework update loop, all objects update in sequence. The hit stop countdown is in an early action on the animation system. When `sword_thrust` calls hit stop, it sets the active flag and time scale to 0 immediately. But here's the thing—the delta time is calculated once at the start of each frame based on the current time scale. So when hit stop changes the time scale during the update loop, that change doesn't affect the delta time that's already been computed for this frame. All objects will still use the pre-hit-stop delta time for their updates. The time scale change only kicks in on the next frame.

Let me trace through this more carefully. The delta time gets set at the frame's start, and `get_dt_for` returns that value adjusted by time scale. But if time scale changes mid-frame during object updates, the delta time was already locked in. So the hit stop effect is delayed by one frame. called mid-frame during some object's update, `an.dt` was already set to the normal value, and all objects this frame get normal dt. Next frame, `an.dt` would be 0.

But I need to check if `engine_get_dt` actually respects the time_scale setting, or if the framework applies that separately. Let me trace through how time_scale affects the dt calculation.

Actually, I'm overcomplicating this. The user reported that recoil gets stuck after the sword's hit stop, so the most likely issue is that the bow's recoil offset gets set to 10 and the recoil_return tween is created, but something about the hit stop is preventing it from completing.

Wait, I just realized something important. During hit stop, the `when` condition still evaluates with dt=0, so the bow's condition `@bow_ready and @\bow_is_aligned!` would be false since bow_ready is false. That means `last_condition` becomes false. When hit stop ends and bow_ready becomes true again, the condition can trigger on the rising edge and fire the bow again. But that's expected behavior, so the real problem must be elsewhere.

Let me reconsider what happens after the barrage ends.

If hit stop triggers right as the final arrow fires, the recoil tween gets frozen at time=0. When hit stop ends 0.3 seconds later, the tween resumes from where it was paused. Since the recoil duration is only 0.08 seconds, the tween would complete almost immediately after hit stop ends, but the visual effect would look strange—the recoil offset would be locked at maximum during the entire hit stop duration, then snap through the rest of the animation.

During hit stop, the timer's update loop still runs with dt=0, so the `after` callbacks don't fire because `entry.time` doesn't advance. The barrage callback and cooldown callback have different names, so there's no direct conflict there. I'm wondering if the actual issue is something more straightforward.

Let me trace through the `when` condition logic during hit stop: the bow readiness check evaluates to false since `@bow_ready` is false, so `entry.last_condition` becomes false and there's no re-trigger. That checks out. Now I need to look at what's happening in the arena's collision handling during the same frame when the bow fires and creates projectiles.

Looking at the collision handlers—projectile-wall just calls `hit` on the projectile itself, projectile-weapon collision triggers spring pulls but doesn't touch the recoil offset, and the projectile-ball sensor increments hit counters. None of these seem to be affecting the bow ball's timer or weapon recoil state.

I'm stuck on the exact mechanism, but the user mentioned it happens sometimes and suspects the sword's hit stop is involved. The key thing is that `an.hit_stop` sets `time_scale = 0`, but `an.dt` gets computed once per frame at the start, so the hit stop only kicks in on the next frame. I need to check whether `get_dt_for` uses `an.dt` directly or recalculates based on the current time_scale.

Checking the implementation...

The function checks for excluded tags and returns the unscaled dt if they match, otherwise it returns `an.dt` which was already computed at frame start. So if the sword calls `an\hit_stop` and the bow's timer fires in the same frame, the bow's timer already got its normal dt for that frame before hit stop took effect. The recoil tween gets created and immediately advances by that normal dt in the same update loop, which might be why the recoil is behaving unexpectedly.

Now I'm trying to trace through whether a newly created tween entry gets processed in the same iteration of the timer's update loop. When `fire_single_arrow` is called from an `after` callback during the timer's update, it adds a new entry to the entries table. Since the entry is appended to the end and the loop is iterating through the table, I need to figure out if Lua's ipairs would pick up that newly added entry in the current iteration.

If it does get processed immediately, the tween would receive a non-zero time value on its first frame based on the current dt, which would advance its progress proportionally. This might not be the root cause of the issue, but it's worth understanding how the timing works.

The real problem the user is experiencing is that the recoil offset gets stuck at its maximum value during hit stop because the tween that should return it to zero gets frozen or lost. I'm thinking the safest approach would be to add a fallback mechanism in the ball's update code that gradually lerps the recoil offset back toward zero independently of the tween, ensuring it always recovers even if the tween is interrupted.

Actually, I'm realizing that having both a tween and a lerp operating on the same value would cause them to fight each other. A cleaner solution would be to abandon the tween entirely and instead use lerp_dt directly in the update loop — this way the recoil offset naturally drifts toward zero whenever delta time is positive, and during hit stop it simply pauses and resumes immediately after. The lerp rate could be tuned with a parameter to match the desired animation speed.

OK so it happens consistently with 3 arrows. Let me trace through the exact sequence for n=3:

```
arrow_delay = 0.08 (current value)
n = 3
barrage_duration = (3-1)*0.08 = 0.16
```

t=0: `bow_fire` called

- `@weapon_recoil_offset = 0` (the reset I added)
- First arrow: `@\fire_single_arrow shot_id, arrow_delay*0.5, arrow_delay*0.4` = `fire_single_arrow(shot_id, 0.04, 0.032)`


- Inside that call, the recoil weapon function triggers with a default 0.2 second duration, setting the offset to 10 and starting a tween to return it. Then I schedule the bow pull to start after 0.024 seconds for 0.056 seconds.
- For the remaining arrows, I'm scheduling them at 0.08 and 0.16 second intervals, with the last one marked appropriately.
- At 0.08 seconds the middle arrow fires, triggering a single arrow shot with its own recoil that lasts 0.08 seconds.
- Then at 0.104 seconds another pull animation starts for 0.056 seconds.
- At 0.16 seconds the final arrow fires while the barrage cooldown timer completes.
- The last arrow triggers a recoil that offsets the weapon by 10 units over 0.08 seconds, plus release animations for the bow.
- The barrage callback also initiates the cooldown bar and timer.

Now I'm noticing the recoil tween should finish at 0.24 seconds, but the barrage callback already fired at 0.16 — I need to check if there's a timing conflict here.

Looking at the code structure, both the arrow callbacks and the barrage callback are added as timer entries, and they fire at the same time. The order they execute depends on which was added first — the arrow loop runs before the barrage timer line, so the arrows should fire before the barrage callback triggers. I'm tracing through the timer execution order to understand the timing—the pull animation, middle arrows, and final arrow all queue up in sequence, with the barrage cooldown and last arrow firing simultaneously, so I need to verify they process in the right order during the update loop. the 'recoil_return' tween gets processed in the same frame since new entries appended during iteration will be reached before the loop ends. But I'm realizing there's a cascade of nested timers here — when the middle arrow fires, it triggers release tweens and another `@timer\after` call that chains into the bow pull sequence, and I need to trace through exactly when each of these callbacks executes relative to the tween updates. The recoil_return tween gets replaced at t=0.08 and again at t=0.16, each time with a shorter duration of 0.08 seconds, which chains the animations together until completion at t=0.24. When the middle arrow fires and calls recoil_weapon, it sets the offset and creates a tween that checks for existing tweens with the same name...

Checking tween replacement logic...

The timer's ipairs loop iterates through entries, and when a tween is replaced in-place at a later index, the loop will still visit it when it reaches that position, so the replacement happens safely without disrupting the iteration.

But there's a complication with how completed tweens are removed — they're collected in a `to_remove` list during the loop, then removed in reverse order afterward. If I replace a tween entry in-place and that same entry gets marked for removal in the same frame, the removal logic needs to handle that correctly. I'm checking the timing of when each arrow fires relative to the tween durations to see if the old tween would actually complete in the same frame as the new one being created. The first arrow's recoil starts at t=0 with a 0.2 second duration, and the middle arrow fires at t=0.08 when the old tween still has time remaining, so the replacement happens safely. But I need to verify the timing for the last arrow against the middle arrow's tween to see if that's where the collision occurs. at t=0.08. Current time in the tween = 0.16 - 0.08 = 0.08. 0.08 >= 0.08. The tween COMPLETED!

So at t=0.16:

1. The timer loop processes the middle arrow's 'recoil_return' tween at index X
2. `entry.time += dt` → entry.time reaches 0.08 (or slightly over with accumulated dt)
3. `entry.time >= duration` → true! Added to `to_remove`. The tween sets weapon_recoil_offset to exactly 0 (lerp(1, 10, 0) = 0).
4. Later in the loop, the `@timer\after 2*arrow_delay` fires → `fire_single_arrow` → `recoil_weapon(0.08)` → sets `@weapon_recoil_offset = 10` → `@timer\tween` finds 'recoil_return' at index X → replaces entry with new one (time=0)
5. After the loop, `to_remove` has index X → removes the NEW entry!

This is the bug—the newly created recoil tween gets deleted because the old one at that same index was already marked for removal. With 3 arrows, the second arrow's recoil duration is exactly 0.08, so it completes right when the third arrow fires, triggering this exact sequence.

With 2 arrows, the second arrow is the last one, so there's no third arrow to fire and cause the replacement. With 4 arrows, both the second and third arrows' recoil tweens get removed, but the fourth arrow's recoil tween is what matters—and it also gets removed, leaving the weapon stuck at recoil_offset = 10.

So this bug actually affects any sequence with 3 or more arrows. The root cause is a timer system issue: when a named tween gets replaced during iteration, if the old one was marked for removal, the new one at that same index also gets removed. I could fix the timer system itself to check if an entry was actually replaced before removing it, or work around it by giving each arrow's recoil a unique tween name, or skip named tweens entirely for the recoil animation. The simplest approach might be to handle the recoil differently—using lerp_dt in the update loop instead of tweens altogether. user seemed interested in understanding the root cause first. Let me present this finding to the user. The root cause is a timer system bug where replacing a named entry during iteration causes the new entry to be incorrectly removed if the old entry had completed in the same frame.

The simplest fix is to make the recoil tween anonymous so it gets a unique auto-generated name each time, preventing the replacement issue. This means old tweens stay in the system but both the old and new tweens would run simultaneously—the new one resets the offset to near-10 on its first frame, then both progress toward 0, with the new tween's value eventually winning out as the old one completes and gets removed.

The downside is accumulating anonymous tweens in the entries list with many arrows, but this is a minor inefficiency compared to the visual glitch.

Actually, the cleanest solution is to use lerp_dt directly in the bow's update loop for the recoil offset animation, which sidesteps the timer system entirely for this case.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

1348→    elseif @weapon_type == 'bow'
  1349→      -- Auto-pull bow when cooldown reaches 75%
  1350→      bow_should_pull = @cooldown_bar.progress >= 0.75
  1351→      if bow_should_pull
  1352→        if not @bow_pulling
  1353→          @bow_arrow_alpha = 1
  1354→        @bow_pulling = true
  1355→        @bow_pull_amount = math.lerp_dt(0.9, 0.5, dt, @bow_pull_amount, 8)
  1356→        @bow_sy = math.lerp_dt(0.9, 0.5, dt, @bow_sy, 0.9)
  1357→      elseif @bow_pulling
  1358→        @bow_pulling = false
  1359→        @bow_arrow_alpha = 0
  1360→        @spring\pull 'weapon', 0.5
  1361→        @timer\tween 0.2, @, {bow_pull_amount: 0}, math.elastic_out, nil, 'bow_release'
  1362→        @timer\tween 0.08, @, {bow_sy: 1}, math.cubic_in_out, nil, 'bow_sy_release'
  1363→    elseif @weapon_type == 'dagger'
  1364→      -- Swing sound: first at 0.07 rotation, then every full rotation, max 5 times
  1365→      -- Fixed threshold based on original base (1.5π * 3.5 = 5.25π)

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

464→  --[[
   465→    Internal: processes all timer entries each frame.
   466→
   467→    Called automatically by the object update system.
   468→  ]]
   469→  update: (dt) =>
   470→    to_remove = {}
   471→    for index, entry in ipairs @entries
   472→      if entry.cancelled
   473→        to_remove[] = index
   474→        continue
   475→      entry.time += dt
   476→
   477→      switch entry.mode
   478→        when 'after'
   479→          delay = entry.delay * (entry.multiplier or 1)
   480→          if entry.time >= delay
   481→            entry.callback!
   482→            to_remove[] = index
   483→
   484→        when 'every'
   485→          delay = entry.delay * (entry.multiplier or 1)
   486→          if entry.time >= delay
   487→            entry.callback!
   488→            entry.time -= delay
   489→            if entry.times
   490→              entry.count += 1
   491→              if entry.count >= entry.times
   492→                entry.after! if entry.after
   493→                to_remove[] = index
... [30 more lines]

545→              if entry.count >= entry.times
   546→                entry.after! if entry.after
   547→                to_remove[] = index
   548→          entry.last_condition = current_condition
   549→
   550→        when 'every_step'
   551→          if entry.time >= entry.delays[entry.step_index]
   552→            entry.callback!
   553→            entry.time -= entry.delays[entry.step_index]
   554→            entry.step_index += 1
   555→            if entry.step_index > #entry.delays
   556→              entry.after! if entry.after
   557→              to_remove[] = index
   558→
   559→        when 'during_step'

559→        when 'during_step'
   560→          if entry.time >= entry.delays[entry.step_index]
   561→            entry.callback!
   562→            entry.time -= entry.delays[entry.step_index]
   563→            entry.step_index += 1
   564→            if entry.step_index > #entry.delays
   565→              entry.after! if entry.after
   566→              to_remove[] = index
   567→
   568→    for i = #to_remove, 1, -1
   569→      table.remove @entries, to_remove[i]
   570→

44:    Internal: finds entry index by name.
48:  find: (name) =>
73:    if @\find name
74:      @entries[@\find name] = entry
104:    if @\find name
105:      @entries[@\find name] = entry
134:    if @\find name
135:      @entries[@\find name] = entry
171:    if @\find name
172:      @entries[@\find name] = entry
204:    if @\find name
205:      @entries[@\find name] = entry
236:    if @\find name
237:      @entries[@\find name] = entry
269:    if @\find name
270:      @entries[@\find name] = entry
308:    if @\find name
309:      @entries[@\find name] = entry
348:    if @\find name
349:      @entries[@\find name] = entry
367:    index = @\find name
387:    index = @\find name
428:    index = @\find name
449:    index = @\find name

1→global *
     2→
     3→--[[
     4→  Timer child object for scheduling delayed, repeating, and conditional callbacks.
     5→
     6→  Usage:
     7→    @\add timer!
     8→    @timer\after 1, -> print 'fired after 1s'
     9→    @timer\every 0.5, 'attack', -> @attack!
    10→
    11→  Timer is added as a child object. When the parent dies, the timer dies automatically.
    12→  All timer methods support optional naming - named timers can be cancelled, triggered,
    13→  and automatically replace previous timers with the same name.
    14→
    15→  Timer methods:
    16→    Delayed:     after, every, during, tween
    17→    Conditional: watch, when, cooldown
    18→    Varying:     every_step, during_step
    19→    Utility:     cancel, trigger, set_multiplier, get_time_left
    20→]]
    21→class timer extends object
    22→  --[[
    23→    Creates a new timer.
    24→
    25→    Usage:
    26→      @\add timer!
    27→
    28→    The timer is automatically named 'timer' and accessible as @timer on the parent.
    29→  ]]
    30→  new: =>
... [25 more lines]

Good point. If I store references to entry tables in the `to_remove` list, those references are local to the `update` function and will be garbage collected after the function returns. The `to_remove` table itself is local to `update`. So there's no leak — everything is cleaned up when `update` returns.

Let me implement this. The change is:

1. Everywhere `to_remove[] = index` appears, change to `to_remove[] = {index, entry}`
2. At the removal loop (line 568-569), check that `@entries[item[1]] == item[2]` before removing

Actually, I don't even need to store the entry reference. 

In Lua, table comparison is by reference, so I can just check if `@entries[index]` still points to the same table object I marked for removal. The `to_remove` list is local and gets cleaned up when `update` returns, so even if some entries were replaced and are no longer referenced elsewhere, those old entry objects get garbage collected immediately. The key insight is that I'm storing the current entry at the time of marking, so if it gets replaced, the old entry is no longer in `@entries` anyway.

Actually, I can simplify this further by marking entries directly with a flag like `entry._remove = true` instead of tracking them separately. Then I iterate backwards through `@entries` and remove any entries with that flag set. This way, if an entry gets replaced, the new entry won't have the flag, so there's no confusion about which entries to actually remove. I'm realizing there's a subtle issue with how cancelled entries interact with the replacement logic — when an entry is cancelled and marked for removal, but then gets replaced at that same index, the new entry shouldn't inherit the removal flag, which means the backwards iteration will correctly skip it since only the old cancelled entry had `_remove = true`. I'm confident that `entry._remove = true` will correctly mark the object in the list since `entry` is a direct reference to `@entries[index]`. Now I'll implement the changes.

The file E:\a327ex\Anchor\framework\anchor\timer.yue has been updated successfully.

513→          entry.previous = entry.current
   514→          entry.current = @parent[entry.field]
   515→          if entry.previous != entry.current
   516→            entry.callback entry.current, entry.previous
   517→            if entry.times
   518→              entry.count += 1
   519→              if entry.count >= entry.times
   520→                entry.after! if entry.after
   521→                to_remove[] = index
   522→
   523→        when 'when'
   524→          current_condition = entry.condition!
   525→          if current_condition and not entry.last_condition
   526→            entry.callback!
   527→            if entry.times
   528→              entry.count += 1
   529→              if entry.count >= entry.times
   530→                entry.after! if entry.after
   531→                to_remove[] = index
   532→          entry.last_condition = current_condition
   533→
   534→        when 'cooldown'
   535→          delay = entry.delay * (entry.multiplier or 1)
   536→          current_condition = entry.condition!
   537→          if current_condition and not entry.last_condition
   538→            entry.time = 0
   539→          if entry.time >= delay and current_condition
   540→            entry.callback!
   541→            entry.time = 0
   542→            if entry.times
... [27 more lines]

The file E:\a327ex\Anchor\framework\anchor\timer.yue has been updated successfully.

1348→    elseif @weapon_type == 'bow'
  1349→      -- Decay recoil offset toward 0
  1350→      if @weapon_recoil_offset != 0
  1351→        @weapon_recoil_offset = math.lerp_dt(0.9, 0.5, dt, @weapon_recoil_offset, 0)
  1352→        if math.abs(@weapon_recoil_offset) < 0.1
  1353→          @weapon_recoil_offset = 0
  1354→      -- Auto-pull bow when cooldown reaches 75%
  1355→      bow_should_pull = @cooldown_bar.progress >= 0.75
  1356→      if bow_should_pull
  1357→        if not @bow_pulling
  1358→          @bow_arrow_alpha = 1
  1359→        @bow_pulling = true
  1360→        @bow_pull_amount = math.lerp_dt(0.9, 0.5, dt, @bow_pull_amount, 8)
  1361→        @bow_sy = math.lerp_dt(0.9, 0.5, dt, @bow_sy, 0.9)
  1362→      elseif @bow_pulling
  1363→        @bow_pulling = false
  1364→        @bow_arrow_alpha = 0
  1365→        @spring\pull 'weapon', 0.5
  1366→        @timer\tween 0.2, @, {bow_pull_amount: 0}, math.elastic_out, nil, 'bow_release'
  1367→        @timer\tween 0.08, @, {bow_sy: 1}, math.cubic_in_out, nil, 'bow_sy_release'

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

1572→  recoil_weapon: (duration=0.2) =>
  1573→    if @weapon_type == 'gun'
  1574→      -- Kick back: rotate and pull toward ball
  1575→      @timer\tween 0.05, 'recoil_out', @, {weapon_recoil: -math.pi/4, weapon_recoil_offset: 4}, math.cubic_in_out, ->
  1576→        -- Return to rest
  1577→        @timer\tween duration, 'recoil_return', @, {weapon_recoil: 0, weapon_recoil_offset: 0}, math.linear
  1578→    elseif @weapon_type == 'bow'
  1579→      -- Pull toward ball, no rotation (decays via lerp_dt in update)

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

Rewritten built main.lua

Rewritten built anchor/animation.lua

Rewritten built anchor/array.lua

Rewritten built anchor/camera.lua

Rewritten built anchor/collider.lua

Rewritten built anchor/color.lua

Rewritten built anchor/font.lua

Rewritten built anchor/image.lua

Rewritten built anchor/init.lua

Rewritten built anchor/layer.lua

Rewritten built anchor/math.lua

Rewritten built anchor/object.lua

Rewritten built anchor/random.lua

Rewritten built anchor/shake.lua

Rewritten built anchor/spring.lua

Rewritten built anchor/spritesheet.lua

Rewritten built anchor/timer.lua

Anchor Engine starting...

Game folder: .

Loading: main.lua

472:entry._remove = true

481:entry._remove = true end elseif 

492:entry._remove = true end end end elseif 

500:entry._remove = true end elseif 

510:entry._remove = true end elseif 

521:entry._remove = true end end end elseif 

531:entry._remove = true end end end

546:entry._remove = true end end end

556:entry._remove = true end end elseif 

565:entry._remove = true end end end::_continue_0::end;for i = #

568:self.entries[i]._remove then

565→entry._remove = true end end end::_continue_0::end;for i = #
   566→
   567→self.entries, 1, -1 do if 
   568→self.entries[i]._remove then
   569→table.remove(self.entries, i)end end end }for _key_0, _val_0 in pairs(_parent_0.__base) do if _base_0[_key_0] == nil and _key_0:match("^__") and not (_key_0 == "__index" and _val_0 == _parent_0.__base) then _base_0[_key_0] = _val_0 end end;if _base_0.__index == nil then _base_0.__index = _base_0 end;setmetatable(_base_0, _parent_0.__base)_class_0 = setmetatable({ __init = function(self)_class_0.__parent.__init(self, 'timer')self.entries = {  }self.next_id = 1 end, __base = _base_0, __name = "timer", __parent = _parent_0 }, { __index = function(cls, name)local val = rawget(_base_0, name)if val == nil then local parent = rawget(cls, "__parent")if parent then return parent[name]end else return val end end, __call = function(cls, ...)local _self_0 = setmetatable({  }, _base_0)cls.__init(_self_0, ...)return _self_0 end })_base_0.__class = _class_0;if _parent_0.__inherited then _parent_0.__inherited(_parent_0, _class_0)end;timer = _class_0;return _class_0 end

The file E:\a327ex\Anchor\framework\anchor\timer.yue has been updated. All occurrences of '._remove' were successfully replaced with '.to_be_removed'.

The user is pointing out that I need to also copy the compiled timer.lua to the emoji-ball-battles project, or that the framework files need to be built. Actually wait, looking at the project structure, the framework is in `Anchor/framework/anchor/` and the game in `emoji-ball-battles/`. The game probably uses a copy of the framework files. Let me check if there's a timer.yue in emoji-ball-battles.

E:\a327ex\emoji-ball-battles\anchor\timer.yue

464→  --[[
   465→    Internal: processes all timer entries each frame.
   466→
   467→    Called automatically by the object update system.
   468→  ]]
   469→  update: (dt) =>
   470→    to_remove = {}
   471→    for index, entry in ipairs @entries
   472→      if entry.cancelled
   473→        to_remove[] = index
   474→        continue
   475→      entry.time += dt
   476→
   477→      switch entry.mode
   478→        when 'after'
   479→          delay = entry.delay * (entry.multiplier or 1)
   480→          if entry.time >= delay
   481→            entry.callback!
   482→            to_remove[] = index
   483→
   484→        when 'every'
   485→          delay = entry.delay * (entry.multiplier or 1)
   486→          if entry.time >= delay
   487→            entry.callback!
   488→            entry.time -= delay
   489→            if entry.times
   490→              entry.count += 1
   491→              if entry.count >= entry.times
   492→                entry.after! if entry.after
   493→                to_remove[] = index
... [77 more lines]

The file E:\a327ex\emoji-ball-battles\anchor\timer.yue has been updated successfully.

The user wants two things:

1. Increase bow firing cooldown by 25% (from 2 to 2.5)
2. During a barrage, slow the ball's rotation by 50%

For the cooldown, that's straightforward - change `@bow_cooldown = 2` to `@bow_cooldown = 2.5`.

For the rotation slowdown during barrage, I need to think about how to do this naturally. The ball's angular velocity is managed by the guardrails system. During a barrage, I could reduce the angular velocity. But I need to make sure it's restored after.

Looking at the code, the ball's angular velocity is read from the collider and managed by the guardrails. The simplest approach would be:


I'm leaning toward a per-frame multiplier approach rather than a one-time velocity reduction, since the ball's angular velocity changes continuously from collisions anyway. I'll add a `@bow_barraging` flag that gets set when the barrage starts and cleared when it ends, then apply a 0.5 multiplier to the angular velocity each frame while it's active. I'm realizing the issue with applying a multiplier each frame—it'll keep compounding and eventually stop the rotation entirely, which isn't what the user wants. Instead, I should either scale the angular velocity once when the barrage starts and let physics take over naturally, or use the collider's angular damping property to temporarily increase resistance during the barrage effect.

The damping approach feels cleaner since the physics engine will handle the smooth deceleration automatically, and then I can restore it afterward and let the guardrails bring things back to normal. Let me check what the current angular damping value is set to.

1146→      @camera_shake_multiplier = 1.0
  1147→      @arrows_per_shot = 1
  1148→      @bow_cooldown = 2
  1149→      @bow_pull_amount = 0
  1150→      @bow_sy = 1

639:      ball_a.collider\set_angular_velocity av_a

640:      ball_b.collider\set_angular_velocity av_b

646:        ball_a.collider\set_angular_velocity math.sign(av_a)*ball_a.max_angular_velocity

648:        ball_b.collider\set_angular_velocity math.sign(av_b)*ball_b.max_angular_velocity

757:      ball_object.collider\set_angular_velocity av

1282:          @collider\set_angular_velocity angular_sign*new_speed

1289:          @collider\set_angular_velocity angular_sign*new_speed

1669:    @collider\set_angular_velocity 0

1697:    @collider\set_angular_velocity @pre_thrust_angular_sign*@base_angular_velocity

1798:    @collider\set_angular_velocity @base_angular_velocity

1268→    @angle = @collider\get_angle!
  1269→
  1270→    -- Angular velocity guardrails (skip during thrust)
  1271→    angular_velocity = @collider\get_angular_velocity!
  1272→    angular_speed = math.abs(angular_velocity)
  1273→    angular_sign = math.sign(angular_velocity)
  1274→
  1275→    if not @thrusting
  1276→      if angular_speed > @base_angular_velocity
  1277→        @time_above_base += dt
  1278→        @time_below_base = 0
  1279→        if @time_above_base > @above_base_grace_period
  1280→          -- Decay toward base (90% of distance in 1 second)
  1281→          new_speed = math.lerp_dt(0.9, 1, dt, angular_speed, @base_angular_velocity)
  1282→          @collider\set_angular_velocity angular_sign*new_speed
  1283→      elseif angular_speed < @base_angular_velocity
  1284→        @time_below_base += dt
  1285→        @time_above_base = 0
  1286→        if @time_below_base > @below_base_grace_period
  1287→          -- Increase toward base (90% of distance in 0.5 seconds)
  1288→          new_speed = math.lerp_dt(0.9, 0.5, dt, angular_speed, @base_angular_velocity)
  1289→          @collider\set_angular_velocity angular_sign*new_speed
  1290→      else
  1291→        @time_above_base = 0
  1292→        @time_below_base = 0
  1293→
  1294→    -- Weapon-specific update logic
  1295→    if @weapon_type == 'sword'
  1296→      -- Swing sound: first at 0.07 rotation, then every full rotation, max 5 times
  1297→      -- Fixed threshold based on original base (1.5π * 3.5 = 5.25π)

The user wants the ball to rotate slower during the barrage, but still respond to external forces like parries — just damped. This is exactly what angular damping does. Rather than changing the base velocity (which the guardrails push toward), we should apply extra angular damping during the barrage. This way:

- The ball's rotation naturally slows down
- If a parry adds rotation, the damping reduces it more quickly
- The response is proportional — bigger forces still cause bigger rotation, just dampened

Let me check what angular damping the ball currently has.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

1719→  -- Bow callback: fire volley of arrows
  1720→  bow_fire: =>
  1721→    @bow_ready = false
  1722→    @bow_pulling = false
  1723→    @bow_shot_id += 1
  1724→    shot_id = @bow_shot_id
  1725→    arrow_delay = 0.08
  1726→    n = @arrows_per_shot
  1727→
  1728→    if n == 1
  1729→      -- Single arrow: full release, full recoil
  1730→      @\fire_single_arrow shot_id, 0.2, 0.08
  1731→    else
  1732→      -- First arrow: scaled release, full recoil, then pull for next
  1733→      @\fire_single_arrow shot_id, arrow_delay*0.5, arrow_delay*0.4
  1734→      @timer\after arrow_delay*0.3, -> @\bow_start_pull arrow_delay*0.7
  1735→
  1736→      -- Remaining arrows
  1737→      for i = 1, n - 1
  1738→        is_last = i == n - 1
  1739→        @timer\after i*arrow_delay, ->
  1740→          if is_last
  1741→            -- Last arrow: full release, scaled recoil
  1742→            @\fire_single_arrow shot_id, 0.2, 0.08, arrow_delay
  1743→          else
  1744→            -- Middle arrow: scaled release and recoil, then pull for next
  1745→            @\fire_single_arrow shot_id, arrow_delay*0.5, arrow_delay*0.4, arrow_delay
  1746→            @timer\after arrow_delay*0.3, -> @\bow_start_pull arrow_delay*0.7
  1747→
  1748→    barrage_duration = (n - 1)*arrow_delay
... [5 more lines]

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The user wants me to continue with the last task: moving angular damping to apply whenever the bow string is pulled (from 75% cooldown progress onward), not just during multi-arrow barrages. Let me read the current state of the code to see what's there now.

1730-      @\fire_single_arrow shot_id, 0.2, 0.08

1731-    else

1732-      -- Dampen rotation during barrage

1733:      @collider\set_angular_damping 3

1734-

1735-      -- First arrow: scaled release, full recoil, then pull for next

1736-      @\fire_single_arrow shot_id, arrow_delay*0.5, arrow_delay*0.4

--
1750-

1751-    barrage_duration = (n - 1)*arrow_delay

1752-    @timer\after barrage_duration, ->

1753:      @collider\set_angular_damping 0

1754-      @timer\after @bow_cooldown, 'bow_cooldown', -> @bow_ready = true

1755-      @cooldown_bar\activate @bow_cooldown

1756-

1345-        @thrust_progress = math.min(1, @thrust_progress + dt/@thrust_duration)

1346-        speed = math.lerp(math.quad_out(@thrust_progress), @thrust_start_speed, @thrust_end_speed)

1347-        @collider\set_velocity speed*math.cos(@thrust_angle), speed*math.sin(@thrust_angle)

1348-    elseif @weapon_type == 'bow'

1349-      -- Auto-pull bow when cooldown reaches 75%

1350:      bow_should_pull = @cooldown_bar.progress >= 0.75

1351:      if bow_should_pull

1352-        if not @bow_pulling

1353-          @bow_arrow_alpha = 1

1354-        @bow_pulling = true

1355-        @bow_pull_amount = math.lerp_dt(0.9, 0.5, dt, @bow_pull_amount, 8)

1356-        @bow_sy = math.lerp_dt(0.9, 0.5, dt, @bow_sy, 0.9)

1746-          else

1747-            -- Middle arrow: scaled release and recoil, then pull for next

1748-            @\fire_single_arrow shot_id, arrow_delay*0.5, arrow_delay*0.4, arrow_delay

1749-            @timer\after arrow_delay*0.3, -> @\bow_start_pull arrow_delay*0.7

1750-

1751:    barrage_duration = (n - 1)*arrow_delay

1752:    @timer\after barrage_duration, ->

1753-      @collider\set_angular_damping 0

1754-      @timer\after @bow_cooldown, 'bow_cooldown', -> @bow_ready = true

1755-      @cooldown_bar\activate @bow_cooldown

1756-

1757-  -- Fire a single arrow with release animation

1348→    elseif @weapon_type == 'bow'
  1349→      -- Auto-pull bow when cooldown reaches 75%
  1350→      bow_should_pull = @cooldown_bar.progress >= 0.75
  1351→      if bow_should_pull
  1352→        if not @bow_pulling
  1353→          @bow_arrow_alpha = 1
  1354→        @bow_pulling = true
  1355→        @bow_pull_amount = math.lerp_dt(0.9, 0.5, dt, @bow_pull_amount, 8)
  1356→        @bow_sy = math.lerp_dt(0.9, 0.5, dt, @bow_sy, 0.9)
  1357→      elseif @bow_pulling
  1358→        @bow_pulling = false
  1359→        @bow_arrow_alpha = 0
  1360→        @spring\pull 'weapon', 0.5
  1361→        @timer\tween 0.2, @, {bow_pull_amount: 0}, math.elastic_out, nil, 'bow_release'
  1362→        @timer\tween 0.08, @, {bow_sy: 1}, math.cubic_in_out, nil, 'bow_sy_release'
  1363→    elseif @weapon_type == 'dagger'
  1364→      -- Swing sound: first at 0.07 rotation, then every full rotation, max 5 times
  1365→      -- Fixed threshold based on original base (1.5π * 3.5 = 5.25π)
  1366→      -- Disabled when base velocity reaches 6.5π (~25 hits)
  1367→      -- Only plays within 1.33 seconds of a weapon-weapon or projectile-weapon hit
  1368→      @can_swing_sound_time += dt
  1369→      if @base_angular_velocity < 6.5*math.pi and angular_speed > 4.75*math.pi and @can_swing_sound_time <= 1.33
  1370→        if not @fast_spinning
  1371→          @fast_spinning = true
  1372→          @rotation_accumulator = 0

1720→  bow_fire: =>
  1721→    @bow_ready = false
  1722→    @bow_pulling = false
  1723→    @bow_shot_id += 1
  1724→    shot_id = @bow_shot_id
  1725→    arrow_delay = 0.08
  1726→    n = @arrows_per_shot
  1727→
  1728→    if n == 1
  1729→      -- Single arrow: full release, full recoil
  1730→      @\fire_single_arrow shot_id, 0.2, 0.08
  1731→    else
  1732→      -- Dampen rotation during barrage
  1733→      @collider\set_angular_damping 3
  1734→
  1735→      -- First arrow: scaled release, full recoil, then pull for next
  1736→      @\fire_single_arrow shot_id, arrow_delay*0.5, arrow_delay*0.4
  1737→      @timer\after arrow_delay*0.3, -> @\bow_start_pull arrow_delay*0.7
  1738→
  1739→      -- Remaining arrows
  1740→      for i = 1, n - 1
  1741→        is_last = i == n - 1
  1742→        @timer\after i*arrow_delay, ->
  1743→          if is_last
  1744→            -- Last arrow: full release, scaled recoil
  1745→            @\fire_single_arrow shot_id, 0.2, 0.08, arrow_delay
  1746→          else
  1747→            -- Middle arrow: scaled release and recoil, then pull for next
  1748→            @\fire_single_arrow shot_id, arrow_delay*0.5, arrow_delay*0.4, arrow_delay
  1749→            @timer\after arrow_delay*0.3, -> @\bow_start_pull arrow_delay*0.7
... [10 more lines]

Now I understand the current state. Here's the plan:

1. In the bow update section (around line 1348-1362), add angular damping when `bow_should_pull` is true, and remove it when it stops being true.
2. Remove the `@collider\set_angular_damping 3` from `bow_fire` (line 1732-1733).
3. Remove the `@collider\set_angular_damping 0` from the barrage_duration callback (line 1753).

But wait - there's a subtlety. During the barrage, `bow_pulling` gets set to false at line 1722, and the cooldown bar hasn't started yet (it starts after the barrage), so `bow_should_pull` would be false during the barrage. We need to also keep damping on during the barrage itself.
 
I'll introduce a `@bow_barraging` flag that tracks when arrows are actively firing, set it true in `bow_fire` when we have multiple shots, and clear it once the barrage finishes. Then in the update section, I'll apply damping whenever either the string is pulled or we're in the middle of a barrage.

For single-arrow shots, damping should still apply during the pull phase at 75% cooldown since the user wants it active whenever the string is pulled and we're firing. The flow is: cooldown starts, damping turns on at 75% when the string pulls, then either fires immediately (single arrow) or enters a barrage sequence (multiple arrows), and damping turns off once everything completes and the cooldown resets. For single arrows the damping naturally turns on during the pull phase and off after firing, which tracks correctly. With multi-arrow barrages though, I need to figure out what happens to the cooldown bar's progress while the barrage is actually playing—it hasn't been activated yet since that only happens after the barrage finishes. barrage. Let me trace through what happens during the barrage when the cooldown_bar is still at 1.0 from the previous activation. The pull logic would trigger again since `bow_should_pull` checks if progress >= 0.75, which would set `bow_pulling = true` and start the pull animation while arrows are actively firing. That's definitely a conflict, so I need to add a `@bow_barraging` flag to block the normal pull logic during the barrage sequence.

For the damping, the simplest solution is to apply it whenever either `bow_should_pull` is true OR `@bow_barraging` is active, then remove it from the individual fire and barrage callbacks. I could either track state changes to avoid calling set_angular_damping every frame, or just call it unconditionally each frame since it's a simple operation.

Writing the bow pull logic... I see the issue now — during the barrage, the cooldown progress stays stale at 0.75 or higher, so `bow_should_pull` remains true, which would keep re-triggering the pull animation even though `@bow_pulling` is already false. I need to make sure the pull logic doesn't restart once a barrage begins. The lerp and the barrage tweens are fighting each other—the lerp keeps pushing `bow_pull_amount` toward 8 while the release tween tries to bring it to 0, so they're constantly overwriting one another frame by frame. This could be causing the pull animation to not fully release or creating jittery motion during the barrage sequence.

Since the barrage fires so quickly (0.08s per arrow), the visual glitch probably isn't noticeable, but it's still a conflict in the underlying logic. Anyway, I should stick to what was actually asked—just the angular damping fix.

My plan is to introduce a `@bow_barraging` flag that gets set when firing multiple arrows and cleared once the barrage finishes. Then I'll consolidate the damping logic into the update section so it applies whenever the bow is being pulled OR actively barraging, and remove the damping calls from the fire and callback functions. This way single arrows only get damping from the pull state, while barrages maintain it throughout the sequence.

Now I'm checking the cooldown timing for single arrows—when `n == 1`, the barrage duration is zero, so the callback fires immediately and starts the cooldown right after the arrow launches. With n=1, barrage_duration = 0, so `@timer\after 0, ->` fires immediately (or next frame?). Let me check... with delay 0, in the timer update, `entry.time >= delay` would be true on the first update (entry.time starts at 0, and 0 >= 0 is true). So it fires on the same frame essentially.

So for n=1:

- bow_fire → fire_single_arrow → barrage_duration = 0 → timer after 0 → cooldown starts
- Same frame or next: cooldown_bar activates, progress = 0
- bow_should_pull = false → damping off

That works.

For damping, the single-arrow case already gets it from `bow_should_pull` during the pull phase, so I only need `bow_barraging` for multi-arrow sequences where arrows fire after the pull is complete. I'll set `bow_barraging = true` only when n > 1 in `bow_fire`, then clear it in the barrage callback, and remove the direct damping call since it's now handled by the flag.

I need to consolidate the damping logic into the update section where I check both `bow_should_pull` and `@bow_barraging`, and initialize the flag in the init section.

790-        owner.bow_last_scaled_shot_id = projectile_object.shot_id

791:        owner.arrows_per_shot += 1

792-

--
1146-      @camera_shake_multiplier = 1.0

1147:      @arrows_per_shot = 1

1148-      @bow_cooldown = 2.5

--
1152-      @bow_last_scaled_shot_id = 0

1153:      @bow_pulling = false

1154-      @bow_arrow_alpha = 0

--
1259-    elseif @weapon_type == 'bow'

1260:      @bow_ready = true

1261:      @timer\when (-> @bow_ready and @\bow_is_aligned!), 'bow_fire', (-> @\bow_fire!)

1262-

--
1351-      if bow_should_pull

1352:        if not @bow_pulling

1353-          @bow_arrow_alpha = 1


[Showing results with pagination = limit: 20, offset: 0]

1145→      @hit_particle_multiplier = 1.0
  1146→      @camera_shake_multiplier = 1.0
  1147→      @arrows_per_shot = 1
  1148→      @bow_cooldown = 2.5
  1149→      @bow_pull_amount = 0
  1150→      @bow_sy = 1
  1151→      @bow_shot_id = 0
  1152→      @bow_last_scaled_shot_id = 0
  1153→      @bow_pulling = false
  1154→      @bow_arrow_alpha = 0
  1155→
  1156→    elseif @weapon_type == 'dagger'
  1157→      @weapon_class = 'melee'
  1158→      @weapon_image = an.images.dagger
  1159→      @weapon_visual_offset = 24

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The user is asking whether the ball's angle (`@angle`) gets set directly anywhere in the code. Let me search for it.

1194-

1195-    -- Initial rotation

1196:    @angle = an.random\angle!

1197-    @collider\set_angle @angle

1198-

--
1267-

1268-    -- Read angle from physics

1269:    @angle = @collider\get_angle!

1270-

1271-    -- Angular velocity guardrails (skip during thrust)

--
2676-    @collider\set_angle math.angle(vx, vy)

2677-    @x, @y = @collider\get_position!

2678:    @angle = @collider\get_angle!

2679-

2680-    -- Drawing

--
2773-    @fill_color = args.fill_color or yellow

2774-    @duration = args.duration

2775:    @angle = args.angle or 0

2776-    @scale = args.scale or 1

2777-    @offset_x = args.offset_x or 0

The user wants angular damping to scale with arrows_per_shot. Let me think about the curve they described:

- 1 arrow = 0 damping
- 20 arrows = 5 damping
- 0-10 arrows: grows slowly
- Near 10: grows fast toward 5
- After 10: plateaus, moves toward 5 slowly

This sounds like an S-curve / sigmoid shape. Let me think about what function would give this.

Actually, re-reading: "values from 0 to 10 grow slowly, then near 10 they grow fast towards 5, then after 10 they plateau and move towards 5 slowly."


So the pattern is: slow growth early, rapid acceleration around the midpoint, then tapering off as it approaches the asymptote of 5. I could normalize the arrow count to a 0-1 range and apply a sigmoid function to create this S-curve behavior, which would naturally give me the slow-fast-slow progression I'm looking for.

Let me test the smoothstep formula with actual values to see if it produces the right curve shape.

Hmm, smoothstep gives me a symmetric curve, but what the user actually wants is slow growth at the start, acceleration around the middle values, then tapering off again — smoothstep doesn't quite match that pattern.

Let me work through the full smoothstep calculation with the formula to see how the damping values actually progress across the range.

Generating smoothstep table... Continuing the calculations for larger values of n, working through the displacement formula with increasing time steps. I'm recalculating the smoothstep function more carefully, working through each value of n from 1 to 20 using the formula 3t² - 2t³ where t increments by 1/19. Continuing through the calculations for larger values of n, I'm tracking how the time ratio, score, and distance metrics evolve as n increases from 7 through 11. Continuing through the remaining values as n increases toward 19, tracking how the parameter t approaches 1 while s and d both grow, with d reaching approximately 4.85 by the final iteration.

Generating markdown table...

Wait, I need to reconsider what the user actually meant. They said values from 0 to 10 grow slowly, then near 10 they accelerate toward 5, then plateau after 10—but I think they're talking about arrow count, not the damping values themselves. Let me re-read their constraint more carefully.

So the damping should start low and increase gradually through arrows 1-8, then ramp up faster around arrows 8-12, and finally level off near 5 for arrows 12-20. That means I need to shift the inflection point of the curve later, not keep it centered. I could try remapping the input with a power function to push the steep part rightward, or use a different easing approach altogether that doesn't have its transition at the midpoint. I'm testing different power values to shift the curve rightward, but the results still cluster most growth in the middle rather than matching the desired pattern of slow-fast-slow. Let me try a completely different parameterization approach.

I'm exploring using an inverted power function where damping accelerates quickly at first then plateaus, which should give that fast rise followed by leveling off. Testing with k=3 shows the values climbing steeply from n=5 to n=10, then flattening out toward the maximum by n=20, which better matches what's needed.

That initial curve is too aggressive though. Let me try squaring the normalized time first, then applying a smoothstep function to smooth out the transition. Running through the values, this gives a much gentler start—barely any damping at n=5, then gradually building up through the middle range. Looking at the performance metrics for t^1.5, the growth pattern is much more gradual throughout—it stays relatively flat until around n=14, then accelerates more sharply toward n=20, which doesn't quite match the user's description either.

I'm reconsidering the approach entirely. Maybe a lookup table would be more straightforward, or I could try a simpler formula using smoothstep with the exponent adjusted to create that steeper jump around the middle values. Now I'm checking the damping values across the range to see how the curve behaves—it starts near zero for the early notes and ramps up smoothly, hitting around 2.67 by note 12, which should give that steep transition in the middle of the range the user is looking for. Looking at the performance metrics across different n values, I'm noticing the symmetry is consistent throughout. Re-reading the user's request more carefully, I think they mean the arrow count should range from 1 to 10, making the steep acceleration zone right at the midpoint where smoothstep naturally inflects—so the standard smoothstep curve should actually fit their needs well. But I'm second-guessing whether the slow growth phase from 1-10 reaches the right value by arrow count 10.

Let me reconsider the shape they're describing: staying relatively low through the early range, then accelerating sharply in the middle section, before leveling off toward the maximum. That's more of a late-ramp pattern than a symmetric curve. I'm thinking a squared smoothstep might better capture that steeper middle acceleration they're looking for. Checking the smoothstep values across the range—the transition kicks in around n=7 and accelerates through the middle values, reaching full strength by n=15.

Wait, there's an issue here: the damping stays at zero until n=7, but the user wanted a slow growth from the start, not a flat section. I need to reconsider the approach.

Actually, I think I'm overcomplicating this. A standard smoothstep curve centered around n=10.5 naturally gives slow growth at the edges and steep growth in the middle—which matches what the user described. The inflection point where growth is fastest would be right around n=10, and the curve plateaus on both sides. Let me just calculate the smoothstep values directly and present those.

Generating smoothstep table... Continuing through the calculations for larger values of n, working through the pattern where each step involves computing the displacement using the same formula structure with updated coefficients. Finishing the calculations through n=20, where the damping value approaches 5.0 as t reaches 1.0. But I'm noticing the user mentioned values from 0 to 10 should grow slowly, and at n=10 we're already at 2.30, which seems faster than expected.

Let me explore a steeper S-curve using smootherstep to create more dramatic growth in the middle range, testing how this formula behaves across the same sample points. Finishing the calculation for n=15 with the powers of 0.737, then moving through n=20 where the value reaches 5.00. Smootherstep produces a slightly more pronounced curve in the middle, but smoothstep is simpler and works just as well, so I'll go with that and present the results in a table.

The user approved the smoothstep approach. Let me implement it. The formula is:

```
t = (n - 1) / 19
damping = 5 * (3*t*t - 2*t*t*t)
```

Where `n = @arrows_per_shot`, clamped to 1-20 range.

I need to replace the hardcoded `3` in the angular damping line with this formula. Let me find the current code.

The current code in the update section sets `@collider\set_angular_damping 3`. I need to compute the damping value based on `@arrows_per_shot`.

Let me look at what math functions are available. 

The codebase has `math.lerp` and `math.clamp`, so I can compute the smoothstep inline. I'll calculate the normalized parameter `t` from the arrow count, then apply the smoothstep formula to get the damping value, following the operator spacing conventions in the codebase.

Writing the damping calculation... Completing the damping calculation...

<tool_use_error>File has been modified since read, either by the user or by a linter. Read it again before attempting to write it.</tool_use_error>

1349-    elseif @weapon_type == 'bow'

1350-      -- Auto-pull bow when cooldown reaches 75%

1351-      bow_should_pull = @cooldown_bar.progress >= 0.75

1352:      if bow_should_pull or @bow_barraging

1353-        @collider\set_angular_damping 5

1354-      else

1355-        @collider\set_angular_damping 0

Looks like the user changed the damping from 3 to 5. Let me read the exact current state and apply the edit.

1349→    elseif @weapon_type == 'bow'
  1350→      -- Auto-pull bow when cooldown reaches 75%
  1351→      bow_should_pull = @cooldown_bar.progress >= 0.75
  1352→      if bow_should_pull or @bow_barraging
  1353→        @collider\set_angular_damping 5
  1354→      else
  1355→        @collider\set_angular_damping 0
  1356→      if bow_should_pull
  1357→        if not @bow_pulling
  1358→          @bow_arrow_alpha = 1

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The user wants me to:

1. Comment out the angular damping code
2. Change the arrow_delay to scale with arrows_per_shot using a similar smoothstep curve

For the delay: 1 arrow = 0.2, 20 arrows = 0.02. This is a decreasing curve. Using the same smoothstep:
t = (n-1)/19
delay = 0.2 - 0.18 * smoothstep(t) = 0.2 - 0.18*(3*t*t - 2*t*t*t)

Or equivalently: delay = math.lerp(smoothstep(t), 0.2, 0.02)


I need to verify the lerp convention in the codebase—it looks like `math.lerp(t, a, b)` goes from a to b, so that formula should work correctly. I could also express this directly as `0.2 - 0.18*(3*t*t - 2*t*t*t)` or rearrange it as `0.02 + 0.18*(1 - (3*t*t - 2*t*t*t))`.

The simplest form is `0.2 - 0.18*smoothstep(t)`. Now I need to find where `arrow_delay` is currently set in the `bow_fire` code—it's hardcoded at 0.08 right now. But the user wants it to scale from 0.2 seconds per arrow when there's just one, down to 0.02 seconds when there are twenty, so I need to replace that static value with a dynamic calculation based on arrow count. Writing the damping logic...

Now I need to locate where arrow_delay gets set in the bow_fire function.

1349→    elseif @weapon_type == 'bow'
  1350→      -- Auto-pull bow when cooldown reaches 75%
  1351→      bow_should_pull = @cooldown_bar.progress >= 0.75
  1352→      if bow_should_pull or @bow_barraging
  1353→        t = math.min((@arrows_per_shot - 1)/19, 1)
  1354→        @collider\set_angular_damping 5*(3*t*t - 2*t*t*t)
  1355→      else
  1356→        @collider\set_angular_damping 0
  1357→      if bow_should_pull
  1358→        if not @bow_pulling

1722→    hit = an\raycast tip_x, tip_y, ray_end_x, ray_end_y, 'ball'
  1723→    hit and hit.object.team != @team
  1724→
  1725→  -- Bow callback: fire volley of arrows
  1726→  bow_fire: =>
  1727→    @bow_ready = false
  1728→    @bow_pulling = false
  1729→    @bow_shot_id += 1
  1730→    shot_id = @bow_shot_id
  1731→    arrow_delay = 0.08

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

Out cubic easing: `1 - (1-t)^3`. This starts fast and decelerates.

So: `arrow_delay = 0.2 - 0.16*(1 - (1-t)^3)`

At t=0: 0.2 - 0.16*0 = 0.2
At t=1: 0.2 - 0.16*1 = 0.04

Let me also think about what `(1-t)^3` looks like in YueScript with the operator convention:
`(1 - t)^3` — hmm, `^` is exponentiation in Lua. But the spacing convention says `-` has spaces, `*` doesn't.


I can express this as repeated multiplication or use the exponentiation operator directly, and I think `^` works fine for this formula.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

1349→    elseif @weapon_type == 'bow'
  1350→      -- Auto-pull bow when cooldown reaches 75%
  1351→      bow_should_pull = @cooldown_bar.progress >= 0.75
  1352→      -- if bow_should_pull or @bow_barraging
  1353→      --   t = math.min((@arrows_per_shot - 1)/19, 1)
  1354→      --   @collider\set_angular_damping 5*(3*t*t - 2*t*t*t)
  1355→      -- else
  1356→      --   @collider\set_angular_damping 0
  1357→      if bow_should_pull
  1358→        if not @bow_pulling

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

1349→    elseif @weapon_type == 'bow'
  1350→      -- Auto-pull bow when cooldown reaches 75%
  1351→      bow_should_pull = @cooldown_bar.progress >= 0.75
  1352→      if @bow_barraging
  1353→        t = math.min((@arrows_per_shot - 1)/19, 1)
  1354→        @collider\set_angular_damping 3*math.cubic_out(t)
  1355→      else
  1356→        @collider\set_angular_damping 0
  1357→      if bow_should_pull
  1358→        if not @bow_pulling

786-      owner.weapon_ui\landed_hit!

787-

788-      -- Bow scaling: +1 arrow per shot (not per arrow)

789:      if owner.weapon_type == 'bow' and projectile_object.shot_id != owner.bow_last_scaled_shot_id

790:        owner.bow_last_scaled_shot_id = projectile_object.shot_id

791-        owner.arrows_per_shot += 1

792-

793-      -- Spawn star particles at hit location

--
1148-      @bow_cooldown = 2.5

1149-      @bow_pull_amount = 0

1150-      @bow_sy = 1

1151:      @bow_shot_id = 0

1152:      @bow_last_scaled_shot_id = 0

1153-      @bow_pulling = false

1154-      @bow_barraging = false

1155-      @bow_arrow_alpha = 0

--
1726-  bow_fire: =>

1727-    @bow_ready = false

1728-    @bow_pulling = false

1729:    @bow_shot_id += 1

1730:    shot_id = @bow_shot_id

1731-    t = math.min((@arrows_per_shot - 1)/19, 1)

1732-    arrow_delay = 0.2 - 0.16*math.cubic_out(t)

1733-    n = @arrows_per_shot

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

E:\a327ex\emoji-ball-battles\reference\super-emoji-box\todo.md
E:\a327ex\emoji-ball-battles\reference\super-emoji-invaders\src\todo.md
E:\a327ex\emoji-ball-battles\reference\super-emoji-pairs\src\todo.md
E:\a327ex\emoji-ball-battles\reference\super emoji pop\todo.md
E:\a327ex\emoji-ball-battles\todo.md

1→# TODO
     2→
     3→*Items ordered by priority (highest first)*
     4→
     5→This file tracks ideas and future tasks, not active implementation work. Each item should be a self-contained task starting with "- ". Subsections are allowed (indented "- ") but prefer flat, independent tasks over nested structures. The user periodically reorders items so higher priority tasks float to the top. When implementing features, use separate implementation plans rather than this file.
     6→
     7→- Arrows shot increase by 1 on hit (bow scaling)
     8→- Multiple arrows shooting with delay between each
     9→- Arrows stick to walls
    10→- Arrows disappear from walls like plants disappear blinking
    11→- Parried arrows disappear blinking too, and also rotate slowly based on how the parry weapon was moving (same idea as how plants rotate before dying)
    12→- Sounds for bow and sword
    13→- Create letter emoji assets (at minimum: P, B, S, F, K) for status effect identifiers
    14→- Implement status effect line UI class that displays a letter + number using emoji assets with recoloring shader
    15→- Add status effect container to ball class that tracks active effects and their stack counts
    16→- Implement stack consumption logic that triggers the effect and decrements the stack count
    17→- Remove status effect line from display when its stack count reaches zero
    18→- Apply recoloring shader to status effect lines with a distinct color per effect type
    19→- Handle vertical positioning of multiple simultaneous status effect lines above the emoji
    20→- UI effect anti-overlap system: tag all floating UI effects (status_text, emoji_text, damage numbers) as spatial UI elements with a bounding box
    21→- UI effect anti-overlap system: when spawning a new UI element, query all active UI elements for their current bounding boxes and projected positions
    22→- UI effect anti-overlap system: find the closest unoccupied position to the desired spawn point that doesn't visually collide with existing UI elements
    23→- UI effect anti-overlap system: account for movement direction/velocity of existing elements (e.g., emoji_text floats upward) when checking for collisions
    24→- Fencer class: 
    25→  - PASSIVE gains fencing stacks per parry (+1 damage per stack, low duration)
    26→  - ACTIVE triggers lunge attack (like Earclacks' Lance) at X fencing stacks. 
    27→  - Synergizes with duration items - even small duration boosts compound into much higher damage.
    28→- Spellblade class: 
    29→  - PASSIVE: swaps weapons periodically between dagger and staff/wand
    30→  - Dagger deals physical damage, all physical damage applies Ethereal stacks but deals 0 damage. First magical damage with wand pops ethereal stacks and makes target ethereal for [stacks] seconds.
... [4 more lines]

The user wants arrows to stick to walls, similar to how it works in emojunky-one. Let me look at how projectiles die on wall hits and how similar visual-only objects are created in the codebase. Let me also check if there's any reference code for emojunky-one.

Let me first find where projectile-wall collisions happen, and also look for how visual-only objects (like plants or similar) are created.

171-an\music_set_volume 0.8

172-

173--- Physics

174-an\physics_init!

175-an\physics_set_gravity 0, 384

176-an\physics_tag 'wall'

177-an\physics_tag 'ball'

178-an\physics_tag 'weapon'

179-an\physics_tag 'weapon_hitbox'

180-an\physics_tag 'plant_ghost'

181-an\physics_tag 'projectile'

182-an\physics_collision 'ball', 'wall'

183-an\physics_collision 'ball', 'ball'

184-an\physics_collision 'weapon', 'weapon'

185-an\physics_tag 'projectile_sensor'

186:an\physics_collision 'projectile', 'wall'

187-an\physics_collision 'projectile', 'weapon'

188-an\physics_sensor 'projectile_sensor', 'ball'

189-an\physics_sensor 'projectile_sensor', 'plant_ghost'

190-an\physics_sensor 'weapon_hitbox', 'ball'

191-an\physics_sensor 'weapon_hitbox', 'plant_ghost'

192-an\physics_sensor 'plant_ghost', 'ball'

193-

194--- Render and composite layers

195-draw = ->

196-  bg\render!

197-  back\render!

198-  game\render!

199-  front\render!

200-  cover\render!

... [38 more lines]

177-an\physics_tag 'ball'

178-an\physics_tag 'weapon'

179-an\physics_tag 'weapon_hitbox'

180:an\physics_tag 'plant_ghost'

181-an\physics_tag 'projectile'

182-an\physics_collision 'ball', 'wall'

183-an\physics_collision 'ball', 'ball'

--
186-an\physics_collision 'projectile', 'wall'

187-an\physics_collision 'projectile', 'weapon'

188-an\physics_sensor 'projectile_sensor', 'ball'

189:an\physics_sensor 'projectile_sensor', 'plant_ghost'

190-an\physics_sensor 'weapon_hitbox', 'ball'

191:an\physics_sensor 'weapon_hitbox', 'plant_ghost'

192:an\physics_sensor 'plant_ghost', 'ball'

193-

194--- Render and composite layers

195-draw = ->

--
289-    @\add @player_ball

290-    @\add @enemy_ball

291-

292:    -- Create plants container and spawn plant groups

293:    @\add object 'plants'

294:    @\spawn_plants!

295-

296-    @high_speed_hit_count = 0 -- Track recent high speed hits for energy system bypass

297-    @low_horizontal_hit_count = 0 -- Track recent low horizontal hits to prevent stalling

--
698-        intensity = 0.5 + 0.5*math.circ_in((intensity - 0.5)/0.5)

... [248 more lines]

Now I have a good picture. Let me look at:

1. How projectiles die on wall hit (the `hit` method)
2. The `dying_plant` class as a reference for visual-only objects
3. The projectile class to understand its drawing

Let me look at the projectile hit method and the projectile drawing code.

3071→-- Dying plant: visual-only remnant that floats away and blinks before disappearing
  3072→class dying_plant extends object
  3073→  new: (@x, @y, args={}) =>
  3074→    super!
  3075→    @image = args.image
  3076→    @scale_x = args.scale_x
  3077→    @scale_y = args.scale_y
  3078→    @rotation = args.rotation or 0
  3079→    @layer = args.layer or game
  3080→
  3081→    -- Initial velocity: force direction + slight upward bump
  3082→    force_direction = args.force_direction or 1
  3083→    intensity = args.intensity or 150
  3084→    @vx = force_direction*an.random\float(140, 240)
  3085→    @vy = an.random\float(-200, -100)  -- upward bump
  3086→    @gravity = 0
  3087→
  3088→    -- Rotation velocity: based on force direction and intensity
  3089→    @rv = force_direction*math.remap(intensity, 0, 150, 5, 25)*an.random\float(0.6, 2)
  3090→
  3091→    -- Blinking
  3092→    @visible = true
  3093→    @blink_delay = an.random\float 0.3, 0.4 -- wait before starting to blink
  3094→    @total_duration = an.random\float 1, 2
  3095→
  3096→    @\add timer!
  3097→
  3098→    -- Start blinking after delay, then die
  3099→    @timer\after @blink_delay, ->
  3100→      @timer\during_step @total_duration - @blink_delay, 0.1, 0.03, (-> @visible = not @visible), nil, -> @\kill!
... [30 more lines]

2626:class projectile extends object

2626→class projectile extends object
  2627→  new: (@x, @y, args={}) =>
  2628→    super!
  2629→    @\tag 'projectile'
  2630→    @projectile_type = args.projectile_type or 'bullet'
  2631→    @team = args.team
  2632→    @velocity = args.velocity or 10
  2633→    @direction = args.direction or 0
  2634→    @bounces = args.bounces or 0
  2635→    @shot_id = args.shot_id
  2636→
  2637→    -- Projectile-type-specific setup
  2638→    if @projectile_type == 'bullet'
  2639→      @w = 15
  2640→      @h = 8
  2641→      @\add collider 'projectile', 'dynamic', 'box', @w, @h
  2642→      @collider\set_position @x, @y
  2643→      @collider\set_restitution 0.75
  2644→      @collider\set_friction 0
  2645→      @collider\set_gravity_scale 0.5
  2646→      @collider\set_density 0.4
  2647→    elseif @projectile_type == 'arrow'
  2648→      @w = 18
  2649→      @h = 4
  2650→      @\add collider 'projectile', 'dynamic', 'box', @w, @h
  2651→      @collider\set_position @x, @y
  2652→      @collider\set_restitution 0
  2653→      @collider\set_friction 1
  2654→      @collider\set_gravity_scale 0
  2655→      @collider\set_density 0.1
... [90 more lines]

2704→    switch target_type
  2705→      when 'wall'
  2706→        if @projectile_type == 'bullet'
  2707→          @bounces -= 1
  2708→          if @bounces < 0
  2709→            @\kill!
  2710→        elseif @projectile_type == 'arrow'
  2711→          @\kill!
  2712→      when 'weapon'
  2713→        @bounces -= 1
  2714→        if @bounces < 0
  2715→          @\kill!
  2716→      when 'ball'
  2717→        @\kill!
  2718→

3118→      effects\push @x, @y, @rotation, @scale_x, @scale_y
  3119→      effects\image @image, 0, 0
  3120→      effects\pop!
  3121→
  3122→
  3123→
  3124→-- Wall class
  3125→class wall extends object
  3126→  new: (@x, @y, @w, @h, @color=wall_color!, @is_floor=false) =>
  3127→    super!

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The user wants the stuck arrow to be slightly offset inward (in the direction the arrow was traveling) so it looks like it embedded into the wall a bit. I need to add a small random offset along the arrow's direction.

The arrow's direction is `@angle` (which is set from velocity direction in the projectile update). So "inward" means further along `@angle`.

I need to pass the direction to the stuck_arrow spawn, or just compute it from the angle. Actually, `@angle` already IS the direction of travel. So I can offset the position by a small random amount along that angle.

Something like:
```yuescript
offset = an.random\float(1, 4)


```

Now I'm applying that offset to the stuck arrow's position using trigonometry to move it along the angle direction.

2710→        elseif @projectile_type == 'arrow'
  2711→          @parent.arena.effects\add stuck_arrow @x, @y, {angle: @angle}
  2712→          @\kill!
  2713→      when 'weapon'
  2714→        @bounces -= 1

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The issue is that `@angle` is nil when `hit` is called. Looking at the projectile code, `@angle` is set in the `update` method (line 2680: `@angle = @collider\get_angle!`). But `hit` is called from the collision handler, which might run before the first update, or the angle might not be set yet.

Actually, looking at the collision handler at line 711-716:
```
for event in *an\collision_begin_events 'projectile', 'wall'
  projectile_object = event.a
  vx, vy = projectile_object.collider\get_velocity!


```

The `hit` method is called on `projectile_object` (which is `event.a`). But `@angle` might be nil if the projectile hasn't had its first update yet. The angle is only set in `update`.

The simplest fix is to compute the angle from the velocity directly inside the `hit` method instead of relying on `@angle`, since the velocity is already available from the collider at the time of collision. I see the cleanest approach is to just grab the angle directly from the collider in the hit method rather than relying on `@angle` which might not be initialized yet. That way I'm always using the current angle from the physics system.

2710→        elseif @projectile_type == 'arrow'
  2711→          offset = an.random\float(0, 10)
  2712→          @parent.arena.effects\add stuck_arrow @x + offset*math.cos(@angle), @y + offset*math.sin(@angle), {angle: @angle}
  2713→          @\kill!
  2714→      when 'weapon'

I see the offset range was changed to (0, 10) — user must have edited it. Let me just replace `@angle` with a local that gets the angle from the collider.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The user wants stuck arrows to disappear like dying_plant objects. Looking at dying_plant, the blinking behavior is:

```yuescript
@blink_delay = an.random\float 0.3, 0.4
@total_duration = an.random\float 1, 2

@timer\after @blink_delay, ->
  @timer\during_step @total_duration - @blink_delay, 0.1, 0.03, (-> @visible = not @visible), nil, -> @\kill!
```

But for stuck arrows, the user said "after a random duration" they start disappearing. So there's an initial wait (the arrow sits in the wall), then the blinking starts. 

For stuck arrows, I need a longer initial wait than dying_plant's 0.3-0.4 seconds since they're embedded in the wall. I'm setting up the stuck_arrow class with a longer delay before the blinking animation kicks in...

Implementing the stuck arrow disappearance logic... I'll go with reasonable default values for the wait duration rather than asking the user for clarification, since they've indicated they don't want more questions.

3126→
  3127→-- Stuck arrow: visual-only arrow embedded in a wall
  3128→class stuck_arrow extends object
  3129→  new: (@x, @y, args={}) =>
  3130→    super!
  3131→    @angle = args.angle or 0
  3132→    @arrow_scale = 26/512
  3133→
  3134→  update: =>
  3135→    game\push @x, @y, @angle + 3*math.pi/4, @arrow_scale, @arrow_scale
  3136→    game\image an.images.arrow, 0, 0
  3137→    game\pop!

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

710→    -- Projectile-wall collision: bounce and spawn effects
   711→    for event in *an\collision_begin_events 'projectile', 'wall'
   712→      projectile_object = event.a
   713→
   714→      vx, vy = projectile_object.collider\get_velocity!
   715→      intensity = math.remap math.length(vx, vy), 300, 600, 0, 1
   716→      projectile_object\hit intensity, 'wall'
   717→
   718→      -- Sound
   719→      an\sound_play "concrete_#{an.random\int(1, 3)}", 0.7, an.random\float(0.95, 1.05)
   720→
   721→      -- Spawn hit effects
   722→      normal_angle = math.angle event.normal_x, event.normal_y
   723→      @effects\add hit_circle event.point_x, event.point_y, {radius: 6 + 4*intensity, duration: an.random\float(0.15, 0.3), color: yellow, flash_on_spawn: true}
   724→      for i = 1, an.random\int 1, 3
   725→        @effects\add hit_particle event.point_x, event.point_y,
   726→          velocity: intensity*an.random\float(100, 200)
   727→          direction: normal_angle + math.pi + an.random\float(-math.pi/3, math.pi/3)
   728→          duration: an.random\float(0.3, 0.5)
   729→          color: yellow
   730→          gravity: 256
   731→          flash_on_spawn: true
   732→
   733→    -- Projectile-weapon collision: parry
   734→    for event in *an\collision_begin_events 'projectile', 'weapon'

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

3133→    @arrow_scale = 26/512
  3134→    @visible = true
  3135→
  3136→    @\add timer!
  3137→    @timer\after an.random\float(1, 2), ->

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

Let me check the during_step signature from the timer module.

381-```

382-timer\during(duration, name_or_callback, callback?, after?) -> timer

383:timer\during_step(name_or_callback, callback?, after?) -> timer

384-```

385-

1377-

1378-```yuescript

1379--- Callback receives (elapsed_time, progress 0-1)

1380-@timer\during 2, (t, p) =>

1381-  @alpha = 1 - p

1382-, -> @\kill!

1383-```

1384-

1385----

1386-

1387:#### timer\during_step(name_or_callback, callback?, after?)

1388-

1389-Runs every frame until cancelled.

1390-

1391-```yuescript

1392:@timer\during_step 'flicker', =>

1393-  @visible = not @visible

1394-```

1395-

1396----

1397-

1398-### Tweening

1399-

1400-#### timer\tween(duration, target, properties, easing?, name?, after?)

1401-

1402-Animates properties over time.

329-      - Calculates how many calls fit: ceil(2 * duration / (start + end))
330-      - Like every_step but you specify duration instead of times
331-
332-    Returns: nothing
333-  ]]
334:  during_step: (duration, start_delay, end_delay, name_or_callback, callback_or_step, step_or_after, after_function) =>
335-    name, callback, step_method, after = if type(name_or_callback) == 'string'
336-      name_or_callback, callback_or_step, step_or_after, after_function
337-    else
338-      @\uid!, name_or_callback, callback_or_step, step_or_after
339-    step_method = step_method or math.linear
--
374-      @timer\every 10, 'attack', -> @attack!
375-      @timer\trigger 'attack'  -- fires now, resets timer
376-
377-    Behavior:
378-      - after: fires callback, marks as cancelled (one-shot)
379:      - every, cooldown, every_step, during_step: fires callback, resets time to 0
380-      - watch: fires callback with current/previous values
381-      - when: fires callback
382-      - during, tween: not supported (continuous, not discrete)
383-
384-    Returns: nothing
--
437-      print remaining if remaining
438-
439-    Behavior:
440-      - For after, every, cooldown: returns delay - elapsed time
441-      - For during, tween: returns duration - elapsed time
442:      - For every_step, during_step: returns current step delay - elapsed time
... [5 more lines]

Two things:

1. Change stuck_arrow to simply die after 1s (no blinking)
2. Fix arrow angle when it sticks to wall - if the arrow hits a wall but its angle points outward, it looks wrong.

For the angle fix: when an arrow hits a wall, we have the collision normal. The arrow should be pointing INTO the wall, not out of it. We can check if the arrow's direction is roughly aligned with the wall normal (pointing outward) and if so, flip it or adjust it.

Actually, the collision normal points away from the wall surface. If the arrow's angle (direction of travel) is roughly opposite to the normal, it's going into the wall - that's correct. 

If it's going WITH the normal, something's wrong. I can check if the dot product of the arrow direction and normal is positive - that means the arrow's pointing outward like the normal, which is backwards. In that case I'd flip the arrow angle by pi to correct it.

Wait, let me think through the scenario more carefully. If the player is close to the left wall facing right and fires, the arrow travels right and shouldn't hit the left wall at all.

Ah, I think I see what's happening - the arrow probably spawns 20 pixels ahead of the player, so if they're very close to a wall and facing toward it, that spawn point ends up inside the wall. The physics engine pushes it out, but the arrow's velocity direction gets flipped in the process. So I need to check the collision normal when the stuck arrow forms and flip the arrow's angle if it's pointing the wrong way relative to the wall.

The tricky part is that the collision normal is only available in the collision handler, but the stuck arrow gets spawned in the hit method. I could either pass the normal through to the hit method or handle the stuck arrow creation directly in the collision handler instead.

The cleanest solution is to pass the normal to the hit method, then check if the arrow's direction matches the wall normal using a dot product—if they point the same way, I flip the angle by 180 degrees so the arrow sticks pointing into the wall rather than away from it.

Writing the collision handler fix...

710→    -- Projectile-wall collision: bounce and spawn effects
   711→    for event in *an\collision_begin_events 'projectile', 'wall'
   712→      projectile_object = event.a
   713→
   714→      vx, vy = projectile_object.collider\get_velocity!
   715→      intensity = math.remap math.length(vx, vy), 300, 600, 0, 1
   716→      projectile_object\hit intensity, 'wall'
   717→

2699→
  2700→  hit: (intensity=1, target_type) =>
  2701→    @spring\pull 'hit', 0.5*intensity, 3, 0.5
  2702→    @flashing = true
  2703→    @timer\after 0.1, -> @flashing = false
  2704→
  2705→    switch target_type
  2706→      when 'wall'
  2707→        if @projectile_type == 'bullet'
  2708→          @bounces -= 1
  2709→          if @bounces < 0
  2710→            @\kill!
  2711→        elseif @projectile_type == 'arrow'
  2712→          angle = @collider\get_angle!
  2713→          offset = an.random\float(0, 10)
  2714→          @parent.arena.effects\add stuck_arrow @x + offset*math.cos(angle), @y + offset*math.sin(angle), {angle: angle}
  2715→          @\kill!
  2716→      when 'weapon'
  2717→        @bounces -= 1
  2718→        if @bounces < 0

3127→
  3128→-- Stuck arrow: visual-only arrow embedded in a wall
  3129→class stuck_arrow extends object
  3130→  new: (@x, @y, args={}) =>
  3131→    super!
  3132→    @angle = args.angle or 0
  3133→    @arrow_scale = 26/512
  3134→    @visible = true
  3135→
  3136→    @\add timer!
  3137→    @timer\after an.random\float(1, 2), ->
  3138→      @timer\during_step 1, 0.1, 0.03, (-> @visible = not @visible), nil, -> @\kill!
  3139→
  3140→  update: =>
  3141→    if @visible
  3142→      game\push @x, @y, @angle + 3*math.pi/4, @arrow_scale, @arrow_scale
  3143→      game\image an.images.arrow, 0, 0
  3144→      game\pop!

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The issue is that the collision normal direction convention might be different from what I assumed. The normal might point INTO the wall rather than away from it, or the arrow's angle from `get_angle` might not represent its travel direction the way I assumed.

Actually, looking at the projectile update:
```yuescript
vx, vy = @collider\get_velocity!
@collider\set_angle math.angle(vx, vy)
```

So the collider's angle is set to the velocity direction. But when an arrow hits a wall with restitution 0, the velocity might already be near zero or reversed by the time `hit` is called. The `get_angle` in `hit` might return the post-collision angle.


The collision event fires at the start of the collision, but the physics engine has already modified the velocity based on the collision response. Since the arrow has zero restitution, its velocity gets zeroed out or redirected along the wall surface. I need to reconsider the normal convention in Box2D—the normal points from the first object to the second, so I should verify which object is which in the collision handler and whether my dot product check is actually inverted. from the wall (outward), and the arrow is flying toward the wall, then the arrow direction and outward normal point in opposite directions, giving a negative dot product. But my condition checks for positive, so it wouldn't flip those cases—yet the user reports all arrows are wrong. I need to reconsider what the normal actually represents in the collision system.

Let me trace through the actual code to see how `get_angle` is being used in the projectile update...

Examining the projectile update logic...

I'm realizing the angle gets set each frame based on the current velocity, but when the collision handler runs and calls `hit`, it's reading back an angle that was set in the previous frame—before the physics engine resolved the collision and zeroed out the perpendicular velocity component. So there's a timing mismatch where the stored angle doesn't reflect the post-collision velocity state.

But wait, if the angle is explicitly set every frame, then in `hit` I should be getting whatever was most recently set, which would be from the previous frame's update. That should still represent the arrow's actual travel direction at that moment.

Let me trace through the collision normal logic—it points away from the wall, opposite to the arrow's incoming direction. So if the arrow is traveling toward the wall, the dot product of its direction with the normal should be negative, meaning the `> 0` check should almost never trigger. Yet somehow all arrows are behaving incorrectly, which suggests I'm misunderstanding something fundamental about how the normal is oriented or how the angle is being used. The normal points from the projectile toward the wall, so arrows flying into the wall have their direction aligned with the normal, creating a positive dot product. That means I'm flipping all of them when I should only flip the ones where the dot product is negative—I need to reverse the condition. Let me check how the normal is actually being used in the collision effects to confirm this logic.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

3128→
  3129→
  3130→
  3131→-- Stuck arrow: visual-only arrow embedded in a wall
  3132→class stuck_arrow extends object
  3133→  new: (@x, @y, args={}) =>
  3134→    super!
  3135→    @angle = args.angle or 0
  3136→    @arrow_scale = 26/512
  3137→    @visible = true
  3138→
  3139→    @\add timer!

3139→    @\add timer!
  3140→    @timer\after 1, -> @\kill!
  3141→
  3142→  update: =>
  3143→    game\push @x, @y, @angle + 3*math.pi/4, @arrow_scale, @arrow_scale
  3144→    game\image an.images.arrow, 0, 0
  3145→    game\pop!
  3146→
  3147→
  3148→

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The user wants arrows to stick to the ball they hit too, not just walls. Let me think about this.

Currently, when an arrow hits a ball (via the projectile_sensor), it deals damage and the arrow dies. The user wants a stuck_arrow visual to appear on the ball, and it should move with the ball (since the ball moves around).

Key considerations:

1. **Where the hit happens**: The projectile-ball hit is in the `projectile_sensor` / `ball` sensor events. Let me find that code.

2. **Following the ball**: Unlike wall stuck arrows which are static, ball stuck arrows need to follow the ball's position and rotation. The stuck arrow needs to be attached to the ball somehow - either as a child object, or by storing a relative offset and updating position each frame.
   
So when an arrow hits a ball, I'll spawn a stuck_arrow that tracks the ball's movement by storing the arrow's position and angle relative to the ball's center. Each frame, I'll recalculate the stuck arrow's world position and rotation based on where the ball is now and how it's rotated.

The stuck arrow will then fade out with that blinking effect after a second or two.

Good point. If the stuck_arrow is added as a child of the ball object, then `@parent` gives access to the ball. This simplifies things - no need to pass a target reference. But the positioning still needs to be relative to the ball.

Let me think about this. If the stuck_arrow is a child of the ball, it doesn't automatically move with the ball in terms of rendering - it still has its own x, y, angle that it draws at. So I still need to compute the world position from the ball's position + rotated offset each frame.

Actually, let me look at how objects work as children. The object system in Anchor - children get updated when the parent updates. But the position isn't automatically relative. So I still need to store the local offset and compute world position each frame.


Now I need to find where the sensor event fires when arrows collide with balls to understand the exact implementation.

168-an\sound 'dagger_swing_4', 'assets/dagger_swing_9.ogg'

169-an\sound 'dagger_swing_5', 'assets/dagger_swing_10.ogg'

170-an\music 'bgm', 'assets/batoru_umi_to_mamono_no_kodomo_tachi.ogg'

171-an\music_set_volume 0.8

172-

173--- Physics

174-an\physics_init!

175-an\physics_set_gravity 0, 384

176-an\physics_tag 'wall'

177-an\physics_tag 'ball'

178-an\physics_tag 'weapon'

179-an\physics_tag 'weapon_hitbox'

180-an\physics_tag 'plant_ghost'

181-an\physics_tag 'projectile'

182-an\physics_collision 'ball', 'wall'

183-an\physics_collision 'ball', 'ball'

184-an\physics_collision 'weapon', 'weapon'

185-an\physics_tag 'projectile_sensor'

186-an\physics_collision 'projectile', 'wall'

187-an\physics_collision 'projectile', 'weapon'

188:an\physics_sensor 'projectile_sensor', 'ball'

189-an\physics_sensor 'projectile_sensor', 'plant_ghost'

190-an\physics_sensor 'weapon_hitbox', 'ball'

191-an\physics_sensor 'weapon_hitbox', 'plant_ghost'

192-an\physics_sensor 'plant_ghost', 'ball'

193-

194--- Render and composite layers

195-draw = ->

196-  bg\render!

197-  back\render!

... [122 more lines]

2700→  hit: (intensity=1, target_type, normal_x, normal_y) =>
  2701→    @spring\pull 'hit', 0.5*intensity, 3, 0.5
  2702→    @flashing = true
  2703→    @timer\after 0.1, -> @flashing = false
  2704→
  2705→    switch target_type
  2706→      when 'wall'
  2707→        if @projectile_type == 'bullet'
  2708→          @bounces -= 1
  2709→          if @bounces < 0
  2710→            @\kill!
  2711→        elseif @projectile_type == 'arrow'
  2712→          angle = @collider\get_angle!
  2713→          -- Flip angle if arrow points outward from wall
  2714→          if math.cos(angle)*normal_x + math.sin(angle)*normal_y < 0
  2715→            angle += math.pi
  2716→          offset = an.random\float(0, 10)
  2717→          @parent.arena.effects\add stuck_arrow @x + offset*math.cos(angle), @y + offset*math.sin(angle), {angle: angle}
  2718→          @\kill!
  2719→      when 'weapon'
  2720→        @bounces -= 1
  2721→        if @bounces < 0
  2722→          @\kill!
  2723→      when 'ball'
  2724→        @\kill!

Let me implement this. I need to:

1. Add the stuck_arrow spawn in the sensor handler (around line 780, after `projectile_object\hit intensity, 'ball'`)
2. Modify the `stuck_arrow` class to handle both wall (static) and ball (following) modes

Wait, the `hit` method for 'ball' case does `@\kill!`. But the sensor handler calls `hit` first, then the arrow is killed. So I need to spawn the stuck_arrow BEFORE `hit` is called (since hit kills the arrow and we need its position/angle), or in the sensor handler after hit but using data captured before.


Actually, I should capture the arrow's position and angle before calling `hit`, since `kill` marks it for removal and I won't have access to that data afterward. I'll grab those values first, then call `hit`, then spawn the stuck_arrow with the captured data. I'm going to capture the arrow's position and angle before calling `hit`, then spawn the stuck_arrow after—this way even if `kill` marks it for removal, I'll have the data I need in the same frame.

Writing the sensor handler... Writing the stuck arrow update logic...

I need to make sure the stuck arrow dies when its parent ball dies—that should happen automatically through the object system's parent-child relationship. I should also initialize the local position and relative angle properties in the constructor. I'm adding local offset fields to track the arrow's position relative to its parent, then updating the update method to calculate the arrow's world position based on the parent's angle and position.

770→    -- Projectile-ball sensor: deal damage
   771→    for event in *an\sensor_begin_events 'projectile_sensor', 'ball'
   772→      projectile_object = event.a  -- projectile_sensor tag
   773→      ball_object = event.b        -- ball tag
   774→
   775→      -- Skip if hitting same team
   776→      continue if ball_object.team == projectile_object.team
   777→
   778→      vx, vy = projectile_object.collider\get_velocity!
   779→      intensity = math.remap math.length(vx, vy), 300, 600, 0, 1
   780→      projectile_object\hit intensity, 'ball'
   781→
   782→      ball_object\take_damage 1
   783→
   784→      -- Track hit for projectile owner
   785→      owner = if projectile_object.team == 'player' then @player_ball else @enemy_ball
   786→      owner.hits_landed += 1
   787→      owner.weapon_ui\landed_hit!
   788→
   789→      -- Bow scaling: +1 arrow per hit
   790→      if owner.weapon_type == 'bow'
   791→        owner.arrows_per_shot += 1
   792→
   793→      -- Spawn star particles at hit location
   794→      x = (projectile_object.x + ball_object.x)/2

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

3137→      effects\image @image, 0, 0
  3138→      effects\pop!
  3139→
  3140→
  3141→
  3142→-- Stuck arrow: visual-only arrow embedded in a wall
  3143→class stuck_arrow extends object
  3144→  new: (@x, @y, args={}) =>
  3145→    super!
  3146→    @angle = args.angle or 0
  3147→    @arrow_scale = 26/512
  3148→    @visible = true
  3149→
  3150→    @\add timer!
  3151→    @timer\after an.random\float(0.9, 1.0), ->

3150→    @\add timer!
  3151→    @timer\after an.random\float(0.9, 1.0), ->
  3152→      @timer\during_step an.random\float(0.6, 0.7), 0.1, 0.03, (-> @visible = not @visible), nil, -> @\kill!
  3153→
  3154→  update: =>
  3155→    if @visible
  3156→      game\push @x, @y, @angle + 3*math.pi/4, @arrow_scale, @arrow_scale
  3157→      game\image an.images.arrow, 0, 0
  3158→      game\pop!
  3159→

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

3142→-- Stuck arrow: visual-only arrow embedded in a wall or ball
  3143→class stuck_arrow extends object
  3144→  new: (@x, @y, args={}) =>
  3145→    super!
  3146→    @angle = args.angle or 0
  3147→    @arrow_scale = 26/512
  3148→    @visible = true
  3149→    @local_x = args.local_x
  3150→    @local_y = args.local_y
  3151→    @relative_angle = args.relative_angle
  3152→
  3153→    @\add timer!
  3154→    @timer\after an.random\float(0.9, 1.0), ->
  3155→      @timer\during_step an.random\float(0.6, 0.7), 0.1, 0.03, (-> @visible = not @visible), nil, -> @\kill!
  3156→
  3157→  update: =>
  3158→    if @local_x
  3159→      ball_angle = @parent.collider\get_angle!
  3160→      @x = @parent.x + @local_x*math.cos(ball_angle) - @local_y*math.sin(ball_angle)
  3161→      @y = @parent.y + @local_x*math.sin(ball_angle) + @local_y*math.cos(ball_angle)
  3162→      @angle = ball_angle + @relative_angle
  3163→
  3164→    if @visible
  3165→      game\push @x, @y, @angle + 3*math.pi/4, @arrow_scale, @arrow_scale
  3166→      game\image an.images.arrow, 0, 0

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

3164→
  3165→    layer = if @local_x then back else game
  3166→    if @visible
  3167→      layer\push @x, @y, @angle + 3*math.pi/4, @arrow_scale, @arrow_scale
  3168→      layer\image an.images.arrow, 0, 0

3168→      layer\image an.images.arrow, 0, 0
  3169→      game\pop!
  3170→

<tool_use_error>Found 7 matches of the string to replace, but replace_all is false. To replace all occurrences, set replace_all to true. To replace only one occurrence, please provide more context to uniquely identify the instance.
String:       game\pop!</tool_use_error>

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

778→      vx, vy = projectile_object.collider\get_velocity!
   779→      intensity = math.remap math.length(vx, vy), 300, 600, 0, 1
   780→
   781→      -- Spawn stuck arrow on ball (capture data before hit kills the projectile)
   782→      if projectile_object.projectile_type == 'arrow'
   783→        arrow_angle = projectile_object.collider\get_angle!
   784→        ball_angle = ball_object.collider\get_angle!
   785→        dx = projectile_object.x - ball_object.x
   786→        dy = projectile_object.y - ball_object.y
   787→        local_x = dx*math.cos(-ball_angle) - dy*math.sin(-ball_angle)
   788→        local_y = dx*math.sin(-ball_angle) + dy*math.cos(-ball_angle)
   789→        ball_object\add stuck_arrow 0, 0, {local_x: local_x, local_y: local_y, relative_angle: arrow_angle - ball_angle}
   790→
   791→      projectile_object\hit intensity, 'ball'
   792→
   793→      ball_object\take_damage 1
   794→
   795→      -- Track hit for projectile owner

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

3132→-- Stuck arrow: visual-only arrow embedded in a wall or ball
  3133→class stuck_arrow extends object
  3134→  new: (@x, @y, args={}) =>
  3135→    super!
  3136→    @angle = args.angle or 0
  3137→    @arrow_scale = 26/512
  3138→    @visible = true
  3139→    @local_x = args.local_x
  3140→    @local_y = args.local_y
  3141→    @relative_angle = args.relative_angle
  3142→
  3143→    @\add timer!
  3144→    if not @local_x
  3145→      @timer\after an.random\float(0.9, 1.0), ->
  3146→        @timer\during_step an.random\float(0.6, 0.7), 0.1, 0.03, (-> @visible = not @visible), nil, -> @\kill!
  3147→
  3148→  update: =>
  3149→    if @local_x
  3150→      ball_angle = @parent.collider\get_angle!
  3151→      @x = @parent.x + @local_x*math.cos(ball_angle) - @local_y*math.sin(ball_angle)
  3152→      @y = @parent.y + @local_x*math.sin(ball_angle) + @local_y*math.cos(ball_angle)
  3153→      @angle = ball_angle + @relative_angle
  3154→
  3155→    layer = if @local_x then back else game
  3156→    if @visible
  3157→      layer\push @x, @y, @angle + 3*math.pi/4, @arrow_scale, @arrow_scale
  3158→      layer\image an.images.arrow, 0, 0
  3159→      layer\pop!
  3160→
  3161→

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The user wants parried arrows to become visual-only objects that fly away and disappear with blinking. Let me look at the projectile-weapon collision handler to understand the current parry flow.

Currently when a projectile hits a weapon:

1. The projectile bounces off (physics collision)
2. `@bounces -= 1`, kills if bounces < 0
3. Arrows have `bounces: 0`, so they die on first weapon hit

The user wants:

- When an arrow is parried (hits a weapon), spawn a visual-only object (like `dying_plant`)
- The visual object's velocity should be based on the weapon's rotation velocity
- Random rotation


- The visual effect should blink rapidly then vanish
- The original arrow projectile gets destroyed

Let me check the projectile-weapon collision handler.

733→
   734→    -- Projectile-weapon collision: parry
   735→    for event in *an\collision_begin_events 'projectile', 'weapon'
   736→      projectile_object = event.a
   737→      ball_object = event.b  -- ball that owns the weapon
   738→
   739→      -- Skip if hitting same team's weapon
   740→      continue if ball_object.team == projectile_object.team
   741→
   742→      -- Only melee weapons can reflect projectiles
   743→      continue if ball_object.weapon_class != 'melee'
   744→
   745→      vx, vy = projectile_object.collider\get_velocity!
   746→      intensity = math.remap math.length(vx, vy), 300, 600, 0, 1
   747→      projectile_object\hit intensity, 'weapon'
   748→
   749→      -- Flash and spring pull on weapon (same as weapon-weapon)
   750→      ball_object\flash_weapon!
   751→      ball_object.spring\pull 'weapon', 0.35, 3, 0.5
   752→
   753→      -- Apply weapon weight to angular velocity: heavier weapons resist rotation changes (quadratic)
   754→      av = ball_object.collider\get_angular_velocity!
   755→      change = av - ball_object.last_angular_velocity
   756→      scaled_change = change / ball_object.weapon_weight^2
   757→      av = ball_object.last_angular_velocity + scaled_change
   758→      ball_object.collider\set_angular_velocity av
   759→
   760→      -- Flip projectile team to reflector's team (can now hit original shooter)
   761→      projectile_object.team = ball_object.team
   762→
... [10 more lines]

828:      weapon_x = attacker.x + attacker.weapon_visual_offset*math.cos(attacker.angle)

829:      weapon_y = attacker.y + attacker.weapon_visual_offset*math.sin(attacker.angle)

854:      weapon_vx = -av * ball_object.weapon_visual_offset * math.sin(ball_object.angle)

1093:      @weapon_visual_offset = 21

1111:      @weapon_visual_offset = 34


[Showing results with pagination = limit: 5, offset: 0]

3119→    -- Move and rotate
  3120→    @x += @vx*dt
  3121→    @y += (@vy + @gravity)*dt
  3122→    @rotation += @rv*dt
  3123→

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

3142→  new: (@x, @y, args={}) =>
  3143→    super!
  3144→    @angle = args.angle or 0
  3145→    @arrow_scale = 26/512
  3146→    @visible = true
  3147→
  3148→    @\add timer!
  3149→    @timer\after an.random\float(0.9, 1.0), ->
  3150→      @timer\during_step an.random\float(0.6, 0.7), 0.1, 0.03, (-> @visible = not @visible), nil, -> @\kill!
  3151→
  3152→  update: =>
  3153→    if @visible
  3154→      game\push @x, @y, @angle + 3*math.pi/4, @arrow_scale, @arrow_scale
  3155→      game\image an.images.arrow, 0, 0
  3156→      game\pop!
  3157→
  3158→
  3159→
  3160→-- Wall class
  3161→class wall extends object

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The user wants me to explain how the deflected arrow's velocity is calculated. Let me walk through the math.

The weapon is attached to a ball that rotates. The weapon tip orbits around the ball center at a distance of `weapon_visual_offset`. The tangential velocity of the weapon tip is perpendicular to the radius vector from ball center to weapon tip.

Ball center: `(ball_object.x, ball_object.y)`
Ball angle: `ball_object.angle`
Angular velocity: `av` (radians/sec)

The weapon tip position relative to ball center:

- `dx = weapon_visual_offset * cos(angle)`


- `dy = weapon_visual_offset * sin(angle)`

For a point rotating around a center, the tangential velocity is perpendicular to the radius. I can derive this by differentiating the position equations with respect to time—the x-component of velocity becomes negative sine times the angular velocity and offset, while the y-component becomes cosine times the angular velocity and offset.

So the deflection velocity at the weapon tip is calculated as the negative sine component for horizontal motion and the cosine component for vertical motion, scaled by the angular velocity and weapon offset. When the weapon points right and rotates counterclockwise (which appears as clockwise on screen since Y increases downward), the velocity points straight down, which makes sense geometrically.

Testing the math with the weapon pointing upward confirms the velocity points rightward in that orientation—the tangential velocity is always perpendicular to the radius and follows the direction of rotation. The deflected arrow inherits this tangential velocity from the weapon tip at the moment of impact.

One consideration: the arrow's original velocity gets completely replaced by the weapon's rotational velocity on parry, which aligns with what was requested. Also, the formula relies on the ball's rotation angle to determine weapon position, so there's no need for a separate weapon angle variable.

3160→-- Deflected arrow: visual-only arrow knocked away by a weapon parry
  3161→class deflected_arrow extends object
  3162→  new: (@x, @y, args={}) =>
  3163→    super!
  3164→    @arrow_scale = 26/512
  3165→    @visible = true
  3166→    @vx = args.vx or 0
  3167→    @vy = args.vy or 0
  3168→    @gravity = 0
  3169→    @rotation = an.random\float(0, 2*math.pi)
  3170→    @rv = an.random\float(-15, 15)
  3171→
  3172→    @\add timer!
  3173→    @timer\during_step 0.4, 0.06, 0.02, (-> @visible = not @visible), nil, -> @\kill!
  3174→
  3175→  update: (dt) =>
  3176→    @vx = math.damping(0.9, 0.5, dt, @vx)
  3177→    @vy = math.damping(0.9, 0.5, dt, @vy)
  3178→    @rv = math.damping(0.9, 0.5, dt, @rv)
  3179→    @gravity += 128*dt
  3180→    @x += @vx*dt
  3181→    @y += (@vy + @gravity)*dt
  3182→    @rotation += @rv*dt
  3183→
  3184→    if @visible

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

Good catch. Looking at the arrow drawing code in the projectile class:

```yuescript
game\push @x, @y, @angle + 3*math.pi/4, arrow_scale*scale, arrow_scale*scale
game\image an.images.arrow, 0, 0
```

The `+ 3*math.pi/4` is there because the arrow image naturally points upper-left, so it needs to be rotated by 3π/4 (135 degrees) to align with angle 0 (pointing right).

In the stuck_arrow class, I use the same `@angle + 3*math.pi/4` offset. 

But in `deflected_arrow`, I'm using `@rotation` directly without this offset, which means the arrow image will be drawn at the wrong angle since it's missing the compensation. I need to add the `+ 3*math.pi/4` offset either in the draw call or bake it into `@rotation` during initialization.

3183→      effects\image an.images.arrow, 0, 0
  3184→      effects\pop!
  3185→
  3186→
  3187→

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The user is saying the deflected arrow's velocity direction is backwards. The tangential velocity calculation gives the velocity of the weapon tip in the direction of rotation. But for a parry/deflect, the arrow should fly away in the opposite direction — it's being hit BY the weapon, so it should go in the direction the weapon is pushing it.

Wait, actually, if the weapon is swinging and hits the arrow, the arrow should go in the direction the weapon tip is moving. But the user says it's backwards/mirrored. Let me think again...

Actually, looking at the tangential velocity formula:

- `deflect_vx = -av * offset * sin(angle)`
- `deflect_vy = av * offset * cos(angle)`


This gives the velocity of the weapon tip itself. When the weapon hits the arrow, the arrow should fly in this direction. But the user mentioned the mirror angle issue — the velocity direction needs to be flipped, so I should negate both components to get the correct deflection direction.

748→      -- Spawn deflected arrow visual before hit kills the projectile
   749→      if projectile_object.projectile_type == 'arrow'
   750→        av = ball_object.collider\get_angular_velocity!
   751→        deflect_vx = -av*ball_object.weapon_visual_offset*math.sin(ball_object.angle)
   752→        deflect_vy = av*ball_object.weapon_visual_offset*math.cos(ball_object.angle)
   753→        @effects\add deflected_arrow projectile_object.x, projectile_object.y, {vx: deflect_vx, vy: deflect_vy}
   754→
   755→      projectile_object\hit intensity, 'weapon'

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

827-      -- Weapon-specific scaling on hit

828:      if attacker.weapon_type == 'dagger'

829-        attacker.base_angular_velocity += attacker.base_angular_velocity_increase_per_hit

830-        attacker.max_angular_velocity = attacker.base_angular_velocity*2

831:      elseif attacker.weapon_type == 'sword' and attacker.thrusting and not attacker.thrust_hit_this_thrust

832-        attacker.thrust_hit_this_thrust = true

--
1085-class ball extends object

1086:  new: (@x, @y, @team, @weapon_type='dagger') =>

1087-    super!


[Showing results with pagination = limit: 10, offset: 0]

286-    -- Create balls

287:    @player_ball = ball @x + @w*0.25, @y + @h/2, 'player', 'bow'

288:    @enemy_ball = ball @x + @w*0.75, @y + @h/2, 'enemy', 'sword'

289-    @\add @player_ball

--
794-      -- Track hit for projectile owner

795:      owner = if projectile_object.team == 'player' then @player_ball else @enemy_ball

796-      owner.hits_landed += 1

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

Let me walk through this more carefully.

The weapon tip orbits around the ball center. At any moment, the weapon tip is at:

- `tip_x = ball.x + offset * cos(θ)`
- `tip_y = ball.y + offset * sin(θ)`

Where `θ = ball_object.angle` (the ball's rotation angle, which determines weapon direction).

The ball is rotating with angular velocity `ω = av`. So `θ` changes over time: `dθ/dt = ω`.

The velocity of the weapon tip is the derivative of position with respect to time:

- `vx = d(tip_x)/dt = -offset * sin(θ) * dθ/dt = -offset * ω * sin(θ)`


- `vy = d(tip_y)/dt = offset * cos(θ) * dθ/dt = offset * ω * cos(θ)`

This gives me the tangential velocity—the direction the weapon tip is actually moving as it orbits. The original code was computing exactly this, but when the user said it felt backwards, we flipped the signs to negate both components.

Now I'm wondering why the negation would be correct. Physically, when a bat hits a ball, the ball should move in the direction the bat is traveling, not opposite. But maybe the issue is how angular velocity is defined in screen coordinates where Y increases downward—positive rotation becomes clockwise, which would flip the expected direction of motion. I'll lay out the derivation step by step so the user can see exactly where the formula comes from and understand why we negated it from the standard tangential velocity formula.

748→      -- Spawn deflected arrow visual before hit kills the projectile
   749→      if projectile_object.projectile_type == 'arrow'
   750→        av = ball_object.collider\get_angular_velocity!
   751→        deflect_vx = av**math.sin(ball_object.angle)
   752→        deflect_vy = -av**math.cos(ball_object.angle)
   753→        print math.length(deflect_vx, deflect_vy)
   754→        @effects\add deflected_arrow projectile_object.x, projectile_object.y, {vx: deflect_vx, vy: deflect_vy}
   755→
   756→      projectile_object\hit intensity, 'weapon'
   757→

I see the user removed `ball_object.weapon_visual_offset*` from the formula - it's now just `av*math.sin(ball_object.angle)`. Let me add the hit_stop after spawning the deflected arrow.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

666-      @\hit_effect event.point_x, event.point_y, hit_multiplier

667:      @\hit_stop 0.1 * math.max(ball_a.hit_stop_multiplier, ball_b.hit_stop_multiplier)

668-      shake_multiplier = math.max(ball_a.camera_shake_multiplier, ball_b.camera_shake_multiplier)

--
754-        @effects\add deflected_arrow projectile_object.x, projectile_object.y, {vx: deflect_vx, vy: deflect_vy}

755:        @\hit_stop 1

756-

--
844-      @\hit_effect effect_x, effect_y, attacker.hit_particle_multiplier

845:      @\hit_stop 0.15*attacker.hit_stop_multiplier


[Showing results with pagination = limit: 10, offset: 0]

It looks like `@\hit_stop` is actually used elsewhere - this is the arena's `hit_stop` method. Let me check what `@` is in this context. Looking at the collision handler, `@` refers to the arena object. And `hit_stop` is a method on the arena. So `@\hit_stop 1` should work.

Wait, let me look more carefully. Line 667 uses `@\hit_stop` and line 845 uses `@\hit_stop`. These are in the same collision handler context. So my `@\hit_stop 1` at line 755 should also work since it's in the same context.


But the user said it won't work, so let me examine the `hit_stop` method definition itself to see what's actually happening.

No matches found

898-      @effects\add hit_circle x, y, {radius: 9*multiplier}

899-      particle_count = math.floor(an.random\int(2, 4)*multiplier)

900-      for i = 1, particle_count

901-        @effects\add hit_particle x, y, {velocity: multiplier*an.random\float(100, 250), duration: multiplier*an.random\float(0.3, 0.5)}

902-

903:  hit_stop: (duration=0.1) =>

904-    probability = @\get_hit_stop_probability!

905-    if an.random\bool 100*probability

906-      an\hit_stop duration

907-    @time_since_last_hit = 0

908-

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

745→      vx, vy = projectile_object.collider\get_velocity!
   746→      intensity = math.remap math.length(vx, vy), 300, 600, 0, 1
   747→
   748→      -- Spawn deflected arrow visual before hit kills the projectile
   749→      if projectile_object.projectile_type == 'arrow'
   750→        av = ball_object.collider\get_angular_velocity!
   751→        deflect_vx = av*math.sin(ball_object.angle)
   752→        deflect_vy = -av*math.cos(ball_object.angle)
   753→        print math.length(deflect_vx, deflect_vy)
   754→        @effects\add deflected_arrow projectile_object.x, projectile_object.y, {vx: deflect_vx, vy: deflect_vy}
   755→        an\hit_stop 1
   756→
   757→      projectile_object\hit intensity, 'weapon'
   758→
   759→      -- Flash and spring pull on weapon (same as weapon-weapon)

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The user wants the arrow's velocity to be reflected off the weapon as if the weapon were a wall. This is a proper reflection.

The weapon acts as a surface. The weapon's direction is along `ball_object.angle`. The surface normal would be perpendicular to the weapon.

For reflection: `v_reflected = v - 2*(v·n)*n` where n is the surface normal.

The weapon extends along angle `θ = ball_object.angle`. The normal to the weapon would be perpendicular: `n = (-sin(θ), cos(θ))` or `(sin(θ), -cos(θ))`.

Then we mix this reflected velocity with the weapon's tangential velocity.


Now I'm implementing the reflection calculation by computing the surface normal perpendicular to the weapon's angle, calculating the dot product to determine how much of the arrow's velocity is perpendicular to the surface, and then reflecting the velocity accordingly before blending it with the weapon's own velocity.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The user wants to know the actual magnitudes we're working with so the comparison/max makes sense.

- **Arrow speed**: This is `math.length(vx, vy)` — the arrow's velocity from the collider. Looking at the arrow spawn code: `velocity: 1` is the impulse applied. But the `intensity` calculation uses `math.remap math.length(vx, vy), 300, 600, 0, 1`, which suggests arrow speeds are in the 300-600 range.

- **Weapon speed**: This is `|av| * weapon_visual_offset`. The angular velocity varies — base starts at `1.5*math.pi` (about 4.7 rad/s) and increases. The weapon_visual_offset is 21 for sword, 34 for dagger. So weapon tip speed would be something like `4.7 * 21 = ~99` for sword at base, or `4.7 * 34 = ~160` for dagger. With higher angular velocities after hits, could be much higher.


Actually, I need to check the current code — the weapon_visual_offset was removed, so now weapon speed is just the angular velocity itself, around 4.7 rad/s. That's completely different from arrow speeds of 300-600, so the 50/50 weighting is essentially letting the arrow speed dominate the calculation.

Looking at the arrow's impulse setup with velocity 1 and density 0.1, the actual speed depends on the resulting mass — with such low density on a small collider, even a small impulse could produce surprisingly high speeds, which matches the 300-600 range the user is seeing.

The real issue is the scale mismatch: weapon speed is currently just the angular velocity magnitude (5-20), while arrow speed is 300-600. If I factor in the weapon visual offset that was removed earlier, the weapon speed would scale up to around 105-420, which would actually be comparable to arrow speeds and might explain why the user expected them to be similar.

748→      -- Spawn deflected arrow visual before hit kills the projectile
   749→      if projectile_object.projectile_type == 'arrow'
   750→        av = ball_object.collider\get_angular_velocity!
   751→        weapon_vx = av*math.sin(ball_object.angle)
   752→        weapon_vy = -av*math.cos(ball_object.angle)
   753→        -- Reflect arrow velocity off weapon surface
   754→        nx = -math.sin(ball_object.angle)
   755→        ny = math.cos(ball_object.angle)
   756→        dot = vx*nx + vy*ny
   757→        reflect_vx = vx - 2*dot*nx
   758→        reflect_vy = vy - 2*dot*ny
   759→        deflect_vx = 0.5*weapon_vx + 0.5*reflect_vx
   760→        deflect_vy = 0.5*weapon_vy + 0.5*reflect_vy
   761→        print math.length(deflect_vx, deflect_vy)
   762→        @effects\add deflected_arrow projectile_object.x, projectile_object.y, {vx: deflect_vx, vy: deflect_vy}

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The user wants to use weapon rotation speed (`|av|`) and arrow speed (`math.length(vx, vy)`) without the weapon_visual_offset. But they're on very different scales (arrow: 48-771, weapon: 1.9-17.4).

So we need to normalize or scale things. The approach could be:

1. Use the reflected arrow direction (which is already correct)
2. Scale the magnitude based on arrow speed and weapon rotation

One approach: use the reflected direction but scale the magnitude. The magnitude could be:

- Base it on arrow speed (since that's the main energy source)
- Scale by how fast the weapon is spinning (faster spin = more forceful deflection)


I'm thinking the cleanest solution is to derive the deflection direction from a blend of the reflected arrow and weapon tangent, then scale the magnitude by arrow speed with a factor tied to weapon rotation speed, applying a minimum floor to ensure there's always some deflection. then use the arrow speed as the magnitude with some scaling. The weapon rotation already affects the direction through the mix.

Let me think about what the user said: "I'd like to just take into account weapon rotation and arrow speed." So:

- The direction is already determined by the reflection + weapon tangent mix
- For the magnitude, use arrow speed as the base, modulated by weapon rotation

Since weapon rotation (|av|) ranges from ~2-17, maybe remap it to a multiplier. Like:

- `speed_multiplier = math.remap(math.abs(av), 0, 20, 0.3, 1.0)` — slow weapon = weaker deflection, fast weapon = full deflection
- `deflect_speed = arrow_speed * speed_multiplier`
- With a min floor

The user wants me to propose options rather than just implement something. I'm thinking the direction should come from the normalized mix of reflected arrow velocity and weapon tangent, with magnitude scaled by weapon rotation. But the weapon tangent without offset is tiny compared to the reflection, so the direction would be almost entirely from reflection. Maybe I should keep the current direction calculation since the 50/50 mix worked well, but ensure both components are comparable in magnitude before mixing them together.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

758→        arrow_speed = math.length(vx, vy)
   759→        speed_multiplier = math.remap(math.abs(av), 0, 20, 0.3, 1.0)
   760→        deflect_speed = arrow_speed*speed_multiplier
   761→        reflect_len = math.length(reflect_vx, reflect_vy)
   762→        deflect_vx = reflect_vx/reflect_len*deflect_speed
   763→        deflect_vy = reflect_vy/reflect_len*deflect_speed
   764→        @effects\add deflected_arrow projectile_object.x, projectile_object.y, {vx: deflect_vx, vy: deflect_vy}
   765→        an\hit_stop 1

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

748→      -- Spawn deflected arrow visual before hit kills the projectile
   749→      if projectile_object.projectile_type == 'arrow'
   750→        av = ball_object.collider\get_angular_velocity!
   751→        -- Reflect arrow velocity off weapon surface
   752→        nx = -math.sin(ball_object.angle)
   753→        ny = math.cos(ball_object.angle)
   754→        dot = vx*nx + vy*ny
   755→        reflect_vx = vx - 2*dot*nx
   756→        reflect_vy = vy - 2*dot*ny
   757→        -- Scale magnitude by weapon rotation speed
   758→        arrow_speed = math.length(vx, vy)
   759→        speed_multiplier = math.remap(math.abs(av), 0, 20, 0.3, 1.0)
   760→        deflect_speed = arrow_speed*speed_multiplier
   761→        reflect_len = math.length(reflect_vx, reflect_vy)
   762→        deflect_vx = reflect_vx/reflect_len*deflect_speed
   763→        deflect_vy = reflect_vy/reflect_len*deflect_speed
   764→        @effects\add deflected_arrow projectile_object.x, projectile_object.y, {vx: deflect_vx, vy: deflect_vy}
   765→
   766→      projectile_object\hit intensity, 'weapon'
   767→
   768→      -- Flash and spring pull on weapon (same as weapon-weapon)
   769→      ball_object\flash_weapon!
   770→      ball_object.spring\pull 'weapon', 0.35, 3, 0.5
   771→
   772→      -- Apply weapon weight to angular velocity: heavier weapons resist rotation changes (quadratic)

2708→      game\pop!
  2709→    elseif @projectile_type == 'arrow'
  2710→      arrow_scale = 26/512
  2711→      game\push @x, @y, @angle + 3*math.pi/4, arrow_scale*scale, arrow_scale*scale
  2712→      game\image an.images.arrow, 0, 0, nil, @flashing and white!
  2713→      game\pop!
  2714→
  2715→    -- Debug draw collider shape
  2716→    debug_draw\push @x, @y, @angle
  2717→    -- debug_draw\rectangle -@w/2, -@h/2, @w, @h, red!
  2718→    debug_draw\pop!
  2719→
  2720→  hit: (intensity=1, target_type, normal_x, normal_y) =>
  2721→    @spring\pull 'hit', 0.5*intensity, 3, 0.5
  2722→    @flashing = true

2725→    switch target_type
  2726→      when 'wall'
  2727→        if @projectile_type == 'bullet'
  2728→          @bounces -= 1
  2729→          if @bounces < 0
  2730→            @\kill!
  2731→        elseif @projectile_type == 'arrow'
  2732→          angle = @collider\get_angle!
  2733→          -- Flip angle if arrow points outward from wall
  2734→          if math.cos(angle)*normal_x + math.sin(angle)*normal_y < 0
  2735→            angle += math.pi
  2736→          offset = an.random\float(0, 10)
  2737→          @parent.arena.effects\add stuck_arrow @x + offset*math.cos(angle), @y + offset*math.sin(angle), {angle: angle}
  2738→          @\kill!
  2739→      when 'weapon'

2739→      when 'weapon'
  2740→        @bounces -= 1
  2741→        if @bounces < 0
  2742→          @\kill!
  2743→      when 'ball'
  2744→        @\kill!
  2745→
  2746→

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The user wants:

1. Arrow velocity multiplied by 1.5x when bouncing off weapon
2. Arrow team switches to parrying player's team (already done for bullets in the collision handler - line ~780 `projectile_object.team = ball_object.team`)

Let me check what already happens in the collision handler for team flipping.

764→        -- @effects\add deflected_arrow projectile_object.x, projectile_object.y, {vx: deflect_vx, vy: deflect_vy}
   765→
   766→      projectile_object\hit intensity, 'weapon'
   767→
   768→      -- Flash and spring pull on weapon (same as weapon-weapon)
   769→      ball_object\flash_weapon!
   770→      ball_object.spring\pull 'weapon', 0.35, 3, 0.5
   771→
   772→      -- Apply weapon weight to angular velocity: heavier weapons resist rotation changes (quadratic)
   773→      av = ball_object.collider\get_angular_velocity!
   774→      change = av - ball_object.last_angular_velocity
   775→      scaled_change = change / ball_object.weapon_weight^2
   776→      av = ball_object.last_angular_velocity + scaled_change
   777→      ball_object.collider\set_angular_velocity av
   778→
   779→      -- Flip projectile team to reflector's team (can now hit original shooter)
   780→      projectile_object.team = ball_object.team
   781→
   782→      -- Sound
   783→      an\sound_play "weapon_projectile_#{an.random\int(1, 2)}", 1.0, an.random\float(0.95, 1.05)

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

Wait, `vx, vy` was captured before the physics collision response. After the collision, the velocity has already been modified by Box2D. I should get the current velocity after the bounce and multiply that. Let me use `projectile_object.collider\get_velocity!` to get the post-bounce velocity.

Actually, `vx, vy` was captured at line 745 before `hit` was called. The physics engine has already resolved the collision by the time we're in `collision_begin_events`, so `vx, vy` might already be the post-bounce velocity. Actually no - `collision_begin_events` fires at the start of contact. The velocity might be pre or post bounce depending on when Box2D resolves it.


I need to grab the velocity fresh from the collider after the physics step has processed the bounce, otherwise I'd be amplifying the pre-collision velocity instead of the actual bounced direction.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

1275-    @\add timer!

1276:    @collider\set_gravity_scale 0

1277-

--
1712-      @thrust_end_speed = math.max(400, @thrust_start_speed + @thrust_speed)

1713:      @collider\set_gravity_scale 0

1714-      @collider\set_bullet true

--
1725-    @collider\set_fixed_rotation false

1726:    @collider\set_gravity_scale 1

1727-    @collider\set_bullet false

--
1831-  start_moving: =>

1832:    @collider\set_gravity_scale 1

1833-    @collider\apply_impulse an.random\sign!*an.random\float(5, 10), an.random\float(-10, 10)

--
2670-      @collider\set_friction 0

2671:      @collider\set_gravity_scale 0.5

2672-      @collider\set_density 0.4

--
2679-      @collider\set_friction 1

2680:      @collider\set_gravity_scale 0

2681-      @collider\set_density 0.1

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The user wants the parried arrow's velocity to never be slower than the base velocity. The arrow's base velocity when fired is the impulse `velocity: 1` applied to a low-density collider. But what's the actual resulting speed?

Looking at the arrow spawn:
```yuescript
@collider\apply_impulse @velocity*math.cos(@direction), @velocity*math.sin(@direction)
```
With `velocity: 1`. But what speed does that actually produce? From the print data, arrow speeds ranged from 48 to 771. The base speed when first fired would be... I'm not sure exactly.

Actually, looking at the `velocity` field - in the projectile constructor, `@velocity = args.velocity or 10`, and for arrows it's `velocity: 1`. 

The impulse magnitude gets converted to actual velocity based on the arrow's mass, which depends on its density and area. Rather than trying to calculate the exact physics, I think the simpler approach is to just ensure the post-parry speed stays at least as fast as it was before the parry, or enforce some reasonable minimum threshold like `max(current_speed * 1.5, some_minimum)`.

But wait—the arrow bounces off the weapon first, and since the arrow has restitution set to 0 (to stick to walls), the physics engine kills almost all its velocity on impact. Then multiplying that near-zero velocity by 1.5 doesn't help. The real fix is to capture the velocity before the bounce happens, manually reflect it based on the weapon's direction, and set that as the new velocity directly instead of relying on the post-bounce physics result.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The user wants to store the arrow's base speed. Since the arrow is impulsed once on creation and doesn't change velocity otherwise (no gravity, no other forces), we can capture the speed shortly after creation. The simplest approach: capture it in the first `update` call of the projectile, since by then the impulse has been applied and the velocity is set.

Or even simpler: just store it as a field on the projectile in the `update` method the first time it runs, or capture it in the constructor after the impulse is applied. But the impulse might not take effect until the next physics step.

Let me look at the projectile constructor - the impulse is applied at the end of `new`. The velocity resulting from the impulse would be available on the next physics step, which is the first `update`.


So I'll grab the velocity magnitude in the projectile's `update` method on the first frame and store it as the base speed, checking if it's already been set to avoid recalculating it.

2695→    -- Visual feedback
  2696→    @\add spring!
  2697→    @spring\add 'hit', 1
  2698→    @spring\pull 'hit', 0.3, 3, 0.5  -- pop on spawn
  2699→
  2700→    @\add timer!
  2701→    @flashing = false
  2702→    if args.flash_on_spawn
  2703→      @flashing = true
  2704→      @timer\after 0.1, -> @flashing = false
  2705→
  2706→  update: (dt) =>
  2707→    -- Update angle to follow velocity
  2708→    vx, vy = @collider\get_velocity!
  2709→    @collider\set_angle math.angle(vx, vy)

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

1→# TODO
     2→
     3→*Items ordered by priority (highest first)*
     4→
     5→This file tracks ideas and future tasks, not active implementation work. Each item should be a self-contained task starting with "- ". Subsections are allowed (indented "- ") but prefer flat, independent tasks over nested structures. The user periodically reorders items so higher priority tasks float to the top. When implementing features, use separate implementation plans rather than this file.
     6→
     7→- Arrows shot increase by 1 on hit (bow scaling)
     8→- Multiple arrows shooting with delay between each
     9→- Arrows stick to walls
    10→- Arrows disappear from walls like plants disappear blinking
    11→- Parried arrows disappear blinking too, and also rotate slowly based on how the parry weapon was moving (same idea as how plants rotate before dying)
    12→- Sounds for bow and sword
    13→- Create letter emoji assets (at minimum: P, B, S, F, K) for status effect identifiers
    14→- Implement status effect line UI class that displays a letter + number using emoji assets with recoloring shader
    15→- Add status effect container to ball class that tracks active effects and their stack counts
    16→- Implement stack consumption logic that triggers the effect and decrements the stack count
    17→- Remove status effect line from display when its stack count reaches zero
    18→- Apply recoloring shader to status effect lines with a distinct color per effect type
    19→- Handle vertical positioning of multiple simultaneous status effect lines above the emoji
    20→- UI effect anti-overlap system: tag all floating UI effects (status_text, emoji_text, damage numbers) as spatial UI elements with a bounding box
    21→- UI effect anti-overlap system: when spawning a new UI element, query all active UI elements for their current bounding boxes and projected positions
    22→- UI effect anti-overlap system: find the closest unoccupied position to the desired spawn point that doesn't visually collide with existing UI elements
    23→- UI effect anti-overlap system: account for movement direction/velocity of existing elements (e.g., emoji_text floats upward) when checking for collisions
    24→- Fencer class: 
    25→  - PASSIVE gains fencing stacks per parry (+1 damage per stack, low duration)
    26→  - ACTIVE triggers lunge attack (like Earclacks' Lance) at X fencing stacks. 
    27→  - Synergizes with duration items - even small duration boosts compound into much higher damage.
    28→- Spellblade class: 
    29→  - PASSIVE: swaps weapons periodically between dagger and staff/wand
    30→  - Dagger deals physical damage, all physical damage applies Ethereal stacks but deals 0 damage. First magical damage with wand pops ethereal stacks and makes target ethereal for [stacks] seconds.
... [4 more lines]

The file E:\a327ex\emoji-ball-battles\todo.md has been updated successfully.

[
  {
    "type": "text",
    "text": "Perfect! Now let me compile all my findings and create a comprehensive report:\n\n## Complete Search Results: Bow Sounds in Emojunky Reference Code\n\nI've thoroughly searched the emojunky-one reference codebase. Here are my findings:\n\n### Location of Emojunky Code\n**E:\\a327ex\\emoji-ball-battles\\reference\\emojunky-one/**\n\n### Bow Implementation Details\n\nThe bow weapon is implemented in **E:\\a327ex\\emoji-ball-battles\\reference\\emojunky-one\\entities.lua** with the following code sections:\n\n1. **Bow State Variables (lines 107-115):**\n   - `self.bow_r` - bow rotation\n   - `self.bow_ox` - bow offset X\n   - `self.bow_pull_ox` - bow pull offset (distance string is pulled)\n   - `self.bow_sx` - bow scale X\n   - `self.bow_cd = 0.6` - cooldown duration\n   - `self.bow_timer = 0.6` - cooldown timer\n   - `self.arrow_r` - arrow rotation\n   - `self.arrow_ox` - arrow offset X\n   - `self.arrow_a` - arrow alpha (visibility)\n\n2. **Bow Logic (lines 331-369):**\n   - Pulling phase (line 342-346): `down_act` trigger, lasts 0.1 seconds\n   - Release phase (line 350-363): `released_act` fires arrow with velocity based on pull distance\n   - Arrow spawn: Uses `EmojiBullet(position, velocity, 0, \"arrow\")`\n\n3. **Bow Drawing (lines 584-594):**\n   - Visual representation of bow and arrow\n   - Displays pulled string line when `self.bow_being_pulled` is true\n\n### Audio Files Available\n\n**E:\\a327ex\\emoji-ball-battles\\reference\\emojunky-one\\res/** contains these audio files:\n\n**Potentially Relevant to Bow:**\n- `attack1.ogg`\n- `shot1.ogg`\n- `josepharaoh99_shot.ogg` (used for gun weapon)\n\n**Other SFX:**\n- `dash1.ogg`\n- `death1.ogg`, `death2.ogg`\n- `enemy_powerup.ogg`\n- `get_item1.ogg`, `get_item2.ogg` (weapon pickup sound)\n- `hit1.ogg`, `hit2.ogg`, `hit3.ogg`\n- `josepharaoh99_hit.ogg`\n- `jump1.ogg`, `jump2.ogg`\n- `LloydEvans09_jump.ogg` (player jump sound)\n- `walk1.ogg`, `walk2.ogg`\n- `wound1.ogg`, `wound2.ogg`\n- `Kubbi_Cascade_music.ogg`\n\n### Bow Sound Findings\n\n**CRITICAL FINDING: The bow weapon in this emojunky reference code has NO associated sound effects.**\n\nThe complete list of `play()` calls in entities.lua is:\n1. `play(\"LloydEvans09_jump\", ...)` - Player jump (line 222)\n2. `play(\"josepharaoh99_shot\", ...)` - Gun weapon (line 253)\n3. `play(\"hit3\", ...)` - Landing impact (line 683)\n4. `play(rng:table({\"walk1\", \"walk2\"}), ...)` - Footsteps (line 684)\n5. `play(\"get_item1\", ...)` - Weapon pickup (line 733)\n6. `play(\"josepharaoh99_hit\", ...)` - Player hit (line 763)\n7. `play(\"enemy_powerup\", ...)` - Enemy powerup (lines 840, 960)\n8. `play(\"hit1\", ...)` - Enemy hit (lines 894, 902, 1000, 1006)\n9. `play(\"wound1\", ...)` - Enemy wound (lines 895, 1001)\n\n**The bow weapon code (lines 331-369) contains NO `play()` calls for:**\n- String pull sound\n- Arrow release sound\n- Arrow fire sound\n- String vibration sound\n\n### Weapons That DO Have Sounds\n\nOnly two weapons have explicit sound effects in this code:\n1. **Gun** (line 253): `play(\"josepharaoh99_shot\", {volume = 0.6})`\n2. **Shrimp**: No explicit sound, but uses same code structure as gun\n\n### What This Means\n\nThe bow implementation is currently **silent** - it has no audio feedback for:\n- Drawing/pulling the string\n- Releasing the arrow\n- Arrow firing\n\nIf you're developing the emojunky bow sound system, you would need to add `play()` calls at:\n- **Line 342** (when player starts pulling): Add string tension/pull sound\n- **Line 350** (when player releases): Add arrow release/fire sound\n\nSuitable existing sounds could be:\n- **For pull**: Could create a new sound or use existing `attack1.ogg` or `dash1.ogg`\n- **For release**: Could use `shot1.ogg` or `josepharaoh99_shot.ogg` (gun sound)"
  },
  {
    "type": "text",
    "text": "agentId: a26bd65 (for resuming to continue this agent's work if needed)\n<usage>total_tokens: 50286\ntool_uses: 24\nduration_ms: 90892</usage>"
  }
]

[
  {
    "type": "text",
    "text": "Now let me create the final comprehensive report with all findings:\n\n## Summary Report: Bow/Arrow Related Sounds in Reference Game Folders\n\nBased on my thorough search of the reference game folders at `E:/a327ex/emoji-ball-battles/reference/`, here are my findings:\n\n### Subdirectories Structure\n\n**Main game reference folders:**\n- `emojunky-one/` - L\u00d6VE engine game with extensive bow/arrow implementation\n- `super emoji box/` - Original version with assets\n- `super-emoji-box/` - Updated version with improved sound structure\n- `super-emoji-invaders/` - Invaders-style game\n- `super-emoji-pairs/` - Memory/pairs game\n- `super-emoji-pop-prototype/` - Pop-style game prototype\n- `emoji-merge-main/` - Merge-style game\n- `archives/` - Historical design documents\n- Plus several markdown reference documents\n\n---\n\n### 1. BOW/ARROW IMPLEMENTATION (Emojunky-One)\n\n**Key Reference File:**\n- `E:/a327ex/emoji-ball-battles/reference/bow-reference.md` - Complete bow design documentation\n\n**Source Code:**\n- `E:/a327ex/emoji-ball-battles/reference/emojunky-one/entities.lua` (lines 107-596, 1046-1206)\n  - Full bow weapon implementation with charging mechanic\n  - Arrow projectile system with wall-stick behavior\n\n**Graphics Assets:**\n- `E:/a327ex/emoji-ball-battles/reference/emojunky-one/res/bow.png`\n- `E:/a327ex/emoji-ball-battles/reference/emojunky-one/res/arrow.png`\n- `E:/a327ex/emoji-ball-battles/reference/emojunky-one/res/bow_and_arrow.png`\n- `E:/a327ex/emoji-ball-battles/reference/emoji-merge-main/assets/curving_arrow.png`\n\n---\n\n### 2. BOW/ARROW SOUND USAGE (Critical Finding)\n\n**IMPORTANT: No dedicated bow/arrow sounds found in emojunky-one**\n\nThe bow firing in `emojunky-one/entities.lua` uses the **gun sound**:\n```lua\n-- Line 253 - Bow fire uses the gun shooting sound\nplay(\"josepharaoh99_shot\", {volume = 0.6})\n```\n\nThis is in the weapon section (lines 331-369) for the bow weapon. The bow release does NOT have a distinct sound - it reuses the gun sound.\n\n**Available projectile/shooting sounds in emojunky-one:**\n- `E:/a327ex/emoji-ball-battles/reference/emojunky-one/res/josepharaoh99_shot.ogg` - Shot/fire sound (used for bow)\n- `E:/a327ex/emoji-ball-battles/reference/emojunky-one/res/shot1.ogg` - Alternative shot sound\n- `E:/a327ex/emoji-ball-battles/reference/emojunky-one/res/attack1.ogg` - Attack sound (not used for bow)\n\n---\n\n### 3. PROJECTILE/SHOOTING SOUNDS ACROSS GAMES\n\n**Super Emoji Box (v1 & v2):**\n- `E:/a327ex/emoji-ball-battles/reference/super emoji box/assets/`\n  - `revolver_shot1.ogg`, `revolver_shot2.ogg`, `revolver_shot3.ogg` - Gun firing (3 variations)\n  - `dagger_thrown1.ogg`, `dagger_thrown2.ogg` - Melee weapon throw\n  - `dagger_wall.ogg` - Projectile hits wall\n  - `fire_projectile_release1.ogg` - Fire projectile release\n  - `enemy_shoot.ogg` - Enemy firing projectile\n\n**Emojunky-One Sound Mapping:**\n- Line 253: `play(\"josepharaoh99_shot\", {volume = 0.6})` - Gun/bow fire\n- Line 222: Jump sound also available for comparison\n\n---\n\n### 4. SOUND CODE PATTERNS\n\n**Emojunky-One (using ripple audio library):**\n```lua\nplay(\"sound_name\", {volume = 0.6, pitch = rng:float(0.95, 1.05)})\n```\n\n**Super Emoji Pop Prototype (using anchor framework):**\n```lua\nsounds.enemy_shoot:play(0.25, random:float(0.95, 1.05))\n```\n\n---\n\n### 5. CANDIDATE SOUNDS FOR BOW/ARROW IN EBB\n\nBased on the sound_mapping.md (line 152-163), when implementing bow sounds for Emoji Ball Battles:\n\n**For bow firing/release:**\n- `fire_projectile_release1.ogg` (specifically designed for projectile release)\n- `revolver_shot1-3.ogg` (punchy shot sounds)\n- `josepharaoh99_shot.ogg` (currently used in emojunky-one)\n\n**For arrow hitting wall:**\n- `dagger_wall.ogg` (wall impact)\n- `grass_impact1-3.ogg` (surface impact variations)\n- `fire_projectile_impact1.ogg` (projectile-specific impact)\n\n**For arrow hitting enemy:**\n- `enemy_hit.ogg` (standard enemy damage)\n- `fire_projectile_impact1.ogg` (projectile impact)\n\n**For bow string sounds (not found but could be created):**\n- `fire_projectile_release1.ogg` is the closest existing sound for a \"tension release\" mechanic\n\n---\n\n### 6. COMPLETE SOUND FILE INVENTORY\n\n**Emojunky-One `/res/`** (21 audio files):\n`attack1.ogg`, `dash1.ogg`, `death1.ogg`, `death2.ogg`, `enemy_powerup.ogg`, `get_item1.ogg`, `get_item2.ogg`, `hit1.ogg`, `hit2.ogg`, `hit3.ogg`, `josepharaoh99_hit.ogg`, `josepharaoh99_shot.ogg`, `jump1.ogg`, `jump2.ogg`, `Kubbi_Cascade_music.ogg`, `LloydEvans09_jump.ogg`, `shot1.ogg`, `walk1.ogg`, `walk2.ogg`, `wound1.ogg`, `wound2.ogg`\n\n**Super Emoji Box `/assets/`** (62 audio files):\nOrganized by category: burn, cloud, coin, dagger, enemy, fire projectile, grass, lightning, UI, RPG sounds, etc.\n\n**Super Emoji Box (v2) `/assets/sounds/`** (24 audio files):\nCleaner subset with added `wood_impact` variants and `music_kubbi_cascade.ogg`\n\n**Super Emoji Invaders/Pairs/Pop `/assets/sounds/`:**\nIdentical or similar to Super Emoji Box with 47-62 sound files\n\n---\n\n### 7. KEY INSIGHTS\n\n1. **No dedicated bow sounds exist** - Emojunky-one reuses gun firing sound for bow\n2. **Bow charging is silent** - Only visual feedback (pull animation) during charge\n3. **String/twang sounds missing** - Not present in any reference game\n4. **Best candidates for EBB bow:**\n   - Fire on release: `fire_projectile_release1.ogg` or `josepharaoh99_shot.ogg`\n   - Arrow on wall: `dagger_wall.ogg` + `grass_impact1-3.ogg`\n   - Arrow on enemy: `enemy_hit.ogg`\n5. **Volume patterns:** Projectile sounds typically 0.25-0.6 volume with 0.95-1.05 pitch variation\n\n---\n\n### File Paths (Absolute)\n\n- Bow reference doc: `E:/a327ex/emoji-ball-battles/reference/bow-reference.md`\n- Sound mapping doc: `E:/a327ex/emoji-ball-battles/reference/sound_mapping.md`\n- Bow implementation: `E:/a327ex/emoji-ball-battles/reference/emojunky-one/entities.lua`\n- Emojunky sounds: `E:/a327ex/emoji-ball-battles/reference/emojunky-one/res/`\n- Super Emoji Box sounds: `E:/a327ex/emoji-ball-battles/reference/super emoji box/assets/`\n- Super Emoji Box v2 sounds: `E:/a327ex/emoji-ball-battles/reference/super-emoji-box/assets/sounds/`"
  },
  {
    "type": "text",
    "text": "agentId: aa8eed0 (for resuming to continue this agent's work if needed)\n<usage>total_tokens: 54434\ntool_uses: 33\nduration_ms: 119712</usage>"
  }
]

Let me first look at what .wav files are in the assets folder, and then look at how sounds are loaded in main.yue to understand the normalization pattern.

E:\a327ex\emoji-ball-battles\assets\Bow string drawing fast 2.wav
E:\a327ex\emoji-ball-battles\assets\Drawing Bow Backwards 6.wav
E:\a327ex\emoji-ball-battles\assets\Drawing Bow Backwards 9.wav
E:\a327ex\emoji-ball-battles\assets\Light Sword Swing 2.wav
E:\a327ex\emoji-ball-battles\assets\Light Sword Swing 3.wav
E:\a327ex\emoji-ball-battles\assets\Light Sword Swing 14.wav
E:\a327ex\emoji-ball-battles\assets\Light Sword Swing 9.wav
E:\a327ex\emoji-ball-battles\assets\Releasing Bow String 1.wav
E:\a327ex\emoji-ball-battles\assets\Releasing Bow String 2.wav
E:\a327ex\emoji-ball-battles\assets\Releasing Bow String 8.wav

142---   dagger_swing_5 (swing_10): -29.1 dB → 0.9

143:an\sound 'ball_ball', 'assets/ball_wall.ogg'

144:an\sound 'ball_wall', 'assets/ball_wall.ogg'

145:an\sound 'dagger_dagger', 'assets/dagger_dagger.ogg'

146:an\sound 'dagger_wall', 'assets/dagger_wall.ogg'

147:an\sound 'dagger_ball', 'assets/dagger_ball.ogg'

148:an\sound 'gun_fire_1', 'assets/revolver_shot1.ogg'

149:an\sound 'gun_fire_2', 'assets/revolver_shot2.ogg'

150:an\sound 'gun_fire_3', 'assets/revolver_shot3.ogg'

151:an\sound 'weapon_projectile_1', 'assets/metal_light_2.ogg'

152:an\sound 'weapon_projectile_2', 'assets/metal_light_4.ogg'

153:an\sound 'player_hit', 'assets/player_hit.ogg'

154:an\sound 'player_death', 'assets/player_death.ogg'

155:an\sound 'grass_land_1', 'assets/grass_land1.ogg'

156:an\sound 'grass_land_2', 'assets/grass_land2.ogg'

157:an\sound 'grass_land_3', 'assets/grass_land3.ogg'

158:an\sound 'grass_impact_1', 'assets/grass_impact1.ogg'

159:an\sound 'grass_impact_2', 'assets/grass_impact2.ogg'

160:an\sound 'grass_impact_3', 'assets/grass_impact3.ogg'

161:an\sound 'hop', 'assets/hop.ogg'

162:an\sound 'concrete_1', 'assets/concrete_2.ogg'

163:an\sound 'concrete_2', 'assets/concrete_5.ogg'

164:an\sound 'concrete_3', 'assets/concrete_8.ogg'

165:an\sound 'dagger_swing_1', 'assets/dagger_swing_1.ogg'

166:an\sound 'dagger_swing_2', 'assets/dagger_swing_2.ogg'

167:an\sound 'dagger_swing_3', 'assets/dagger_swing_8.ogg'

168:an\sound 'dagger_swing_4', 'assets/dagger_swing_9.ogg'

169:an\sound 'dagger_swing_5', 'assets/dagger_swing_10.ogg'

170-an\music 'bgm', 'assets/batoru_umi_to_mamono_no_kodomo_tachi.ogg'

120→--   ball_ball (suicchi_wo_osu): -16.7 dB → 0.22
   121→--   ball_wall: -21.2 dB → 0.36
   122→--   dagger_dagger: -16.5 dB → 0.22 (unused)
   123→--   dagger_wall: -24.1 dB → 0.5
   124→--   dagger_ball: -28.7 dB → 0.7
   125→--   gun_fire_1 (revolver_shot1): -24.7 dB → 0.54
   126→--   gun_fire_2 (revolver_shot2): -24.9 dB → 0.56
   127→--   gun_fire_3 (revolver_shot3): -23.3 dB → 0.46
   128→--   weapon_projectile_1 (metal_light_2): -30.0 dB → 1.0
   129→--   weapon_projectile_2 (metal_light_4): -30.5 dB → 1.0
   130→--   player_hit: -8.3 dB → 0.08
   131→--   player_death: -19.9 dB → 0.35
   132→--   grass_land_1/2/3: ~-45.5 dB → 1.0
   133→--   grass_impact_1/2/3: ~-29.5 dB → 0.5
   134→--   hop: -10.3 dB → 0.12
   135→--   concrete_1 (concrete_2): -31.7 dB → 0.8
   136→--   concrete_2 (concrete_5): -26.9 dB → 0.7
   137→--   concrete_3 (concrete_8): -28.9 dB → 0.8
   138→--   dagger_swing_1: -32.8 dB → 1.0
   139→--   dagger_swing_2: -26.4 dB → 0.66
   140→--   dagger_swing_3 (swing_8): -26.4 dB → 0.66
   141→--   dagger_swing_4 (swing_9): -25.1 dB → 0.57
   142→--   dagger_swing_5 (swing_10): -29.1 dB → 0.9
   143→an\sound 'ball_ball', 'assets/ball_wall.ogg'
   144→an\sound 'ball_wall', 'assets/ball_wall.ogg'

File content (60456 tokens) exceeds maximum allowed tokens (25000). Please use offset and limit parameters to read specific portions of the file, or use the GrepTool to search for specific content.

<persisted-output>
Output too large (30.4KB). Full output saved to: C:\Users\adn\.claude\projects\E--a327ex\72e892ad-1814-45ff-873e-58b40ba6d2e0\tool-results\toolu_01UQr9zepuAL3prV9JubmB9w.txt

Preview (first 2KB):
14-- Renamed Japanese sound files from emoji-merge to romanized names (ぷよん.ogg → puyon.ogg, etc.)

15-- Tested multiple candidates for weapon-weapon collision (dagger_crit2 vs dagger_wall), ball-ball collision (puyon vs suicchi_wo_osu)

16-

17-**Audio File Conversion:**

18-- Installed FFmpeg via winget, copied to ~/bin for PATH access

19:- Converted WAV files to OGG with maximum quality (`-c:a libvorbis -q:a 10`)

20-- Converted: Metal Heavy 2/6, Concrete 2/5/8, Metal Light 2/4, Dagger Swing 1/2/8/9/10

21-

22-**Volume Normalization System:**

23:- Used FFmpeg volumedetect to analyze dB levels of all sounds

24:- Established -24 dB as baseline for normalized volume calculations

25-- Created importance tiers: Most (1.25x), Medium (1.0x), Low (0.75x)

26-- Most important: gun_fire, dagger_wall, dagger_ball, weapon_projectile, player_death

27-- Medium: concrete, grass_land, grass_impact, hop

28-- Low: ball_ball, ball_wall

29:- Added normalized values as comments in main.yue for future reference

30-

31-**Bug Fixes:**

32-- Fixed player_hit sound playing for enemies (should only play for player)

33-- Fixed grass_impact playing after plants destroyed (added radius check for nearby plants)

34-- Changed dagger_ball to play in take_damage for all hits, removed duplicate calls in collision handlers

--
651-> I think this is it for now. Let's first figure out how to convert to ogg programmatically. Tell me how you'd approach it.

652-

653-The standard approach is **FFmpeg** - it can convert almost any audio format to OGG (Vorbis).

654-

... [13 more lines]

16-

17-**Audio File Conversion:**

18-- Installed FFmpeg via winget, copied to ~/bin for PATH access

19:- Converted WAV files to OGG with maximum quality (`-c:a libvorbis -q:a 10`)

20-- Converted: Metal Heavy 2/6, Concrete 2/5/8, Metal Light 2/4, Dagger Swing 1/2/8/9/10

21-

22-**Volume Normalization System:**

23:- Used FFmpeg volumedetect to analyze dB levels of all sounds

24-- Established -24 dB as baseline for normalized volume calculations

25-- Created importance tiers: Most (1.25x), Medium (1.0x), Low (0.75x)

26-- Most important: gun_fire, dagger_wall, dagger_ball, weapon_projectile, player_death

--
664-**Option 1: Install FFmpeg**

665-- Download from https://ffmpeg.org/download.html (Windows builds)

666-- Or via `winget install ffmpeg` / `choco install ffmpeg` if you have those package managers

667:- Then convert with: `ffmpeg -i metal_heavy_2.wav -c:a libvorbis -q:a 5 metal_heavy_2.ogg`

668-

669-**Option 2: Online converter**

670-- Sites like cloudconvert.com or convertio.co can batch convert WAV/MP3 to OGG

--
728-Found them - `Metal Heavy 2.wav` and `Metal Heavy 6.wav`. Let me convert them:

729-

730-<details>

731:<summary><code>Bash ("/c/Users/adn/AppData/Local/Microsoft/WinGet/Links/ffmpeg.exe" -i "E:/a327ex/emo...)</code></summary>

732-

733-<pre><code>The user doesn't want to proceed with this tool use. The tool use was rejected (eg. if it was a file edit, the new_string was NOT written to the file). To tell you how to proceed, the user said:

734-Convert with maximum possible quality.</code></pre>

--
736-</details>

737-

... [32 more lines]

14-- Renamed Japanese sound files from emoji-merge to romanized names (ぷよん.ogg → puyon.ogg, etc.)

15-- Tested multiple candidates for weapon-weapon collision (dagger_crit2 vs dagger_wall), ball-ball collision (puyon vs suicchi_wo_osu)

16-

17-**Audio File Conversion:**

18-- Installed FFmpeg via winget, copied to ~/bin for PATH access

19-- Converted WAV files to OGG with maximum quality (`-c:a libvorbis -q:a 10`)

20-- Converted: Metal Heavy 2/6, Concrete 2/5/8, Metal Light 2/4, Dagger Swing 1/2/8/9/10

21-

22-**Volume Normalization System:**

23-- Used FFmpeg volumedetect to analyze dB levels of all sounds

24:- Established -24 dB as baseline for normalized volume calculations

25:- Created importance tiers: Most (1.25x), Medium (1.0x), Low (0.75x)

26-- Most important: gun_fire, dagger_wall, dagger_ball, weapon_projectile, player_death

27-- Medium: concrete, grass_land, grass_impact, hop

28-- Low: ball_ball, ball_wall

29-- Added normalized values as comments in main.yue for future reference

30-

31-**Bug Fixes:**

32-- Fixed player_hit sound playing for enemies (should only play for player)

33-- Fixed grass_impact playing after plants destroyed (added radius check for nearby plants)

34-- Changed dagger_ball to play in take_damage for all hits, removed duplicate calls in collision handlers

35-

--
177-E:\a327ex\emoji-ball-battles\reference\emojunky-one\entities.lua-731-      self.weapon = other.weapon


178-E:\a327ex\emoji-ball-battles\reference\emojunky-one\entities.lua-732-      table.insert(effects, InfoText(other.x, other.y - 12, other.weapon))


179-E:\a327ex\emoji-ball-battles\reference\emojunky-one\entities.lua:733:      play("get_item1", {volume = 0.65})


180---

181-E:\a327ex\emoji-ball-battles\reference\emojunky-one\entities.lua-761-   camera:shake(4, 0.4)


182-E:\a327ex\emoji-ball-battles\reference\emojunky-one\entities.lua-762-   slow(1, 0.5)


183-E:\a327ex\emoji-ball-battles\reference\emojunky-one\entities.lua:763:   play("josepharaoh99_hit", {volume = 0.6})


... [52 more lines]

13-- User selected sounds one-by-one through iterative testing

14-- Renamed Japanese sound files from emoji-merge to romanized names (ぷよん.ogg → puyon.ogg, etc.)

15-- Tested multiple candidates for weapon-weapon collision (dagger_crit2 vs dagger_wall), ball-ball collision (puyon vs suicchi_wo_osu)

16-

17-**Audio File Conversion:**

18-- Installed FFmpeg via winget, copied to ~/bin for PATH access

19-- Converted WAV files to OGG with maximum quality (`-c:a libvorbis -q:a 10`)

20-- Converted: Metal Heavy 2/6, Concrete 2/5/8, Metal Light 2/4, Dagger Swing 1/2/8/9/10

21-

22-**Volume Normalization System:**

23:- Used FFmpeg volumedetect to analyze dB levels of all sounds

24:- Established -24 dB as baseline for normalized volume calculations

25-- Created importance tiers: Most (1.25x), Medium (1.0x), Low (0.75x)

26-- Most important: gun_fire, dagger_wall, dagger_ball, weapon_projectile, player_death

27-- Medium: concrete, grass_land, grass_impact, hop

28-- Low: ball_ball, ball_wall

29-- Added normalized values as comments in main.yue for future reference

30-

31-**Bug Fixes:**

32-- Fixed player_hit sound playing for enemies (should only play for player)

33-- Fixed grass_impact playing after plants destroyed (added radius check for nearby plants)

34-- Changed dagger_ball to play in take_damage for all hits, removed duplicate calls in collision handlers

35-

36-**Dagger Swing Sound System:**

37-- Tracks angular velocity to detect fast rotation (>3.5x base angular velocity)

38-- First sound triggers at 0.07 rotation after fast spin starts

39-- Subsequent sounds every full rotation, maximum 3 total

40-- Resets when dropping below threshold

41-

42-**Ball-Wall Pitch Modulation:**

... [12 more lines]

9-- Created `reference/sound_mapping.md` documenting all candidate sounds for each game event

10-- Identified 16 potential sound events in EBB codebase

11-

12-**Sound Selection and Testing:**

13-- User selected sounds one-by-one through iterative testing

14-- Renamed Japanese sound files from emoji-merge to romanized names (ぷよん.ogg → puyon.ogg, etc.)

15-- Tested multiple candidates for weapon-weapon collision (dagger_crit2 vs dagger_wall), ball-ball collision (puyon vs suicchi_wo_osu)

16-

17-**Audio File Conversion:**

18-- Installed FFmpeg via winget, copied to ~/bin for PATH access

19-- Converted WAV files to OGG with maximum quality (`-c:a libvorbis -q:a 10`)

20-- Converted: Metal Heavy 2/6, Concrete 2/5/8, Metal Light 2/4, Dagger Swing 1/2/8/9/10

21-

22-**Volume Normalization System:**

23-- Used FFmpeg volumedetect to analyze dB levels of all sounds

24:- Established -24 dB as baseline for normalized volume calculations

25:- Created importance tiers: Most (1.25x), Medium (1.0x), Low (0.75x)

26-- Most important: gun_fire, dagger_wall, dagger_ball, weapon_projectile, player_death

27-- Medium: concrete, grass_land, grass_impact, hop

28-- Low: ball_ball, ball_wall

29-- Added normalized values as comments in main.yue for future reference

30-

31-**Bug Fixes:**

32-- Fixed player_hit sound playing for enemies (should only play for player)

33-- Fixed grass_impact playing after plants destroyed (added radius check for nearby plants)

34-- Changed dagger_ball to play in take_damage for all hits, removed duplicate calls in collision handlers

35-

36-**Dagger Swing Sound System:**

37-- Tracks angular velocity to detect fast rotation (>3.5x base angular velocity)

38-- First sound triggers at 0.07 rotation after fast spin starts

... [52 more lines]

1803-

1804-Here's the analysis sorted by mean volume (perceived loudness):

1805-

1806-| Sound | Mean Vol | Max Vol | Current | Issue |

1807-|-------|----------|---------|---------|-------|

1808-| player_hit | -8.3 dB | -2.1 dB | (off) | Very loud |

1809-| hop | -10.3 dB | 0.0 dB | 0.5 | Very loud |

1810-| suicchi_wo_osu | -16.7 dB | -6.5 dB | 0.5 | Loud |

1811-| player_death | -19.9 dB | 0.0 dB | 0.5 | Slightly loud |

1812-| ball_wall | -21.2 dB | -2.8 dB | 0.5 | Slightly loud |

1813:| revolver_shot3 | -23.3 dB | 0.0 dB | 0.5 | ~baseline |

1814:| dagger_wall | -24.1 dB | 0.0 dB | 0.5 | ~baseline |

1815:| revolver_shot1 | -24.7 dB | -0.2 dB | 0.5 | ~baseline |

1816:| revolver_shot2 | -24.9 dB | -0.3 dB | 0.5 | ~baseline |

1817-| metal_heavy_2 | -26.7 dB | -4.3 dB | 0.5 | Slightly quiet |

1818-| concrete_5 | -26.9 dB | -4.8 dB | 0.5 | Slightly quiet |

1819-| dagger_ball | -28.7 dB | -1.4 dB | 0.5 | Quiet |

1820-| grass_impact1-3 | ~-29.5 dB | ~-3.0 dB | 0.3 | Quiet |

1821-| concrete_8 | -28.9 dB | -5.2 dB | 0.5 | Quiet |

1822-| metal_heavy_6 | -29.0 dB | -0.4 dB | 0.5 | Quiet |

1823-| concrete_2 | -31.7 dB | -6.4 dB | 0.5 | Very quiet |

1824-| grass_land1-3 | ~-45.5 dB | ~-22.4 dB | 0.3 | Extremely quiet |

1825-

1826-**Suggested normalized volumes** (using ~-24 dB as baseline):

--
2014-

2015-You're right, let me think about this properly.

2016-

2017-The normalized volumes we have now represent **equal perceived loudness** - a sound at 0.22 should sound as loud as another at 0.7 because we compensated for their raw dB differences.

2018-

... [38 more lines]

3051-> 2. Key Technical Concepts:

3052->    - FFmpeg audio conversion (WAV to OGG with `-c:a libvorbis -q:a 10` for max quality)

3053->    - Sound volume normalization using mean_volume dB analysis

3054->    - Importance-based volume scaling with multipliers

3055->    - Angular velocity tracking for triggering rotation-based sounds

3056->    - Pitch modulation based on collision intensity

3057->    - YueScript syntax for game development with Anchor framework

3058->    - `an\sound(name, path)` and `an\sound_play(name, volume, pitch)` API

3059-> 

3060-> 3. Files and Code Sections:

3061->    - **E:\a327ex\emoji-ball-battles\main.yue**

3062->      - Main game file containing all sound loading and playback logic

3063->      - Added normalized volume comments at top of sounds section:

3064->      ```yuescript

3065->      -- Sounds

3066:>      -- Normalized volumes (baseline -24 dB, 0.5 base volume):

3067->      --   ball_ball (suicchi_wo_osu): -16.7 dB → 0.22

3068->      --   ball_wall: -21.2 dB → 0.36

3069->      --   dagger_wall: -24.1 dB → 0.5

3070->      --   dagger_ball: -28.7 dB → 0.7

3071->      --   gun_fire_1\2\3: ~-24 dB → ~0.5

3072->      --   weapon_projectile_1\2 (metal_light): ~-30 dB → 1.0

3073->      --   player_hit: -8.3 dB → 0.08

3074->      --   player_death: -19.9 dB → 0.35

3075->      --   grass_land_1\2\3: ~-45.5 dB → 1.0

3076->      --   grass_impact_1\2\3: ~-29.5 dB → 0.5

3077->      --   hop: -10.3 dB → 0.12

3078->      --   concrete_1\2\3: ~0.7-0.8

3079->      --   dagger_swing_1-5: 0.57-1.0

3080->      ```

... [1 more lines]

OK, I have enough information now. The normalization system:

1. **Measure**: Use `ffmpeg -i file.ogg -af volumedetect -f null /dev/null` to get `mean_volume` in dB
2. **Baseline**: -24 dB = 0.5 volume
3. **Formula**: The relationship is that for each dB difference from -24, scale proportionally. Looking at the data:
   - -24 dB → 0.5 (baseline)
   - -16.7 dB → 0.22 (louder file, lower volume)
   - -30 dB → 1.0 (quieter file, higher volume)

I think I've got the formula: `volume = 0.5 * 10^((baseline_dB - mean_dB) / 20)`. Let me check this against the data points to make sure it holds up.

Verifying the formula across all the samples... The formula checks out, so I'm ready to process the audio files. I'll convert them to OGG format with Vorbis encoding, rename them to follow underscore and lowercase conventions, remove the originals, measure their loudness in decibels, and then calculate the normalized volume values for each one. I'm mapping out the conversion workflow: first I'll convert all these audio files from WAV to OGG format, then verify the conversions worked properly, and finally clean up the original files.

      ISRC            : Switch Plus � NCH Software

[out#0/ogg @ 00000200e0656e40] video:0KiB audio:41KiB subtitle:0KiB other streams:0KiB global headers:4KiB muxing overhead: 10.696452%

size=      45KiB time=00:00:01.07 bitrate= 346.0kbits/s speed=27.2x elapsed=0:00:00.03    

      ISRC            : Switch Plus � NCH Software

[out#0/ogg @ 00000244e6746f40] video:0KiB audio:43KiB subtitle:0KiB other streams:0KiB global headers:4KiB muxing overhead: 10.010355%

size=      48KiB time=00:00:00.96 bitrate= 405.5kbits/s speed=35.6x elapsed=0:00:00.02    

      ISRC            : Switch Plus � NCH Software

[out#0/ogg @ 00000249e88a6f40] video:0KiB audio:43KiB subtitle:0KiB other streams:0KiB global headers:4KiB muxing overhead: 10.169686%

size=      47KiB time=00:00:00.96 bitrate= 399.1kbits/s speed=39.6x elapsed=0:00:00.02    

      ISRC            : Switch Plus � NCH Software

[out#0/ogg @ 00000206e4949ac0] video:0KiB audio:25KiB subtitle:0KiB other streams:0KiB global headers:4KiB muxing overhead: 16.936930%

size=      29KiB time=00:00:00.54 bitrate= 444.3kbits/s speed=29.5x elapsed=0:00:00.01    

      ISRC            : Switch Plus � NCH Software

[out#0/ogg @ 000001f5e24a9ac0] video:0KiB audio:22KiB subtitle:0KiB other streams:0KiB global headers:4KiB muxing overhead: 19.616272%

size=      26KiB time=00:00:00.54 bitrate= 391.5kbits/s speed=31.2x elapsed=0:00:00.01    

      ISRC            : Switch Plus � NCH Software

[out#0/ogg @ 00000240e965a3c0] video:0KiB audio:24KiB subtitle:0KiB other streams:0KiB global headers:4KiB muxing overhead: 17.650169%

size=      28KiB time=00:00:00.54 bitrate= 428.4kbits/s speed=28.7x elapsed=0:00:00.01    

      ISRC            : Switch Plus � NCH Software

[out#0/ogg @ 0000024913fb9ac0] video:0KiB audio:23KiB subtitle:0KiB other streams:0KiB global headers:4KiB muxing overhead: 18.398268%

size=      27KiB time=00:00:00.54 bitrate= 413.2kbits/s speed=31.9x elapsed=0:00:00.01    

      ISRC            : Switch Plus � NCH Software

[out#0/ogg @ 000001f19526ce40] video:0KiB audio:30KiB subtitle:0KiB other streams:0KiB global headers:4KiB muxing overhead: 14.315556%

size=      34KiB time=00:00:00.86 bitrate= 325.2kbits/s speed=42.5x elapsed=0:00:00.02    

      ISRC            : Switch Plus � NCH Software

[out#0/ogg @ 000002442d7b6f40] video:0KiB audio:39KiB subtitle:0KiB other streams:0KiB global headers:4KiB muxing overhead: 11.320468%

size=      43KiB time=00:00:01.48 bitrate= 236.9kbits/s speed=53.6x elapsed=0:00:00.02    

      ISRC            : Switch Plus � NCH Software

[out#0/ogg @ 00000297290a6f40] video:0KiB audio:24KiB subtitle:0KiB other streams:0KiB global headers:4KiB muxing overhead: 17.743684%

size=      29KiB time=00:00:01.48 bitrate= 157.8kbits/s speed=62.2x elapsed=0:00:00.02

=== bow_string_drawing_fast_2.ogg ===
[Parsed_volumedetect_0 @ 0000029330e26800] mean_volume: -38.9 dB
=== drawing_bow_backwards_6.ogg ===
[Parsed_volumedetect_0 @ 000002e2f9af6800] mean_volume: -40.6 dB
=== drawing_bow_backwards_9.ogg ===
[Parsed_volumedetect_0 @ 000001792d096800] mean_volume: -42.3 dB
=== light_sword_swing_2.ogg ===
[Parsed_volumedetect_0 @ 0000021062426800] mean_volume: -28.3 dB
=== light_sword_swing_3.ogg ===
[Parsed_volumedetect_0 @ 000001cf87046800] mean_volume: -29.7 dB
=== light_sword_swing_14.ogg ===
[Parsed_volumedetect_0 @ 000002561bce6800] mean_volume: -29.7 dB
=== light_sword_swing_9.ogg ===
[Parsed_volumedetect_0 @ 000001e91c2b6800] mean_volume: -30.0 dB
=== releasing_bow_string_1.ogg ===
[Parsed_volumedetect_0 @ 0000016113216800] mean_volume: -34.3 dB
=== releasing_bow_string_2.ogg ===
[Parsed_volumedetect_0 @ 0000020674096800] mean_volume: -35.4 dB
=== releasing_bow_string_8.ogg ===
[Parsed_volumedetect_0 @ 0000021d94a56800] mean_volume: -34.0 dB

115→-- Spritesheets
   116→an\spritesheet 'hit1', 'assets/hit1.png', 96, 48
   117→
   118→-- Sounds
   119→-- Normalized volumes (baseline -24 dB, 0.5 base volume):
   120→--   ball_ball (suicchi_wo_osu): -16.7 dB → 0.22
   121→--   ball_wall: -21.2 dB → 0.36
   122→--   dagger_dagger: -16.5 dB → 0.22 (unused)
   123→--   dagger_wall: -24.1 dB → 0.5
   124→--   dagger_ball: -28.7 dB → 0.7
   125→--   gun_fire_1 (revolver_shot1): -24.7 dB → 0.54
   126→--   gun_fire_2 (revolver_shot2): -24.9 dB → 0.56
   127→--   gun_fire_3 (revolver_shot3): -23.3 dB → 0.46
   128→--   weapon_projectile_1 (metal_light_2): -30.0 dB → 1.0
   129→--   weapon_projectile_2 (metal_light_4): -30.5 dB → 1.0
   130→--   player_hit: -8.3 dB → 0.08
   131→--   player_death: -19.9 dB → 0.35
   132→--   grass_land_1/2/3: ~-45.5 dB → 1.0
   133→--   grass_impact_1/2/3: ~-29.5 dB → 0.5
   134→--   hop: -10.3 dB → 0.12
   135→--   concrete_1 (concrete_2): -31.7 dB → 0.8
   136→--   concrete_2 (concrete_5): -26.9 dB → 0.7
   137→--   concrete_3 (concrete_8): -28.9 dB → 0.8
   138→--   dagger_swing_1: -32.8 dB → 1.0
   139→--   dagger_swing_2: -26.4 dB → 0.66
   140→--   dagger_swing_3 (swing_8): -26.4 dB → 0.66
   141→--   dagger_swing_4 (swing_9): -25.1 dB → 0.57
   142→--   dagger_swing_5 (swing_10): -29.1 dB → 0.9
   143→an\sound 'ball_ball', 'assets/ball_wall.ogg'
   144→an\sound 'ball_wall', 'assets/ball_wall.ogg'

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

Let me find:

1. Where bow pulling starts - to add drawing bow sounds
2. Where dagger swing sounds are loaded and played - to replace/add sword swing sounds
3. Where arrows are released - to add releasing bow string sounds

Let me look at each of these.

143---   concrete_2 (concrete_5): -26.9 dB → 0.7

144---   concrete_3 (concrete_8): -28.9 dB → 0.8

145:--   dagger_swing_1: -32.8 dB → 1.0

146:--   dagger_swing_2: -26.4 dB → 0.66

147:--   dagger_swing_3 (swing_8): -26.4 dB → 0.66

148:--   dagger_swing_4 (swing_9): -25.1 dB → 0.57

149:--   dagger_swing_5 (swing_10): -29.1 dB → 0.9

150---   bow_string_drawing_fast_2: -38.9 dB → 1.0

151---   drawing_bow_backwards_6: -40.6 dB → 1.0

--
180-an\sound 'concrete_2', 'assets/concrete_5.ogg'

181-an\sound 'concrete_3', 'assets/concrete_8.ogg'

182:an\sound 'dagger_swing_1', 'assets/dagger_swing_1.ogg'

183:an\sound 'dagger_swing_2', 'assets/dagger_swing_2.ogg'

184:an\sound 'dagger_swing_3', 'assets/dagger_swing_8.ogg'

185:an\sound 'dagger_swing_4', 'assets/dagger_swing_9.ogg'

186:an\sound 'dagger_swing_5', 'assets/dagger_swing_10.ogg'

187-an\music 'bgm', 'assets/batoru_umi_to_mamono_no_kodomo_tachi.ogg'

188-an\music_set_volume 0.8

--
1357-            @rotation_accumulator -= threshold

1358-            @swing_sound_count += 1

1359:            an\sound_play "dagger_swing_#{an.random\int(1, 5)}", 0.7, an.random\float(0.95, 1.05)

1360-      else

1361-        @fast_spinning = false

--
1430-            @rotation_accumulator -= threshold

1431-            @swing_sound_count += 1

1432:            an\sound_play "dagger_swing_#{an.random\int(1, 5)}", 0.7, an.random\float(0.95, 1.05)

1433-      else

... [1 more lines]

1196-      @bow_sy = 1

1197-      @bow_shot_id = 0

1198-      @bow_last_scaled_shot_id = 0

1199:      @bow_pulling = false

1200-      @bow_barraging = false

1201-      @bow_arrow_alpha = 0

1202-

--
1401-      -- else

1402-      --   @collider\set_angular_damping 0

1403-      if bow_should_pull

1404:        if not @bow_pulling

1405:          @bow_arrow_alpha = 1

1406:        @bow_pulling = true

1407-        @bow_pull_amount = math.lerp_dt(0.9, 0.5, dt, @bow_pull_amount, 8)

1408-        @bow_sy = math.lerp_dt(0.9, 0.5, dt, @bow_sy, 0.9)

1409:      elseif @bow_pulling

1410:        @bow_pulling = false

1411-        @bow_arrow_alpha = 0

1412-        @spring\pull 'weapon', 0.5

1413-        @timer\tween 0.2, @, {bow_pull_amount: 0}, math.elastic_out, nil, 'bow_release'

--
1771-  -- Bow callback: fire volley of arrows

1772-  bow_fire: =>

1773-    @bow_ready = false

1774:    @bow_pulling = false

1775-    @bow_shot_id += 1

1776-    shot_id = @bow_shot_id

1777-    -- t = math.min((@arrows_per_shot - 1)/19, 1)

--
... [24 more lines]

1782-    if n == 1

1783-      -- Single arrow: full release, full recoil

1784:      @\fire_single_arrow shot_id, 0.2, 0.08

1785-    else

1786-      @bow_barraging = true

1787-

1788-      -- First arrow: scaled release, full recoil, then pull for next

1789:      @\fire_single_arrow shot_id, arrow_delay*0.5, arrow_delay*0.4

1790-      @timer\after arrow_delay*0.3, -> @\bow_start_pull arrow_delay*0.7

1791-

--
1796-          if is_last

1797-            -- Last arrow: full release, scaled recoil

1798:            @\fire_single_arrow shot_id, 0.2, 0.08, arrow_delay

1799-          else

1800-            -- Middle arrow: scaled release and recoil, then pull for next

1801:            @\fire_single_arrow shot_id, arrow_delay*0.5, arrow_delay*0.4, arrow_delay

1802-            @timer\after arrow_delay*0.3, -> @\bow_start_pull arrow_delay*0.7

1803-

--
1809-

1810-  -- Fire a single arrow with release animation

1811:  fire_single_arrow: (shot_id, release_duration, sy_duration, recoil_duration) =>

1812-    @bow_arrow_alpha = 0

1813-    @spring\pull 'weapon', 0.6

1345→      -- Disabled when base velocity reaches 6.5π (~25 hits)
  1346→      -- Only plays within 1.33 seconds of a weapon-weapon or projectile-weapon hit
  1347→      @can_swing_sound_time += dt
  1348→      if @base_angular_velocity < 6.5*math.pi and angular_speed > 4.75*math.pi and @can_swing_sound_time <= 1.33
  1349→        if not @fast_spinning
  1350→          @fast_spinning = true
  1351→          @rotation_accumulator = 0
  1352→          @swing_sound_count = 0
  1353→        elseif @swing_sound_count < 5
  1354→          @rotation_accumulator += angular_speed * dt
  1355→          threshold = if @swing_sound_count == 0 then 0.07*2*math.pi else 2*math.pi
  1356→          if @rotation_accumulator >= threshold
  1357→            @rotation_accumulator -= threshold
  1358→            @swing_sound_count += 1
  1359→            an\sound_play "dagger_swing_#{an.random\int(1, 5)}", 0.7, an.random\float(0.95, 1.05)
  1360→      else
  1361→        @fast_spinning = false
  1362→        @rotation_accumulator = 0
  1363→        @swing_sound_count = 0
  1364→      -- Apply forces to sword flame based on rotation and velocity

1415→    elseif @weapon_type == 'dagger'
  1416→      -- Swing sound: first at 0.07 rotation, then every full rotation, max 5 times
  1417→      -- Fixed threshold based on original base (1.5π * 3.5 = 5.25π)
  1418→      -- Disabled when base velocity reaches 6.5π (~25 hits)
  1419→      -- Only plays within 1.33 seconds of a weapon-weapon or projectile-weapon hit
  1420→      @can_swing_sound_time += dt
  1421→      if @base_angular_velocity < 6.5*math.pi and angular_speed > 4.75*math.pi and @can_swing_sound_time <= 1.33
  1422→        if not @fast_spinning
  1423→          @fast_spinning = true
  1424→          @rotation_accumulator = 0
  1425→          @swing_sound_count = 0
  1426→        elseif @swing_sound_count < 5
  1427→          @rotation_accumulator += angular_speed * dt
  1428→          threshold = if @swing_sound_count == 0 then 0.07*2*math.pi else 2*math.pi
  1429→          if @rotation_accumulator >= threshold
  1430→            @rotation_accumulator -= threshold
  1431→            @swing_sound_count += 1
  1432→            an\sound_play "dagger_swing_#{an.random\int(1, 5)}", 0.7, an.random\float(0.95, 1.05)
  1433→      else
  1434→        @fast_spinning = false
  1435→        @rotation_accumulator = 0
  1436→        @swing_sound_count = 0
  1437→
  1438→    -- Low floor detection: if vertical velocity stays low while near the floor, give it a hop
  1439→    vx, vy = @collider\get_velocity!

1335→          new_speed = math.lerp_dt(0.9, 0.5, dt, angular_speed, @base_angular_velocity)
  1336→          @collider\set_angular_velocity angular_sign*new_speed
  1337→      else
  1338→        @time_above_base = 0
  1339→        @time_below_base = 0
  1340→
  1341→    -- Weapon-specific update logic
  1342→    if @weapon_type == 'sword'
  1343→      -- Swing sound: first at 0.07 rotation, then every full rotation, max 5 times
  1344→      -- Fixed threshold based on original base (1.5π * 3.5 = 5.25π)

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

1410→      --   @collider\set_angular_damping 3*math.cubic_out(t)
  1411→      -- else
  1412→      --   @collider\set_angular_damping 0
  1413→      if bow_should_pull
  1414→        if not @bow_pulling
  1415→          @bow_arrow_alpha = 1
  1416→        @bow_pulling = true
  1417→        @bow_pull_amount = math.lerp_dt(0.9, 0.5, dt, @bow_pull_amount, 8)
  1418→        @bow_sy = math.lerp_dt(0.9, 0.5, dt, @bow_sy, 0.9)
  1419→      elseif @bow_pulling

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

1821→  -- Fire a single arrow with release animation
  1822→  fire_single_arrow: (shot_id, release_duration, sy_duration, recoil_duration) =>
  1823→    @bow_arrow_alpha = 0
  1824→    @spring\pull 'weapon', 0.6
  1825→    @spring\pull 'hit', 0.25, 3, 0.5
  1826→    @\recoil_weapon recoil_duration
  1827→    @timer\tween release_duration, @, {bow_pull_amount: 0}, math.elastic_out, nil, 'bow_release'
  1828→    @timer\tween sy_duration, @, {bow_sy: 1}, math.cubic_in_out, nil, 'bow_sy_release'
  1829→
  1830→    spawn_x = @x + 20*math.cos(@angle)
  1831→    spawn_y = @y + 20*math.sin(@angle)
  1832→    @parent.projectiles\add projectile spawn_x, spawn_y,
  1833→      projectile_type: 'arrow'
  1834→      velocity: 1
  1835→      direction: @angle

The last pending task is to replace the dagger_swing sounds with sword_swing sounds in the sword weapon_type section. Let me find the exact location in main.yue where the sword weapon_type plays dagger_swing sounds and replace it with sword_swing sounds.

142---   concrete_1 (concrete_2): -31.7 dB → 0.8

143---   concrete_2 (concrete_5): -26.9 dB → 0.7

144---   concrete_3 (concrete_8): -28.9 dB → 0.8

145:--   dagger_swing_1: -32.8 dB → 1.0

146:--   dagger_swing_2: -26.4 dB → 0.66

147:--   dagger_swing_3 (swing_8): -26.4 dB → 0.66

148:--   dagger_swing_4 (swing_9): -25.1 dB → 0.57

149:--   dagger_swing_5 (swing_10): -29.1 dB → 0.9

150---   bow_string_drawing_fast_2: -38.9 dB → 1.0

151---   drawing_bow_backwards_6: -40.6 dB → 1.0

152---   drawing_bow_backwards_9: -42.3 dB → 1.0

--
179-an\sound 'concrete_1', 'assets/concrete_2.ogg'

180-an\sound 'concrete_2', 'assets/concrete_5.ogg'

181-an\sound 'concrete_3', 'assets/concrete_8.ogg'

182:an\sound 'dagger_swing_1', 'assets/dagger_swing_1.ogg'

183:an\sound 'dagger_swing_2', 'assets/dagger_swing_2.ogg'

184:an\sound 'dagger_swing_3', 'assets/dagger_swing_8.ogg'

185:an\sound 'dagger_swing_4', 'assets/dagger_swing_9.ogg'

186:an\sound 'dagger_swing_5', 'assets/dagger_swing_10.ogg'

187-an\sound 'bow_draw_1', 'assets/bow_string_drawing_fast_2.ogg'

188-an\sound 'bow_draw_2', 'assets/drawing_bow_backwards_6.ogg'

189-an\sound 'bow_draw_3', 'assets/drawing_bow_backwards_9.ogg'

--
1366-          if @rotation_accumulator >= threshold

1367-            @rotation_accumulator -= threshold

1368-            @swing_sound_count += 1

1369:            an\sound_play "dagger_swing_#{an.random\int(1, 5)}", 0.7, an.random\float(0.95, 1.05)

1370-      else

1371-        @fast_spinning = false

... [9 more lines]

1345→          new_speed = math.lerp_dt(0.9, 0.5, dt, angular_speed, @base_angular_velocity)
  1346→          @collider\set_angular_velocity angular_sign*new_speed
  1347→      else
  1348→        @time_above_base = 0
  1349→        @time_below_base = 0
  1350→
  1351→    -- Weapon-specific update logic
  1352→    if @weapon_type == 'sword'
  1353→      -- Swing sound: first at 0.07 rotation, then every full rotation, max 5 times
  1354→      -- Fixed threshold based on original base (1.5π * 3.5 = 5.25π)
  1355→      -- Disabled when base velocity reaches 6.5π (~25 hits)
  1356→      -- Only plays within 1.33 seconds of a weapon-weapon or projectile-weapon hit
  1357→      @can_swing_sound_time += dt
  1358→      if @base_angular_velocity < 6.5*math.pi and angular_speed > 4.75*math.pi and @can_swing_sound_time <= 1.33
  1359→        if not @fast_spinning
  1360→          @fast_spinning = true
  1361→          @rotation_accumulator = 0
  1362→          @swing_sound_count = 0
  1363→        elseif @swing_sound_count < 5
  1364→          @rotation_accumulator += angular_speed * dt
  1365→          threshold = if @swing_sound_count == 0 then 0.07*2*math.pi else 2*math.pi
  1366→          if @rotation_accumulator >= threshold
  1367→            @rotation_accumulator -= threshold
  1368→            @swing_sound_count += 1
  1369→            an\sound_play "dagger_swing_#{an.random\int(1, 5)}", 0.7, an.random\float(0.95, 1.05)
  1370→      else
  1371→        @fast_spinning = false
  1372→        @rotation_accumulator = 0
  1373→        @swing_sound_count = 0
  1374→      -- Apply forces to sword flame based on rotation and velocity

1420→      elseif @bow_pulling
  1421→        @bow_pulling = false
  1422→        @bow_arrow_alpha = 0
  1423→        @spring\pull 'weapon', 0.5
  1424→        @timer\tween 0.2, @, {bow_pull_amount: 0}, math.elastic_out, nil, 'bow_release'
  1425→        @timer\tween 0.08, @, {bow_sy: 1}, math.cubic_in_out, nil, 'bow_sy_release'
  1426→    elseif @weapon_type == 'dagger'
  1427→      -- Swing sound: first at 0.07 rotation, then every full rotation, max 5 times
  1428→      -- Fixed threshold based on original base (1.5π * 3.5 = 5.25π)
  1429→      -- Disabled when base velocity reaches 6.5π (~25 hits)
  1430→      -- Only plays within 1.33 seconds of a weapon-weapon or projectile-weapon hit
  1431→      @can_swing_sound_time += dt
  1432→      if @base_angular_velocity < 6.5*math.pi and angular_speed > 4.75*math.pi and @can_swing_sound_time <= 1.33
  1433→        if not @fast_spinning
  1434→          @fast_spinning = true
  1435→          @rotation_accumulator = 0
  1436→          @swing_sound_count = 0
  1437→        elseif @swing_sound_count < 5
  1438→          @rotation_accumulator += angular_speed * dt
  1439→          threshold = if @swing_sound_count == 0 then 0.07*2*math.pi else 2*math.pi
  1440→          if @rotation_accumulator >= threshold
  1441→            @rotation_accumulator -= threshold
  1442→            @swing_sound_count += 1
  1443→            an\sound_play "dagger_swing_#{an.random\int(1, 5)}", 0.7, an.random\float(0.95, 1.05)
  1444→      else
  1445→        @fast_spinning = false
  1446→        @rotation_accumulator = 0
  1447→        @swing_sound_count = 0
  1448→
  1449→    -- Low floor detection: if vertical velocity stays low while near the floor, give it a hop

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The user wants me to:

1. Find new .wav files in the assets folder
2. Convert them to .ogg
3. Measure their volumes
4. Calculate normalized volumes
5. Delete the .wav files
6. Add them to the sound registration in main.yue with proper comments

The sounds are:

- Sword/dagger hitting bow = "sword wood impact" sounds
- Arrow hitting wall = "arrow hit wood" sounds  
- Thrust hit = "sword impact body" sounds

Let me first find the new .wav files.

E:\a327ex\emoji-ball-battles\assets\Arrow_Hit_Wood_01.wav
E:\a327ex\emoji-ball-battles\assets\Arrow_Hit_Wood_03.wav
E:\a327ex\emoji-ball-battles\assets\Arrow_Hit_Wood_05.wav
E:\a327ex\emoji-ball-battles\assets\Impact_Sword_To_Body_05.wav
E:\a327ex\emoji-ball-battles\assets\Impact_Sword_To_Wood_03.wav
E:\a327ex\emoji-ball-battles\assets\Impact_Sword_To_Wood_04.wav

size=      29KiB time=00:00:00.45 bitrate= 528.8kbits/s speed=24.8x elapsed=0:00:00.01

size=      28KiB time=00:00:00.42 bitrate= 544.9kbits/s speed=20.9x elapsed=0:00:00.02

size=      29KiB time=00:00:00.44 bitrate= 531.4kbits/s speed=23.7x elapsed=0:00:00.01

size=      33KiB time=00:00:00.46 bitrate= 582.4kbits/s speed=22.9x elapsed=0:00:00.02

size=      29KiB time=00:00:00.61 bitrate= 379.6kbits/s speed=29.7x elapsed=0:00:00.02

size=      31KiB time=00:00:00.62 bitrate= 409.0kbits/s speed=  33x elapsed=0:00:00.01

[Parsed_volumedetect_0 @ 00000130fb1e6800] mean_volume: -21.1 dB

[Parsed_volumedetect_0 @ 00000139a3596800] mean_volume: -21.1 dB

[Parsed_volumedetect_0 @ 000001978baa6800] mean_volume: -20.1 dB

[Parsed_volumedetect_0 @ 000002053c0d6800] mean_volume: -19.1 dB

[Parsed_volumedetect_0 @ 0000022dcb1e6800] mean_volume: -21.6 dB

[Parsed_volumedetect_0 @ 0000025e84886800] mean_volume: -23.4 dB

130→--   dagger_wall: -24.1 dB → 0.5
   131→--   dagger_ball: -28.7 dB → 0.7
   132→--   gun_fire_1 (revolver_shot1): -24.7 dB → 0.54
   133→--   gun_fire_2 (revolver_shot2): -24.9 dB → 0.56
   134→--   gun_fire_3 (revolver_shot3): -23.3 dB → 0.46
   135→--   weapon_projectile_1 (metal_light_2): -30.0 dB → 1.0
   136→--   weapon_projectile_2 (metal_light_4): -30.5 dB → 1.0
   137→--   player_hit: -8.3 dB → 0.08
   138→--   player_death: -19.9 dB → 0.35
   139→--   grass_land_1/2/3: ~-45.5 dB → 1.0
   140→--   grass_impact_1/2/3: ~-29.5 dB → 0.5
   141→--   hop: -10.3 dB → 0.12
   142→--   concrete_1 (concrete_2): -31.7 dB → 0.8
   143→--   concrete_2 (concrete_5): -26.9 dB → 0.7
   144→--   concrete_3 (concrete_8): -28.9 dB → 0.8
   145→--   dagger_swing_1: -32.8 dB → 1.0
   146→--   dagger_swing_2: -26.4 dB → 0.66
   147→--   dagger_swing_3 (swing_8): -26.4 dB → 0.66
   148→--   dagger_swing_4 (swing_9): -25.1 dB → 0.57
   149→--   dagger_swing_5 (swing_10): -29.1 dB → 0.9
   150→--   bow_string_drawing_fast_2: -38.9 dB → 1.0
   151→--   drawing_bow_backwards_6: -40.6 dB → 1.0
   152→--   drawing_bow_backwards_9: -42.3 dB → 1.0
   153→--   light_sword_swing_2: -28.3 dB → 0.73
   154→--   light_sword_swing_3: -29.7 dB → 0.86
   155→--   light_sword_swing_14: -29.7 dB → 0.86
   156→--   light_sword_swing_9: -30.0 dB → 1.0
   157→--   releasing_bow_string_1: -34.3 dB → 1.0
   158→--   releasing_bow_string_2: -35.4 dB → 1.0
   159→--   releasing_bow_string_8: -34.0 dB → 1.0
... [45 more lines]

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

2782-            @\kill!

2783-        elseif @projectile_type == 'arrow'

2784-          angle = @collider\get_angle!

2785:          -- Flip angle if arrow points outward from wall

2786-          if math.cos(angle)*normal_x + math.sin(angle)*normal_y < 0

2787-            angle += math.pi

2788-          offset = an.random\float(0, 10)

2789:          @parent.arena.effects\add stuck_arrow @x + offset*math.cos(angle), @y + offset*math.sin(angle), {angle: angle}

2790-          @\kill!

2791-      when 'weapon'

2792-        if @projectile_type != 'arrow'

--
3201-

3202-

3203-

3204:-- Stuck arrow: visual-only arrow embedded in a wall

3205:class stuck_arrow extends object

3206-  new: (@x, @y, args={}) =>

3207-    super!

3208-    @angle = args.angle or 0

44-front = an\layer 'front'

45-front_outline = an\layer 'front_outline'

46-cover = an\layer 'cover'

47:weapons = an\layer 'weapons'

48:weapons_outline = an\layer 'weapons_outline'

49-outline_only = an\layer 'outline_only' -- source layer for outline_only shader, never drawn itself

50-actual_outline_only = an\layer 'actual_outline_only' -- result of outline_only shader

51-effects = an\layer 'effects'

--
126--- Normalized volumes (baseline -24 dB, 0.5 base volume):

127---   ball_ball (suicchi_wo_osu): -16.7 dB → 0.22

128---   ball_wall: -21.2 dB → 0.36

129:--   dagger_dagger: -16.5 dB → 0.22 (unused)

130---   dagger_wall: -24.1 dB → 0.5

131---   dagger_ball: -28.7 dB → 0.7

132---   gun_fire_1 (revolver_shot1): -24.7 dB → 0.54

--
165---   sword_wood_impact_2 (Impact_Sword_To_Wood_04): -23.4 dB → 0.47

166-an\sound 'ball_ball', 'assets/ball_wall.ogg'

167-an\sound 'ball_wall', 'assets/ball_wall.ogg'

168:an\sound 'dagger_dagger', 'assets/dagger_dagger.ogg'

169-an\sound 'dagger_wall', 'assets/dagger_wall.ogg'

170-an\sound 'dagger_ball', 'assets/dagger_ball.ogg'

171-an\sound 'gun_fire_1', 'assets/revolver_shot1.ogg'

--
220-an\physics_tag 'projectile'

221-an\physics_collision 'ball', 'wall'

222-an\physics_collision 'ball', 'ball'

223:an\physics_collision 'weapon', 'weapon'

224-an\physics_tag 'projectile_sensor'

... [304 more lines]

717-    for event in *an\collision_begin_events 'ball', 'wall'

718-      ball_object = event.a

719-

720:      -- Cancel thrust on wall hit (only after 10% progress to avoid cancelling before it starts)

721:      if ball_object.thrusting and ball_object.thrust_progress > 0.1

722:        ball_object\thrust_end!

723-

724-      vx, vy = ball_object.collider\get_velocity!

725-      if an.random\bool(@wall_boost_chance) and @wall_energy_boost > 1

--
875-      continue if attacker.team == defender.team

876-      continue if attacker.weapon_class != 'melee'

877-

878:      -- Apply damage (thrust hits use thrust_damage)

879:      damage = if attacker.thrusting then attacker.thrust_damage else attacker.base_damage

880-      attacker\flash_weapon!

881-      defender\take_damage damage, attacker

882-      attacker.hits_landed += 1

--
886-      if attacker.weapon_type == 'dagger'

887-        attacker.base_angular_velocity += attacker.base_angular_velocity_increase_per_hit

888-        attacker.max_angular_velocity = attacker.base_angular_velocity*2

889:      elseif attacker.weapon_type == 'sword' and attacker.thrusting and not attacker.thrust_hit_this_thrust

890:        attacker.thrust_hit_this_thrust = true

891:        attacker.thrust_damage += 1

892-        @effects\add emoji_text attacker.x, attacker.y - 10, "+1 dmg"

893-

894-      -- Hit effect on defender's edge, facing the weapon

--
1189-      @hit_stop_multiplier = 1.4 -- longer hit stops

... [162 more lines]

626→      ball_b.spring\pull 'hit', intensity*0.4, 3, 0.7
   627→
   628→    -- Weapon-weapon collision handling
   629→    for event in *an\collision_begin_events 'weapon', 'weapon'
   630→      ball_a, ball_b = event.a, event.b
   631→
   632→      -- Reset angular velocity guardrails (let physics do its thing)
   633→      ball_a.time_above_base = 0
   634→      ball_a.time_below_base = 0
   635→      ball_b.time_above_base = 0
   636→      ball_b.time_below_base = 0
   637→
   638→      -- Apply energy boost to compensate for collision energy loss
   639→      vx_a, vy_a = ball_a.collider\get_velocity!
   640→      vx_b, vy_b = ball_b.collider\get_velocity!
   641→      vx_a = vx_a*@weapon_energy_boost
   642→      vy_a = vy_a*@weapon_energy_boost
   643→      vx_b = vx_b*@weapon_energy_boost
   644→      vy_b = vy_b*@weapon_energy_boost
   645→
   646→      -- Apply weapon weight: heavier weapons move slower after collisions
   647→      vx_a = vx_a / ball_a.weapon_weight
   648→      vy_a = vy_a / ball_a.weapon_weight
   649→      vx_b = vx_b / ball_b.weapon_weight
   650→      vy_b = vy_b / ball_b.weapon_weight
   651→
   652→      -- Cap speed at @max_ball_speed
   653→      speed_a = math.length(vx_a, vy_a)
   654→      if speed_a > @max_ball_speed
   655→        scale = @max_ball_speed/speed_a
... [55 more lines]

756→
   757→      -- Sound
   758→      an\sound_play "concrete_#{an.random\int(1, 3)}", 0.7, an.random\float(0.95, 1.05)
   759→
   760→      -- Spawn hit effects (not for arrows)
   761→      if projectile_object.projectile_type != 'arrow'
   762→        normal_angle = math.angle event.normal_x, event.normal_y
   763→        @effects\add hit_circle event.point_x, event.point_y, {radius: 6 + 4*intensity, duration: an.random\float(0.15, 0.3), color: yellow, flash_on_spawn: true}
   764→        for i = 1, an.random\int 1, 3
   765→          @effects\add hit_particle event.point_x, event.point_y,
   766→            velocity: intensity*an.random\float(100, 200)
   767→            direction: normal_angle + math.pi + an.random\float(-math.pi/3, math.pi/3)
   768→            duration: an.random\float(0.3, 0.5)
   769→            color: yellow
   770→            gravity: 256
   771→            flash_on_spawn: true
   772→
   773→    -- Projectile-weapon collision: parry
   774→    for event in *an\collision_begin_events 'projectile', 'weapon'
   775→      projectile_object = event.a
   776→      ball_object = event.b  -- ball that owns the weapon
   777→
   778→      -- Skip if hitting same team's weapon
   779→      continue if ball_object.team == projectile_object.team
   780→
   781→      -- Only melee weapons can reflect projectiles
   782→      continue if ball_object.weapon_class != 'melee'
   783→
   784→      vx, vy = projectile_object.collider\get_velocity!
   785→      intensity = math.remap math.length(vx, vy), 300, 600, 0, 1
... [30 more lines]

862→      x = (projectile_object.x + ball_object.x)/2
   863→      y = (projectile_object.y + ball_object.y)/2
   864→      for i = 1, an.random\int 1, 3
   865→        @effects\add star_particle x, y,
   866→          flash_on_spawn: true
   867→
   868→    -- Weapon-ball sensor: deal damage (melee only)
   869→    for event in *an\sensor_begin_events 'weapon_hitbox', 'ball'
   870→      attacker = event.a  -- weapon_hitbox tag (ball that owns the weapon)
   871→      defender = event.b  -- ball tag (ball that got hit)
   872→
   873→      -- Skip self-hit, same team, and ranged weapons
   874→      continue if attacker == defender
   875→      continue if attacker.team == defender.team
   876→      continue if attacker.weapon_class != 'melee'
   877→
   878→      -- Apply damage (thrust hits use thrust_damage)
   879→      damage = if attacker.thrusting then attacker.thrust_damage else attacker.base_damage
   880→      attacker\flash_weapon!
   881→      defender\take_damage damage, attacker
   882→      attacker.hits_landed += 1
   883→      attacker.weapon_ui\landed_hit!
   884→
   885→      -- Weapon-specific scaling on hit
   886→      if attacker.weapon_type == 'dagger'
   887→        attacker.base_angular_velocity += attacker.base_angular_velocity_increase_per_hit
   888→        attacker.max_angular_velocity = attacker.base_angular_velocity*2
   889→      elseif attacker.weapon_type == 'sword' and attacker.thrusting and not attacker.thrust_hit_this_thrust
   890→        attacker.thrust_hit_this_thrust = true
   891→        attacker.thrust_damage += 1
... [20 more lines]

2770→    debug_draw\pop!
  2771→
  2772→  hit: (intensity=1, target_type, normal_x, normal_y) =>
  2773→    @spring\pull 'hit', 0.5*intensity, 3, 0.5
  2774→    @flashing = true
  2775→    @timer\after 0.1, -> @flashing = false
  2776→
  2777→    switch target_type
  2778→      when 'wall'
  2779→        if @projectile_type == 'bullet'
  2780→          @bounces -= 1
  2781→          if @bounces < 0
  2782→            @\kill!
  2783→        elseif @projectile_type == 'arrow'
  2784→          angle = @collider\get_angle!
  2785→          -- Flip angle if arrow points outward from wall
  2786→          if math.cos(angle)*normal_x + math.sin(angle)*normal_y < 0
  2787→            angle += math.pi
  2788→          offset = an.random\float(0, 10)
  2789→          @parent.arena.effects\add stuck_arrow @x + offset*math.cos(angle), @y + offset*math.sin(angle), {angle: angle}
  2790→          @\kill!
  2791→      when 'weapon'
  2792→        if @projectile_type != 'arrow'
  2793→          @bounces -= 1
  2794→          if @bounces < 0
  2795→            @\kill!
  2796→      when 'ball'
  2797→        @\kill!
  2798→
  2799→

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The user is asking whether there's already a hit sound playing when a melee weapon hits a ball (the weapon-ball sensor event). Let me check the code around that area to see if there's an existing sound being played.

868→        @effects\add star_particle x, y,
   869→          flash_on_spawn: true
   870→
   871→    -- Weapon-ball sensor: deal damage (melee only)
   872→    for event in *an\sensor_begin_events 'weapon_hitbox', 'ball'
   873→      attacker = event.a  -- weapon_hitbox tag (ball that owns the weapon)
   874→      defender = event.b  -- ball tag (ball that got hit)
   875→
   876→      -- Skip self-hit, same team, and ranged weapons
   877→      continue if attacker == defender
   878→      continue if attacker.team == defender.team
   879→      continue if attacker.weapon_class != 'melee'
   880→
   881→      -- Apply damage (thrust hits use thrust_damage)
   882→      damage = if attacker.thrusting then attacker.thrust_damage else attacker.base_damage
   883→      attacker\flash_weapon!
   884→      defender\take_damage damage, attacker
   885→      if attacker.thrusting
   886→        an\sound_play 'sword_impact_body_1', 0.42, an.random\float(0.95, 1.05)
   887→      attacker.hits_landed += 1
   888→      attacker.weapon_ui\landed_hit!
   889→
   890→      -- Weapon-specific scaling on hit
   891→      if attacker.weapon_type == 'dagger'
   892→        attacker.base_angular_velocity += attacker.base_angular_velocity_increase_per_hit
   893→        attacker.max_angular_velocity = attacker.base_angular_velocity*2
   894→      elseif attacker.weapon_type == 'sword' and attacker.thrusting and not attacker.thrust_hit_this_thrust
   895→        attacker.thrust_hit_this_thrust = true
   896→        attacker.thrust_damage += 1
   897→        @effects\add emoji_text attacker.x, attacker.y - 10, "+1 dmg"
... [15 more lines]

848-      vx, vy = projectile_object.collider\get_velocity!

849-      intensity = math.remap math.length(vx, vy), 300, 600, 0, 1

850-

851-      projectile_object\hit intensity, 'ball'

852-

853:      ball_object\take_damage 1

854-

855-      -- Track hit for projectile owner

856-      owner = if projectile_object.team == 'player' then @player_ball else @enemy_ball

857-      owner.hits_landed += 1

858-      owner.weapon_ui\landed_hit!

--
879-      continue if attacker.weapon_class != 'melee'

880-

881-      -- Apply damage (thrust hits use thrust_damage)

882-      damage = if attacker.thrusting then attacker.thrust_damage else attacker.base_damage

883-      attacker\flash_weapon!

884:      defender\take_damage damage, attacker

885-      if attacker.thrusting

886-        an\sound_play 'sword_impact_body_1', 0.42, an.random\float(0.95, 1.05)

887-      attacker.hits_landed += 1

888-      attacker.weapon_ui\landed_hit!

889-

--
1612-        indicator_y += child.h + indicator_gap

1613-

1614-    -- Track angular velocity for weight-based collision handling

1615-    @last_angular_velocity = @collider\get_angular_velocity!

1616-

1617:  take_damage: (amount, source) =>

... [5 more lines]

1617→  take_damage: (amount, source) =>
  1618→    return unless @parent  -- Guard against events before fully added
  1619→    @hp -= amount
  1620→    @spring\pull 'hit', 0.3, 3, 0.7
  1621→    @\flash_ball!
  1622→
  1623→    -- Sound
  1624→    an\sound_play 'dagger_ball', 0.88, an.random\float(0.95, 1.05)
  1625→    -- if @team == 'player'
  1626→    --   an\sound_play 'player_hit', 0.5, an.random\float(0.95, 1.05)
  1627→
  1628→    -- Spawn damage number above
  1629→    @parent\add damage_number @x, @y - @radius - 10, amount, {duration_multiplier: 0.5}
  1630→
  1631→    -- Show HP bar
  1632→    @hp_bar\activate!
  1633→
  1634→    -- Update HP UI
  1635→    @hp_ui\refresh @hp
  1636→
  1637→    -- Update emoji display
  1638→    @weapon_ui\hit!
  1639→
  1640→    -- Camera shake when player takes damage
  1641→    if @team == 'player'

The user wants me to:

1. Remove the previous arrow_hit_wood sounds (3 of them)
2. Use the sword_wood_impact .wav files for arrow wall hits instead
Wait, the user said "both new .wav files" - but all .wav files have already been converted. Let me re-read. They said "remove the previous arrow wall hit sounds" and "use both new .wav files for that purpose."

Wait, maybe there are new .wav files that have appeared since last time? Let me check.

E:\a327ex\emoji-ball-battles\assets\ARROW_Hit_Body_stereo.wav
E:\a327ex\emoji-ball-battles\assets\ARROW_Hit_Wood_Shield_stereo.wav

size=      30KiB time=00:00:00.46 bitrate= 526.4kbits/s speed=19.5x elapsed=0:00:00.02

size=      28KiB time=00:00:00.43 bitrate= 515.9kbits/s speed=19.6x elapsed=0:00:00.02

[Parsed_volumedetect_0 @ 00000224be636800] mean_volume: -23.5 dB

[Parsed_volumedetect_0 @ 000001b34ae56800] mean_volume: -27.6 dB

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The user is getting "No free sound slots available" errors. Let me find this in the anchor.c engine code to understand the current limit and how sounds are managed.

1260-        sound_cleanup_finished();
1261-        for (int i = 0; i < MAX_PLAYING_SOUNDS; i++) {
1262-            if (!playing_sounds[i].in_use) {
1263-                slot = i;
1264-                break;
1265-            }
1266-        }
1267-    }
1268-
1269-    if (slot == -1) {
1270:        fprintf(stderr, "No free sound slots available\n");
1271-        return;
1272-    }
1273-
1274-    // Initialize decoder from memory
1275-    ma_decoder_config decoder_config = ma_decoder_config_init(ma_format_f32, 2, audio_engine.sampleRate);
1276-    ma_result result = ma_decoder_init_memory(sound->data, sound->data_size, &decoder_config, &playing_sounds[slot].decoder);
1277-    if (result != MA_SUCCESS) {
1278-        fprintf(stderr, "Failed to decode sound: %s (error %d)\n", sound->path, result);
1279-        return;
1280-    }

1202:#define MAX_PLAYING_SOUNDS 64
1210:static PlayingSound playing_sounds[MAX_PLAYING_SOUNDS];
1217:    for (int i = 0; i < MAX_PLAYING_SOUNDS; i++) {
1230:    for (int i = 0; i < MAX_PLAYING_SOUNDS; i++) {
1251:    for (int i = 0; i < MAX_PLAYING_SOUNDS; i++) {
1261:        for (int i = 0; i < MAX_PLAYING_SOUNDS; i++) {
1477:    for (int i = 0; i < MAX_PLAYING_SOUNDS; i++) {

<tool_use_error>File has not been read yet. Read it first before writing to it.</tool_use_error>

1200→// Sound instance pool for fire-and-forget playback
  1201→// Cleaned up from main thread to avoid threading issues
  1202→#define MAX_PLAYING_SOUNDS 64
  1203→
  1204→typedef struct {

The file E:\a327ex\Anchor\engine\src\anchor.c has been updated successfully.

src/anchor.c(8501): warning C4996: 'strcat': This function or variable may be unsafe. Consider using strcat_s instead. To disable deprecation, use _CRT_SECURE_NO_WARNINGS. See online help for details.

gl.c

Generating Code...

LINK : warning LNK4098: defaultlib 'MSVCRT' conflicts with use of other libs; use /NODEFAULTLIB:library

Build successful: build/anchor.exe

195:an\sound 'bow_release_1', 'assets/releasing_bow_string_1.ogg'

196:an\sound 'bow_release_2', 'assets/releasing_bow_string_2.ogg'

197:an\sound 'bow_release_3', 'assets/releasing_bow_string_8.ogg'

1439:        @timer\tween 0.2, @, {bow_pull_amount: 0}, math.elastic_out, nil, 'bow_release'

1839:    an\sound_play "bow_release_#{an.random\int(1, 3)}", 1.0, an.random\float(0.95, 1.05)

1843:    @timer\tween release_duration, @, {bow_pull_amount: 0}, math.elastic_out, nil, 'bow_release'

1860:    @timer\tween duration, @, {bow_pull_amount: 8}, math.quad_out, nil, 'bow_release'

E:\a327ex\emoji-ball-battles\assets\dagger_crit1.ogg

[Parsed_volumedetect_0 @ 000001f1cd2c67c0] mean_volume: -26.2 dB

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

No matches found

1840:    an\sound_play "bow_release_#{an.random\int(1, 3)}", 1.0, an.random\float(0.95, 1.05)

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

<tool_use_error>File has been modified since read, either by the user or by a linter. Read it again before attempting to write it.</tool_use_error>

No matches found

758:      -- an\sound_play "arrow_hit_wall_#{an.random\int(1, 2)}", 0.35, an.random\float(0.95, 1.05)

1838:    an\sound_play "arrow_hit_wall_#{an.random\int(1, 2)}", 0.47, an.random\float(0.95, 1.05)

1836→  fire_single_arrow: (shot_id, release_duration, sy_duration, recoil_duration) =>
  1837→    @bow_arrow_alpha = 0
  1838→    an\sound_play "arrow_hit_wall_#{an.random\int(1, 2)}", 0.47, an.random\float(0.95, 1.05)
  1839→    @spring\pull 'weapon', 0.6
  1840→    @spring\pull 'hit', 0.25, 3, 0.5

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

E:\a327ex\emoji-ball-battles\assets\S6_Impact_1_v2.wav
E:\a327ex\emoji-ball-battles\assets\Wind_Small_Impact_1.wav
E:\a327ex\emoji-ball-battles\assets\Wing_Impact_5.wav
E:\a327ex\emoji-ball-battles\assets\Wind_Small_Impact_2.wav
E:\a327ex\emoji-ball-battles\assets\Sword_Impact_On_Dirt.wav

size=      63KiB time=00:00:00.94 bitrate= 552.6kbits/s speed=35.2x elapsed=0:00:00.02

size=      61KiB time=00:00:00.96 bitrate= 515.9kbits/s speed=42.2x elapsed=0:00:00.02

size=      74KiB time=00:00:01.18 bitrate= 512.0kbits/s speed=40.6x elapsed=0:00:00.02

size=      34KiB time=00:00:00.63 bitrate= 433.9kbits/s speed=33.3x elapsed=0:00:00.01

size=      43KiB time=00:00:00.87 bitrate= 407.0kbits/s speed=41.2x elapsed=0:00:00.02

[Parsed_volumedetect_0 @ 000002abb4dc6800] mean_volume: -18.2 dB

[Parsed_volumedetect_0 @ 0000020d396a6800] mean_volume: -19.4 dB

[Parsed_volumedetect_0 @ 0000017fbb7a6800] mean_volume: -18.0 dB

[Parsed_volumedetect_0 @ 0000023359f167c0] mean_volume: -18.7 dB

[Parsed_volumedetect_0 @ 000001722121c100] mean_volume: -17.6 dB

160→--   arrow_hit_wall_1 (ARROW_Hit_Body_stereo): -23.5 dB → 0.47
   161→--   arrow_hit_wall_2 (ARROW_Hit_Wood_Shield_stereo): -27.6 dB → 0.72
   162→--   sword_impact_body_1 (Impact_Sword_To_Body_05): -19.1 dB → 0.28
   163→--   dagger_crit1: -26.2 dB → 0.64
   164→--   sword_wood_impact_1 (Impact_Sword_To_Wood_03): -21.6 dB → 0.38
   165→--   sword_wood_impact_2 (Impact_Sword_To_Wood_04): -23.4 dB → 0.47
   166→an\sound 'ball_ball', 'assets/ball_wall.ogg'
   167→an\sound 'ball_wall', 'assets/ball_wall.ogg'
   168→an\sound 'dagger_dagger', 'assets/dagger_dagger.ogg'
   169→an\sound 'dagger_wall', 'assets/dagger_wall.ogg'
   170→an\sound 'dagger_ball', 'assets/dagger_ball.ogg'
   171→an\sound 'gun_fire_1', 'assets/revolver_shot1.ogg'
   172→an\sound 'gun_fire_2', 'assets/revolver_shot2.ogg'
   173→an\sound 'gun_fire_3', 'assets/revolver_shot3.ogg'
   174→an\sound 'weapon_projectile_1', 'assets/metal_light_2.ogg'

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

206→an\sound 'arrow_hit_wall_1', 'assets/arrow_hit_wall_1.ogg'
   207→an\sound 'arrow_hit_wall_2', 'assets/arrow_hit_wall_2.ogg'
   208→an\sound 'dagger_crit1', 'assets/dagger_crit1.ogg'
   209→an\sound 'sword_impact_body_1', 'assets/sword_impact_body_1.ogg'
   210→an\sound 'sword_wood_impact_1', 'assets/sword_wood_impact_1.ogg'
   211→an\sound 'sword_wood_impact_2', 'assets/sword_wood_impact_2.ogg'
   212→an\music 'bgm', 'assets/batoru_umi_to_mamono_no_kodomo_tachi.ogg'
   213→an\music_set_volume 0.8
   214→
   215→-- Physics
   216→an\physics_init!
   217→an\physics_set_gravity 0, 384
   218→an\physics_tag 'wall'
   219→an\physics_tag 'ball'
   220→an\physics_tag 'weapon'

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

1757-

1758-    -- Hit stop to signal the thrust

1759-    an\hit_stop 0.3

1760-

1761-    -- After hit stop, begin the actual lunge

1762:    @timer\after 0.01, 'thrust_start', ->

1763:      @thrusting = true

1764-      @thrust_hit_this_thrust = false

1765-      @thrust_progress = 0

1766-      vx, vy = @collider\get_velocity!

1767-      @thrust_start_speed = math.length(vx, vy)

1768-      @thrust_end_speed = math.max(400, @thrust_start_speed + @thrust_speed)

1762→    @timer\after 0.01, 'thrust_start', ->
  1763→      @thrusting = true
  1764→      @thrust_hit_this_thrust = false
  1765→      @thrust_progress = 0
  1766→      vx, vy = @collider\get_velocity!
  1767→      @thrust_start_speed = math.length(vx, vy)
  1768→      @thrust_end_speed = math.max(400, @thrust_start_speed + @thrust_speed)
  1769→      @collider\set_gravity_scale 0
  1770→      @collider\set_bullet true
  1771→      (status_text 'thrust_text', @x, @y - 20, "thrusting", {font: 'fat', scale: 0.8, mode: 'channeling', duration: @thrust_duration, angle: an.random\float(-0.2, -0.1)})\flow_to @
  1772→
  1773→      -- End thrust after duration
  1774→      @timer\after @thrust_duration, 'thrust_end', -> @\thrust_end!
  1775→
  1776→  -- End thrust: restore normal state

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The user wants debug buttons to:

1. Switch between the 4 wind sounds for thrust start (wind_small_impact_1, wind_small_impact_2, wing_impact_5, s6_impact_1_v2)
2. Manually trigger a thrust

I need to find where keyboard input is handled in the game to add these debug controls. Let me look at how input is handled.

No matches found

No matches found

No matches found

E:\a327ex\Anchor\docs\ENGINE_API.md:1733:### key_is_pressed
E:\a327ex\Anchor\docs\ENGINE_API.md:1735:`key_is_pressed(key) -> bool`
E:\a327ex\Anchor\docs\ENGINE_API.md:1740:if key_is_pressed("escape") then
E:\a327ex\Anchor\docs\ENGINE_API.md:1814:### mouse_is_pressed
E:\a327ex\Anchor\docs\ENGINE_API.md:1816:`mouse_is_pressed(button) -> bool`
E:\a327ex\Anchor\docs\ENGINE_API.md:1821:if mouse_is_pressed(1) then
E:\a327ex\Anchor\docs\ENGINE_API.md:2025:### is_pressed
E:\a327ex\Anchor\docs\ENGINE_API.md:2027:`is_pressed(action) -> bool`
E:\a327ex\Anchor\docs\ENGINE_API.md:2032:if is_pressed("jump") then
E:\a327ex\Anchor\docs\ENGINE_API_QUICK.md:230:key_is_pressed(key) -> bool
E:\a327ex\Anchor\docs\ENGINE_API_QUICK.md:242:mouse_is_pressed(button) -> bool
E:\a327ex\Anchor\docs\ENGINE_API_QUICK.md:266:is_pressed(action) -> bool
E:\a327ex\Anchor\docs\FRAMEWORK_API_QUICK.md:107:an\is_pressed(action) -> bool

E:\a327ex\Anchor\docs\FRAMEWORK_API_QUICK.md:119:an\key_is_pressed(key) -> bool

E:\a327ex\Anchor\docs\FRAMEWORK_API_QUICK.md:122:an\mouse_is_pressed(button) -> bool

E:\a327ex\Anchor\docs\FRAMEWORK_API.md:568:if an\is_pressed 'jump'    -- true on the frame pressed

E:\a327ex\Anchor\docs\FRAMEWORK_API.md:614:if an\key_is_pressed 'escape'

E:\a327ex\Anchor\docs\FRAMEWORK_API.md:640:  if an\key_is_pressed 'k'

E:\a327ex\Anchor\docs\FRAMEWORK_API.md:861:    if an\is_pressed 'jump'

485→       Problem: Weapon collisions drain energy from the system.
   486→       Solution: Apply @weapon_energy_boost (1.14x) on weapon-weapon collisions.
   487→       Also cap linear speed at @max_ball_speed and angular velocity at ball.max_angular_velocity.
   488→
   489→    Speed is capped at @max_ball_speed to prevent things from getting too chaotic.
   490→  ]]
   491→  early_update: (dt) =>
   492→    -- Background gradient (drawn early so clouds appear on top)
   493→    bg\rectangle_gradient_v 0, 0, gw, gh, sky_top!, sky_bottom!
   494→
   495→    -- Pause system: press space or click to start
   496→    -- Music
   497→    if an\key_is_pressed('m')
   498→      an\music_play 'bgm'
   499→
   500→    if @paused
   501→      if an\key_is_pressed('space') or an\mouse_is_pressed(1)
   502→        @paused = false
   503→        @player_ball\start_moving!
   504→        @enemy_ball\start_moving!
   505→      return
   506→
   507→    for event in *an\collision_begin_events 'ball', 'ball'
   508→      ball_a, ball_b = event.a, event.b
   509→      vx_a, vy_a = ball_a.collider\get_velocity!
   510→      vx_b, vy_b = ball_b.collider\get_velocity!
   511→
   512→      speed_a = math.length(vx_a, vy_a)
   513→      speed_b = math.length(vx_b, vy_b)
   514→      max_speed = math.max(speed_a, speed_b)

1746→    hit and hit.object.team != @team
  1747→
  1748→  -- Sword thrust: hit stop to signal, then lunge toward enemy
  1749→  sword_thrust: =>
  1750→    @thrust_ready = false

1762→    @timer\after 0.01, 'thrust_start', ->
  1763→      @thrusting = true
  1764→      an\sound_play 'wind_small_impact_1', 0.90, an.random\float(0.95, 1.05)
  1765→      @thrust_hit_this_thrust = false
  1766→      @thrust_progress = 0

1→global *
     2→
     3→require('anchor')
     4→  width: 480
     5→  height: 270
     6→  scale: 3
     7→
     8→-- Game dimensions
     9→gw, gh = an.width, an.height
    10→

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The user wants wind_small_impact_1 as the thrust start sound at 0.75 volume, and wants the pitch to progressively increase as the thrust progresses. 

Currently the engine's `sound_play` takes a fixed pitch parameter. To do progressive pitch change, I'd need to either:

1. Check if the engine supports changing pitch of a playing sound over time
2. Or find some other approach

Let me check what the engine's sound API offers for modifying playing sounds.

74:sound_play(sound, volume?, pitch?)
75:sound_set_volume(volume)

1208:} PlayingSound;
1210:static PlayingSound playing_sounds[MAX_PLAYING_SOUNDS];
1246:static void sound_play(Sound* sound, float volume, float pitch) {
1291:    ma_sound_set_volume(&playing_sounds[slot].sound, linear_to_perceptual(volume * sound_master_volume));
1294:    ma_sound_set_pitch(&playing_sounds[slot].sound, pitch * audio_master_pitch);
1379:    ma_sound_set_looping(&music->sound, loop);
1380:    ma_sound_set_volume(&music->sound, linear_to_perceptual(music_master_volume * ch->volume));
1420:                ma_sound_set_volume(&music_channels[i].music->sound,
1429:            ma_sound_set_volume(&ch->music->sound,
1479:            ma_sound_set_pitch(&playing_sounds[i].sound, pitch);
1486:            ma_sound_set_pitch(&music_channels[i].music->sound, pitch);
4846:static int l_sound_play(lua_State* L) {
4850:    sound_play(sound, volume, pitch);
4854:static int l_sound_set_volume(lua_State* L) {
7857:    lua_register(L, "sound_play", l_sound_play);
7858:    lua_register(L, "sound_set_volume", l_sound_set_volume);

[Showing results with pagination = limit: 30, offset: 0]

Entered plan mode. You should now focus on exploring the codebase and designing an implementation approach.

In plan mode, you should:

1. Thoroughly explore the codebase to understand existing patterns
2. Identify similar features and architectural approaches
3. Consider multiple approaches and their trade-offs
4. Use AskUserQuestion if you need to clarify the approach
5. Design a concrete implementation strategy
6. When ready, use ExitPlanMode to present your plan for approval

Remember: DO NOT write or edit any files yet. This is a read-only exploration and planning phase.

[
  {
    "type": "text",
    "text": "Perfect! I now have all the information I need. Let me compile a comprehensive report.\n\n## Anchor Engine Sound System - Complete Analysis\n\nHere's the full exploration of the sound system in the Anchor engine with all components you requested:\n\n---\n\n### 1. **PlayingSound Struct Definition and playing_sounds Array**\n\n**Location:** `E:\\a327ex\\Anchor\\engine\\src\\anchor.c`, lines 1200-1210\n\n```c\n// Lines 1200-1210\n#define MAX_PLAYING_SOUNDS 512\n\ntypedef struct {\n    ma_sound sound;\n    ma_decoder decoder;  // Decoder for memory-based sounds\n    bool in_use;\n} PlayingSound;\n\nstatic PlayingSound playing_sounds[MAX_PLAYING_SOUNDS];\nstatic bool playing_sounds_initialized = false;\n```\n\nThis is a pool of 512 pre-allocated sound instances for fire-and-forget playback. Each entry contains:\n- `ma_sound sound`: The miniaudio sound object\n- `ma_decoder decoder`: The audio decoder (for memory-based decoding)\n- `bool in_use`: Flag indicating if this slot is currently occupied\n\n---\n\n### 2. **sound_play Function (Full Implementation)**\n\n**Location:** `E:\\a327ex\\Anchor\\engine\\src\\anchor.c`, lines 1245-1298\n\n```c\n// Lines 1245-1298\nstatic void sound_play(Sound* sound, float volume, float pitch) {\n    if (!audio_initialized || !sound) return;\n\n    // Find a free slot\n    int slot = -1;\n    for (int i = 0; i < MAX_PLAYING_SOUNDS; i++) {\n        if (!playing_sounds[i].in_use) {\n            slot = i;\n            break;\n        }\n    }\n\n    if (slot == -1) {\n        // No free slots - try to reclaim finished sounds\n        sound_cleanup_finished();\n        for (int i = 0; i < MAX_PLAYING_SOUNDS; i++) {\n            if (!playing_sounds[i].in_use) {\n                slot = i;\n                break;\n            }\n        }\n    }\n\n    if (slot == -1) {\n        fprintf(stderr, \"No free sound slots available\\n\");\n        return;\n    }\n\n    // Initialize decoder from memory\n    ma_decoder_config decoder_config = ma_decoder_config_init(ma_format_f32, 2, audio_engine.sampleRate);\n    ma_result result = ma_decoder_init_memory(sound->data, sound->data_size, &decoder_config, &playing_sounds[slot].decoder);\n    if (result != MA_SUCCESS) {\n        fprintf(stderr, \"Failed to decode sound: %s (error %d)\\n\", sound->path, result);\n        return;\n    }\n\n    // Initialize sound from decoder\n    result = ma_sound_init_from_data_source(&audio_engine, &playing_sounds[slot].decoder, 0, NULL, &playing_sounds[slot].sound);\n    if (result != MA_SUCCESS) {\n        fprintf(stderr, \"Failed to play sound: %s (error %d)\\n\", sound->path, result);\n        ma_decoder_uninit(&playing_sounds[slot].decoder);\n        return;\n    }\n\n    // Apply volume: per-play volume * master volume (perceptual scaling)\n    ma_sound_set_volume(&playing_sounds[slot].sound, linear_to_perceptual(volume * sound_master_volume));\n\n    // Apply pitch: per-play pitch * master pitch\n    ma_sound_set_pitch(&playing_sounds[slot].sound, pitch * audio_master_pitch);\n\n    playing_sounds[slot].in_use = true;\n    ma_sound_start(&playing_sounds[slot].sound);\n}\n```\n\n**Key behaviors:**\n- Finds a free slot in the pool; if none available, calls `sound_cleanup_finished()` to reclaim slots\n- Initializes a fresh decoder each time (memory-based decoding)\n- Applies volume with perceptual scaling (quadratic curve via `linear_to_perceptual`)\n- Applies pitch multiplied by the global `audio_master_pitch`\n\n---\n\n### 3. **sound_cleanup_finished Function**\n\n**Location:** `E:\\a327ex\\Anchor\\engine\\src\\anchor.c`, lines 1214-1226\n\n```c\n// Lines 1214-1226\nstatic void sound_cleanup_finished(void) {\n    if (!audio_initialized) return;\n\n    for (int i = 0; i < MAX_PLAYING_SOUNDS; i++) {\n        if (playing_sounds[i].in_use) {\n            if (!ma_sound_is_playing(&playing_sounds[i].sound)) {\n                ma_sound_uninit(&playing_sounds[i].sound);\n                ma_decoder_uninit(&playing_sounds[i].decoder);\n                playing_sounds[i].in_use = false;\n            }\n        }\n    }\n}\n```\n\nCalled each frame to garbage-collect finished sounds. Also called on-demand by `sound_play` when the pool is full. Must be called from the main thread to avoid threading issues.\n\n---\n\n### 4. **Audio Callback/Mixing Function**\n\n**Location:** The Anchor engine uses **miniaudio's built-in mixing engine** (`ma_engine`). There is **no custom audio callback**. \n\nKey global state variables at **lines 425-429**:\n\n```c\n// Lines 425-429\nstatic ma_engine audio_engine;\nstatic bool audio_initialized = false;\nstatic float sound_master_volume = 1.0f;\nstatic float music_master_volume = 1.0f;\nstatic float audio_master_pitch = 1.0f;\n#ifdef __EMSCRIPTEN__\nstatic bool audio_needs_unlock = true;\n#endif\n```\n\nThe `ma_engine` handles all audio mixing internally. Individual sounds and music instances write to the engine's internal mix bus. Volume and pitch are applied per-sound via `ma_sound_set_volume()` and `ma_sound_set_pitch()`.\n\n---\n\n### 5. **Lua Binding: l_sound_play**\n\n**Location:** `E:\\a327ex\\Anchor\\engine\\src\\anchor.c`, lines 4846-4852\n\n```c\n// Lines 4846-4852\nstatic int l_sound_play(lua_State* L) {\n    Sound* sound = (Sound*)lua_touserdata(L, 1);\n    float volume = (float)luaL_optnumber(L, 2, 1.0);\n    float pitch = (float)luaL_optnumber(L, 3, 1.0);\n    sound_play(sound, volume, pitch);\n    return 0;\n}\n```\n\n**Lua signature:**\n```lua\nsound_play(sound_handle, volume=1.0, pitch=1.0)\n```\n\nTakes a sound handle (opaque userdata pointer) and optional volume/pitch multipliers. Calls the C `sound_play()` function directly.\n\n---\n\n### 6. **Existing Handle-Based Patterns in the Engine**\n\nThe engine uses **lightweight userdata handles** throughout. Here are the key patterns:\n\n#### **Sound Handles:**\n- **Created by:** `l_sound_load()` at lines 4836-4844\n```c\nstatic int l_sound_load(lua_State* L) {\n    const char* path = luaL_checkstring(L, 1);\n    Sound* sound = sound_load(path);\n    if (!sound) {\n        return luaL_error(L, \"Failed to load sound: %s\", path);\n    }\n    lua_pushlightuserdata(L, sound);  // Pass pointer as opaque handle\n    return 1;\n}\n```\n\n#### **Music Handles:**\n- **Created by:** `l_music_load()` at lines 4859-4867\n```c\nstatic int l_music_load(lua_State* L) {\n    const char* path = luaL_checkstring(L, 1);\n    Music* music = music_load(path);\n    if (!music) {\n        return luaL_error(L, \"Failed to load music: %s\", path);\n    }\n    lua_pushlightuserdata(L, music);  // Pass pointer as opaque handle\n    return 1;\n}\n```\n\n#### **Texture Handles:**\n- Used similarly in the framework at `E:\\a327ex\\Anchor\\framework\\anchor\\init.yue`, line 134:\n```lua\nan.image = (name, path) =>\n  handle = texture_load path   -- Returns opaque userdata pointer\n  @images[name] = image handle\n  @images[name]\n```\n\n#### **Pattern Summary:**\nThe engine uses **`lua_pushlightuserdata()`** to return C struct pointers as opaque handles. These handles are:\n- Passed directly as arguments to other functions\n- Stored in Lua tables (like `an.sounds`, `an.tracks`, `an.images`)\n- Never freed by Lua (C manages lifetime)\n- Accessed via `lua_touserdata()` in binding functions\n\n---\n\n### 7. **ma_sound_set_pitch Usage at Line 1479**\n\n**Location:** `E:\\a327ex\\Anchor\\engine\\src\\anchor.c`, lines 1472-1489\n\n```c\n// Lines 1472-1489\nstatic void audio_set_master_pitch(float pitch) {\n    audio_master_pitch = pitch;\n\n    // Update all playing sounds\n    for (int i = 0; i < MAX_PLAYING_SOUNDS; i++) {\n        if (playing_sounds[i].in_use) {\n            ma_sound_set_pitch(&playing_sounds[i].sound, pitch);  // Line 1479\n        }\n    }\n\n    // Update music on all channels\n    for (int i = 0; i < MUSIC_CHANNELS; i++) {\n        if (music_channels[i].music && music_channels[i].music->initialized) {\n            ma_sound_set_pitch(&music_channels[i].music->sound, pitch);\n        }\n    }\n}\n```\n\n**Purpose:** This implements **global time-scale/slow-motion effects**. When called with `pitch = 0.5`, all audio pitches down to half speed (simulating slow-motion). This is a common game mechanic for:\n- Hitstop effects\n- Slow-motion sequences\n- Freeze frames\n\nCalled via `l_audio_set_master_pitch()` at lines 4920-4924:\n```c\nstatic int l_audio_set_master_pitch(lua_State* L) {\n    float pitch = (float)luaL_checknumber(L, 1);\n    audio_set_master_pitch(pitch);\n    return 0;\n}\n```\n\nRegistered in Lua as `audio_set_master_pitch()` (line 7868).\n\n---\n\n### 8. **Framework Wrapper (YueScript)**\n\n**Location:** `E:\\a327ex\\Anchor\\framework\\anchor\\init.yue`, lines 84-259\n\nThe framework provides high-level wrappers around the C bindings:\n\n#### **Sound Registration:**\n```lua\n-- Lines 231-233\nan.sound = (name, path) =>\n  @sounds[name] = sound_load path\n  @sounds[name]\n```\n\n#### **Sound Playback:**\n```lua\n-- Lines 248-249\nan.sound_play = (name, volume=1, pitch=1) =>\n  sound_play @sounds[name], volume, pitch\n```\n\n#### **Master Volume Control:**\n```lua\n-- Lines 257-258\nan.sound_set_volume = (volume) =>\n  sound_set_volume volume\n```\n\n#### **Music Registration:**\n```lua\n-- Lines 274-276\nan.music = (name, path) =>\n  @tracks[name] = music_load path\n  @tracks[name]\n```\n\n#### **Music Playback:**\n```lua\n-- Lines 291-297\nan.music_play = (name, loop=false, channel=0) =>\n  if @crossfade_state and (channel == @crossfade_state.from_channel or channel == @crossfade_state.to_channel)\n    music_set_volume @crossfade_state.original_from_volume, @crossfade_state.from_channel\n    music_set_volume @crossfade_state.original_to_volume, @crossfade_state.to_channel\n    @crossfade_state = nil\n  music_play @tracks[name], loop, channel\n```\n\n#### **Framework Resource Registry:**\n```lua\n-- Lines 80-86\nan.layers = {}\nan.images = {}\nan.fonts = {}\nan.shaders = {}\nan.sounds = {}      -- Sound registry\nan.tracks = {}      -- Music registry\nan.spritesheets = {}\n```\n\nThe framework acts as a **resource manager**, storing handles in named registries and providing convenient wrapper methods that call the underlying C functions with sensible defaults.\n\n---\n\n### **Summary**\n\nThe Anchor engine's sound system is a two-tier architecture:\n\n1. **C Layer** (`anchor.c`):\n   - Fire-and-forget sound pool (512 slots)\n   - Streaming music with crossfade support (2 channels)\n   - Global master volume and pitch controls\n   - Miniaudio engine for mixing (no custom callbacks)\n   - Opaque userdata handles for Lua integration\n\n2. **YueScript Framework Layer** (`init.yue`):\n   - Named registries (`an.sounds`, `an.tracks`)\n   - Convenient wrapper methods (`an.sound_play`, `an.music_play`)\n   - Crossfade orchestration with tween-based volume interpolation\n   - Playlist system with shuffle and auto-advance\n\nAll audio is managed via **direct C pointer passing** (using `lua_lightuserdata`), which gives high performance while maintaining simple, stateless bindings."
  },
  {
    "type": "text",
    "text": "agentId: a8c738a (for resuming to continue this agent's work if needed)\n<usage>total_tokens: 59555\ntool_uses: 37\nduration_ms: 158216</usage>"
  }
]

[
  {
    "type": "text",
    "text": "Good, there are mirrored docs in the game project too. Now I have everything I need. Let me lay out the full implementation plan.\n\n---\n\n## Implementation Plan: Handle-Based Sound Playback API\n\n### Design Considerations and Decisions\n\n**1. Generation counter for stale handle safety**\n\nThe `PlayingSound` struct needs a generation counter. Without it, the following scenario is dangerous:\n- Game code gets handle 7 for an explosion sound\n- Explosion finishes, slot 7 is cleaned up (`in_use = false`)\n- A new sound gets slot 7\n- Game code calls `sound_set_pitch(7, 0.5)` -- accidentally modifies the wrong sound\n\nAdding a `uint32_t generation` field to `PlayingSound` and returning a packed handle (or separate handle+generation pair) solves this. Since the requirement says \"simple integer handle\" is acceptable and stale handles are OK, the simplest approach is: return the slot index, and add a generation counter that the set functions check. The handle returned to Lua is just the slot index. The generation is stored separately and checked internally when set functions are called, silently no-oping on mismatch. But this requires the caller to also pass the generation... which complicates the API.\n\nSimplest approach that meets the stated constraints: just use the slot index as the handle. The `sound_set_pitch` / `sound_set_volume` functions check `in_use` before acting. If the slot was reused, the caller accidentally modifies a different sound -- the requirement says this is acceptable. If you want safety later, you can add a generation counter.\n\nActually, I'll propose a middle ground: store `user_pitch` and `user_volume` per slot (needed anyway for `audio_set_master_pitch` interaction), and pack the generation into the handle as `(generation << 9) | slot_index` since slot indices are 0-511 (9 bits). This costs nothing API-wise -- it's still a single integer -- but prevents the stale handle problem entirely. Let me evaluate whether to recommend this.\n\nGiven the requirement says \"just check in_use or add a generation counter for safety\" and \"handle should be an integer,\" I'll go with the generation counter approach since it's barely more work and substantially safer.\n\n**2. The `audio_set_master_pitch` interaction problem**\n\nThis is the most important design subtlety. Currently at line 1479, `audio_set_master_pitch` sets every playing sound's pitch to just the master pitch value, discarding whatever per-play pitch was set at `sound_play` time. This is a pre-existing issue for fire-and-forget sounds too (if you play a sound at pitch 1.5, then change master pitch, that sound becomes master pitch only, losing its 1.5).\n\nFor handle-based sounds where the user actively manages pitch, this needs to work correctly. The solution: store `user_pitch` and `user_volume` in the `PlayingSound` struct. Then:\n- `sound_set_pitch(handle, pitch)` stores `user_pitch` and applies `user_pitch * audio_master_pitch`\n- `audio_set_master_pitch()` can iterate and apply `playing_sounds[i].user_pitch * pitch` for each sound\n\nThis fixes the problem for handle-based sounds AND retroactively fixes the existing `audio_set_master_pitch` behavior for fire-and-forget sounds too. The `sound_play` function would set `user_pitch` and `user_volume` on the slot when initializing it.\n\nThis is the right approach -- it's a small addition (two floats per slot) that makes the system correct.\n\n### Step-by-Step Implementation\n\n#### Step 1: Modify `PlayingSound` struct (line 1204 of anchor.c)\n\nAdd generation counter and user-set values:\n\n```c\ntypedef struct {\n    ma_sound sound;\n    ma_decoder decoder;  // Decoder for memory-based sounds\n    bool in_use;\n    uint32_t generation; // Incremented each time slot is allocated\n    float user_pitch;    // Per-instance pitch (before master pitch multiplier)\n    float user_volume;   // Per-instance volume (before master volume multiplier)\n} PlayingSound;\n```\n\n#### Step 2: Modify `sound_play` to store user values (line 1246)\n\nAfter the existing code at lines 1290-1297, change to also store the user values:\n\n```c\n// Store user values for later modification\nplaying_sounds[slot].user_pitch = pitch;\nplaying_sounds[slot].user_volume = volume;\n\n// Apply volume: per-play volume * master volume (perceptual scaling)\nma_sound_set_volume(&playing_sounds[slot].sound, linear_to_perceptual(volume * sound_master_volume));\n\n// Apply pitch: per-play pitch * master pitch\nma_sound_set_pitch(&playing_sounds[slot].sound, pitch * audio_master_pitch);\n\nplaying_sounds[slot].generation++;\nplaying_sounds[slot].in_use = true;\nma_sound_start(&playing_sounds[slot].sound);\n```\n\nNote: `generation++` happens at allocation time, before marking `in_use = true`. This means every time a slot is reused, the generation changes.\n\nThe return type of `sound_play` stays `void` -- it remains fire-and-forget. The new function handles the return value.\n\n#### Step 3: Add `sound_play_handle` function (after `sound_play`, around line 1299)\n\nThis is essentially `sound_play` but returns the handle. To avoid code duplication, refactor the slot-finding and initialization into a shared internal function, or (simpler, matching the \"minimal changes\" constraint) just have `sound_play_handle` be a copy that returns the handle.\n\nActually, the cleanest minimal approach: extract the core logic into a helper that returns the slot index, then have both functions call it. But \"minimal changes\" suggests: just make `sound_play` return `int` (the slot, or -1), and have the existing Lua binding `l_sound_play` ignore the return value (it already returns 0 to Lua). Then `l_sound_play_handle` returns it.\n\nEven simpler: change `sound_play` from `void` to `int`, returning the slot index (or -1). This is backward-compatible because C callers that ignore the return value are fine, and the existing `l_sound_play` already returns 0 Lua values. Then add the new C functions and Lua bindings.\n\nHere is the concrete change. Modify `sound_play`'s signature and return:\n\n```c\n// Play a sound with volume and pitch, returns slot index or -1\nstatic int sound_play(Sound* sound, float volume, float pitch) {\n    if (!audio_initialized || !sound) return -1;\n    \n    // ... existing slot-finding code unchanged ...\n    \n    if (slot == -1) {\n        fprintf(stderr, \"No free sound slots available\\n\");\n        return -1;\n    }\n    \n    // ... existing decoder/sound init code unchanged ...\n    \n    // Store user values for later modification\n    playing_sounds[slot].user_pitch = pitch;\n    playing_sounds[slot].user_volume = volume;\n    \n    // Apply volume: per-play volume * master volume (perceptual scaling)\n    ma_sound_set_volume(&playing_sounds[slot].sound, linear_to_perceptual(volume * sound_master_volume));\n    \n    // Apply pitch: per-play pitch * master pitch\n    ma_sound_set_pitch(&playing_sounds[slot].sound, pitch * audio_master_pitch);\n    \n    playing_sounds[slot].generation++;\n    playing_sounds[slot].in_use = true;\n    ma_sound_start(&playing_sounds[slot].sound);\n    return slot;\n}\n```\n\n#### Step 4: Add handle encoding/decoding helpers (after the struct, around line 1211)\n\n```c\n// Handle encoding: pack slot index (9 bits, 0-511) + generation (23 bits) into int32\n// This prevents stale handle reuse without complicating the API\nstatic int sound_handle_encode(int slot, uint32_t generation) {\n    return (int)(((generation & 0x7FFFFF) << 9) | (slot & 0x1FF));\n}\n\nstatic bool sound_handle_decode(int handle, int* out_slot) {\n    int slot = handle & 0x1FF;\n    uint32_t expected_gen = (uint32_t)((handle >> 9) & 0x7FFFFF);\n    if (slot < 0 || slot >= MAX_PLAYING_SOUNDS) return false;\n    if (!playing_sounds[slot].in_use) return false;\n    if ((playing_sounds[slot].generation & 0x7FFFFF) != expected_gen) return false;\n    *out_slot = slot;\n    return true;\n}\n```\n\n#### Step 5: Add `sound_set_pitch` and `sound_set_volume` C functions (after `sound_play`)\n\n```c\n// Set pitch of a playing sound by handle\nstatic void sound_handle_set_pitch(int handle, float pitch) {\n    int slot;\n    if (!sound_handle_decode(handle, &slot)) return;  // Stale or invalid handle\n    playing_sounds[slot].user_pitch = pitch;\n    ma_sound_set_pitch(&playing_sounds[slot].sound, pitch * audio_master_pitch);\n}\n\n// Set volume of a playing sound by handle\nstatic void sound_handle_set_volume(int handle, float volume) {\n    int slot;\n    if (!sound_handle_decode(handle, &slot)) return;  // Stale or invalid handle\n    playing_sounds[slot].user_volume = volume;\n    ma_sound_set_volume(&playing_sounds[slot].sound, linear_to_perceptual(volume * sound_master_volume));\n}\n```\n\n#### Step 6: Fix `audio_set_master_pitch` to use stored per-sound pitch (line 1472)\n\nChange line 1479 from:\n\n```c\nma_sound_set_pitch(&playing_sounds[i].sound, pitch);\n```\n\nto:\n\n```c\nma_sound_set_pitch(&playing_sounds[i].sound, playing_sounds[i].user_pitch * pitch);\n```\n\nThis fixes the pre-existing bug where `audio_set_master_pitch` discards per-sound pitch values. The `user_pitch` field is initialized to `pitch` in `sound_play`, so this is always valid for any in-use slot.\n\n#### Step 7: Add Lua bindings (after `l_sound_play`, around line 4852)\n\n```c\nstatic int l_sound_play_handle(lua_State* L) {\n    Sound* sound = (Sound*)lua_touserdata(L, 1);\n    float volume = (float)luaL_optnumber(L, 2, 1.0);\n    float pitch = (float)luaL_optnumber(L, 3, 1.0);\n    int slot = sound_play(sound, volume, pitch);\n    if (slot == -1) {\n        lua_pushinteger(L, -1);\n    } else {\n        lua_pushinteger(L, sound_handle_encode(slot, playing_sounds[slot].generation));\n    }\n    return 1;\n}\n\nstatic int l_sound_handle_set_pitch(lua_State* L) {\n    int handle = (int)luaL_checkinteger(L, 1);\n    float pitch = (float)luaL_checknumber(L, 2);\n    sound_handle_set_pitch(handle, pitch);\n    return 0;\n}\n\nstatic int l_sound_handle_set_volume(lua_State* L) {\n    int handle = (int)luaL_checkinteger(L, 1);\n    float volume = (float)luaL_checknumber(L, 2);\n    sound_handle_set_volume(handle, volume);\n    return 0;\n}\n```\n\n#### Step 8: Register Lua bindings (line 7857, in the `// --- Audio ---` section)\n\nAdd after line 7858:\n\n```c\nlua_register(L, \"sound_play_handle\", l_sound_play_handle);\nlua_register(L, \"sound_handle_set_pitch\", l_sound_handle_set_pitch);\nlua_register(L, \"sound_handle_set_volume\", l_sound_handle_set_volume);\n```\n\n#### Step 9: Add framework wrappers (in `E:\\a327ex\\Anchor\\framework\\anchor\\init.yue`, after line 249)\n\n```yuescript\n--[[\n  Plays a sound effect by name and returns a handle for later modification.\n\n  Usage:\n    h = an\\sound_play_handle 'engine'\n    h = an\\sound_play_handle 'engine', 0.5        -- half volume\n    h = an\\sound_play_handle 'engine', 1, 1.2     -- normal volume, higher pitch\n\n  Parameters:\n    name   - sound name (registered via an\\sound)\n    volume - (optional) volume 0-1, default 1\n    pitch  - (optional) pitch multiplier, default 1\n\n  Returns: integer handle (-1 if no slot available)\n]]\nan.sound_play_handle = (name, volume=1, pitch=1) =>\n  sound_play_handle @sounds[name], volume, pitch\n\n--[[\n  Sets the pitch of a playing sound by handle.\n\n  Usage:\n    h = an\\sound_play_handle 'engine'\n    an\\sound_handle_set_pitch h, 1.5\n\n  Parameters:\n    handle - sound handle from sound_play_handle\n    pitch  - pitch multiplier (1.0 = normal)\n]]\nan.sound_handle_set_pitch = (handle, pitch) =>\n  sound_handle_set_pitch handle, pitch\n\n--[[\n  Sets the volume of a playing sound by handle.\n\n  Usage:\n    h = an\\sound_play_handle 'engine'\n    an\\sound_handle_set_volume h, 0.3\n\n  Parameters:\n    handle - sound handle from sound_play_handle\n    volume - volume 0-1\n]]\nan.sound_handle_set_volume = (handle, volume) =>\n  sound_handle_set_volume handle, volume\n```\n\n#### Step 10: Update documentation files\n\nFour doc files need additions:\n\n**`Anchor/docs/ENGINE_API_QUICK.md`** -- add after the `sound_play` line:\n```\nsound_play_handle(sound, volume?, pitch?) -> handle\nsound_handle_set_pitch(handle, pitch)\nsound_handle_set_volume(handle, volume)\n```\n\n**`Anchor/docs/ENGINE_API.md`** -- add new sections after the `sound_play` section:\n```markdown\n### sound_play_handle\n\n`sound_play_handle(sound, volume?, pitch?) -> handle`\n\nLike sound_play, but returns an integer handle that can be used to modify the playing sound's pitch and volume. Returns -1 if no slot is available.\n\n```lua\nlocal h = sound_play_handle(engine_sound, 1.0, 1.0)\nsound_handle_set_pitch(h, 1.5)  -- speed up\n```\n\n### sound_handle_set_pitch\n\n`sound_handle_set_pitch(handle, pitch)`\n\nSets the pitch of a playing sound. Pitch is multiplied by the master pitch. If the handle is stale (sound finished or slot reused), this is a no-op.\n\n### sound_handle_set_volume\n\n`sound_handle_set_volume(handle, volume)`\n\nSets the volume of a playing sound. Volume is multiplied by the master volume and passed through perceptual scaling. If the handle is stale, this is a no-op.\n```\n\n**`Anchor/docs/FRAMEWORK_API_QUICK.md`** and **`Anchor/docs/FRAMEWORK_API.md`** -- analogous additions with `an\\` prefix syntax.\n\nThe same four files are mirrored in `emoji-ball-battles/docs/` and should receive the same changes.\n\n### Summary of All Changes\n\n| File | Changes |\n|------|---------|\n| `Anchor/engine/src/anchor.c` | Modify `PlayingSound` struct (add 3 fields), change `sound_play` to return `int` and store user values, add handle encode/decode helpers, add `sound_handle_set_pitch` + `sound_handle_set_volume`, add 3 Lua bindings, register 3 bindings, fix `audio_set_master_pitch` to preserve per-sound pitch |\n| `Anchor/framework/anchor/init.yue` | Add 3 framework wrapper functions with doc comments |\n| `Anchor/docs/ENGINE_API_QUICK.md` | Add 3 function signatures |\n| `Anchor/docs/ENGINE_API.md` | Add 3 function sections |\n| `Anchor/docs/FRAMEWORK_API_QUICK.md` | Add 3 framework function signatures |\n| `Anchor/docs/FRAMEWORK_API.md` | Add 3 framework function sections |\n| `emoji-ball-battles/docs/ENGINE_API_QUICK.md` | Mirror engine doc changes |\n| `emoji-ball-battles/docs/ENGINE_API.md` | Mirror engine doc changes |\n| `emoji-ball-battles/docs/FRAMEWORK_API_QUICK.md` | Mirror framework doc changes |\n| `emoji-ball-battles/docs/FRAMEWORK_API.md` | Mirror framework doc changes |\n\n### Potential Concerns\n\n**The `audio_set_master_pitch` fix is a behavior change.** Currently, calling `audio_set_master_pitch(0.5)` sets every playing sound to pitch 0.5 regardless of what pitch they were spawned with. After this change, a sound spawned at pitch 1.5 would become `1.5 * 0.5 = 0.75`. This is arguably more correct, but it is a semantic change to existing behavior. If the existing behavior is relied upon (intentionally flattening all pitches to the master value for a slow-mo effect), this would change how that feels.\n\nI think it is the right fix -- the current behavior is almost certainly a bug, not intentional. A sound played at pitch 2.0 shouldn't suddenly drop to 0.5 when master pitch is set. But it is worth noting.\n\n**Handle size.** With 9 bits for slot (512 slots) and 23 bits for generation, the generation wraps every ~8 million allocations per slot. A collision (stale handle accidentally matching a new allocation) requires the exact same slot to be reused exactly 8,388,608 times AND the old handle to still be held. This is effectively impossible in practice.\n\n**No `sound_handle_stop` function.** The requirements don't ask for it, but it's a natural companion. I'm not adding it to the plan since it wasn't requested, but it would be trivial to add later: `ma_sound_stop(&playing_sounds[slot].sound)` after decode.\n\n### Critical Files for Implementation\n\n- `E:\\a327ex\\Anchor\\engine\\src\\anchor.c` - Core engine file containing the PlayingSound struct, sound_play function, Lua bindings, and binding registration table. All C-level changes happen here.\n- `E:\\a327ex\\Anchor\\framework\\anchor\\init.yue` - Framework wrapper layer where the `an.sound_play_handle`, `an.sound_handle_set_pitch`, and `an.sound_handle_set_volume` YueScript wrappers go.\n- `E:\\a327ex\\Anchor\\docs\\ENGINE_API.md` - Engine API documentation needing new function sections.\n- `E:\\a327ex\\Anchor\\docs\\FRAMEWORK_API.md` - Framework API documentation needing new function sections.\n- `E:\\a327ex\\Anchor\\docs\\ENGINE_API_QUICK.md` - Quick reference needing new function signatures."
  },
  {
    "type": "text",
    "text": "agentId: a2bfb72 (for resuming to continue this agent's work if needed)\n<usage>total_tokens: 29810\ntool_uses: 22\nduration_ms: 161060</usage>"
  }
]

7855→    // --- Audio ---
  7856→    lua_register(L, "sound_load", l_sound_load);
  7857→    lua_register(L, "sound_play", l_sound_play);
  7858→    lua_register(L, "sound_set_volume", l_sound_set_volume);
  7859→    lua_register(L, "music_load", l_music_load);
  7860→    lua_register(L, "music_play", l_music_play);
  7861→    lua_register(L, "music_stop", l_music_stop);
  7862→    lua_register(L, "music_set_volume", l_music_set_volume);
  7863→    lua_register(L, "music_is_playing", l_music_is_playing);
  7864→    lua_register(L, "music_at_end", l_music_at_end);
  7865→    lua_register(L, "music_get_position", l_music_get_position);
  7866→    lua_register(L, "music_get_duration", l_music_get_duration);
  7867→    lua_register(L, "music_get_volume", l_music_get_volume);
  7868→    lua_register(L, "audio_set_master_pitch", l_audio_set_master_pitch);
  7869→    lua_register(L, "rgba", l_color_rgba);
  7870→    lua_register(L, "set_filter_mode", l_set_filter_mode);
  7871→    lua_register(L, "get_filter_mode", l_get_filter_mode);
  7872→    lua_register(L, "timing_resync", l_timing_resync);
  7873→    // --- Effect Shaders ---
  7874→    lua_register(L, "shader_load_file", l_shader_load_file);

File created successfully at: C:\Users\adn\.claude\plans\kind-foraging-sunbeam.md

User has approved your plan. You can now start coding. Start with updating your todo list if applicable

Your plan has been saved to: C:\Users\adn\.claude\plans\kind-foraging-sunbeam.md
You can refer back to it if needed during implementation.

## Approved Plan:
# Plan: Handle-Based Sound Playback API



## Context



The game needs to modify a playing sound's pitch over time (e.g., thrust wind sound pitching up during the thrust). Currently `sound_play` is fire-and-forget with no way to modify a sound after it starts playing. We need a variant that returns a handle for later pitch/volume changes.



## Changes



### 1. `Anchor/engine/src/anchor.c`



**Modify `PlayingSound` struct** (line 1204) — add 3 fields:

```c

typedef struct {

    ma_sound sound;

    ma_decoder decoder;

    bool in_use;

    uint32_t generation;  // incremented each allocation, for stale handle detection

    float user_pitch;     // per-instance pitch (before master multiplier)

    float user_volume;    // per-instance volume (before master multiplier)

} PlayingSound;

```



**Add handle encode/decode helpers** (after struct, ~line 1211):

- `sound_handle_encode(slot, generation)` — packs slot (9 bits) + generation (23 bits) into int

... [53 more lines]

1200→// Sound instance pool for fire-and-forget playback
  1201→// Cleaned up from main thread to avoid threading issues
  1202→#define MAX_PLAYING_SOUNDS 512
  1203→
  1204→typedef struct {
  1205→    ma_sound sound;
  1206→    ma_decoder decoder;  // Decoder for memory-based sounds
  1207→    bool in_use;
  1208→} PlayingSound;
  1209→
  1210→static PlayingSound playing_sounds[MAX_PLAYING_SOUNDS];
  1211→static bool playing_sounds_initialized = false;
  1212→
  1213→// Clean up finished sounds (call from main thread each frame)
  1214→static void sound_cleanup_finished(void) {
  1215→    if (!audio_initialized) return;
  1216→
  1217→    for (int i = 0; i < MAX_PLAYING_SOUNDS; i++) {
  1218→        if (playing_sounds[i].in_use) {
  1219→            if (!ma_sound_is_playing(&playing_sounds[i].sound)) {
  1220→                ma_sound_uninit(&playing_sounds[i].sound);
  1221→                ma_decoder_uninit(&playing_sounds[i].decoder);
  1222→                playing_sounds[i].in_use = false;
  1223→            }
  1224→        }
  1225→    }
  1226→}
  1227→
  1228→// Clean up all playing sounds (call on shutdown)
  1229→static void sound_cleanup_all(void) {
... [70 more lines]

1472→// Master pitch (slow-mo) - affects all currently playing audio
  1473→static void audio_set_master_pitch(float pitch) {
  1474→    audio_master_pitch = pitch;
  1475→
  1476→    // Update all playing sounds
  1477→    for (int i = 0; i < MAX_PLAYING_SOUNDS; i++) {
  1478→        if (playing_sounds[i].in_use) {
  1479→            ma_sound_set_pitch(&playing_sounds[i].sound, pitch);
  1480→        }
  1481→    }
  1482→
  1483→    // Update music on all channels
  1484→    for (int i = 0; i < MUSIC_CHANNELS; i++) {
  1485→        if (music_channels[i].music && music_channels[i].music->initialized) {
  1486→            ma_sound_set_pitch(&music_channels[i].music->sound, pitch);
  1487→        }
  1488→    }
  1489→}
  1490→
  1491→// Web audio context unlock (browsers require user interaction before audio plays)

4846→static int l_sound_play(lua_State* L) {
  4847→    Sound* sound = (Sound*)lua_touserdata(L, 1);
  4848→    float volume = (float)luaL_optnumber(L, 2, 1.0);
  4849→    float pitch = (float)luaL_optnumber(L, 3, 1.0);
  4850→    sound_play(sound, volume, pitch);
  4851→    return 0;
  4852→}
  4853→
  4854→static int l_sound_set_volume(lua_State* L) {
  4855→    sound_master_volume = (float)luaL_checknumber(L, 1);
  4856→    return 0;
  4857→}
  4858→
  4859→static int l_music_load(lua_State* L) {
  4860→    const char* path = luaL_checkstring(L, 1);

The file E:\a327ex\Anchor\engine\src\anchor.c has been updated successfully.

The file E:\a327ex\Anchor\engine\src\anchor.c has been updated successfully.

The file E:\a327ex\Anchor\engine\src\anchor.c has been updated successfully.

The file E:\a327ex\Anchor\engine\src\anchor.c has been updated successfully.

The file E:\a327ex\Anchor\engine\src\anchor.c has been updated successfully.

The file E:\a327ex\Anchor\engine\src\anchor.c has been updated successfully.

The file E:\a327ex\Anchor\engine\src\anchor.c has been updated successfully.

4860→
  4861→static int l_layer_draw_glyph(lua_State* L) {
  4862→    Layer* layer = (Layer*)lua_touserdata(L, 1);
  4863→    uint32_t codepoint = (uint32_t)luaL_checkinteger(L, 2);
  4864→    const char* font_name = luaL_checkstring(L, 3);

4853→    const char* font_name = luaL_checkstring(L, 3);
  4854→    float x = (float)luaL_checknumber(L, 4);
  4855→    float y = (float)luaL_checknumber(L, 5);
  4856→    uint32_t color = (uint32_t)luaL_checkinteger(L, 6);
  4857→    layer_draw_text(layer, text, font_name, x, y, color);
  4858→    return 0;
  4859→}
  4860→
  4861→static int l_layer_draw_glyph(lua_State* L) {
  4862→    Layer* layer = (Layer*)lua_touserdata(L, 1);

4886:static int l_sound_play(lua_State* L) {
7897:    lua_register(L, "sound_play", l_sound_play);

4886→static int l_sound_play(lua_State* L) {
  4887→    Sound* sound = (Sound*)lua_touserdata(L, 1);
  4888→    float volume = (float)luaL_optnumber(L, 2, 1.0);
  4889→    float pitch = (float)luaL_optnumber(L, 3, 1.0);
  4890→    sound_play(sound, volume, pitch);
  4891→    return 0;
  4892→}
  4893→
  4894→static int l_sound_set_volume(lua_State* L) {
  4895→    sound_master_volume = (float)luaL_checknumber(L, 1);
  4896→    return 0;
  4897→}
  4898→
  4899→static int l_music_load(lua_State* L) {
  4900→    const char* path = luaL_checkstring(L, 1);

The file E:\a327ex\Anchor\engine\src\anchor.c has been updated successfully.

The file E:\a327ex\Anchor\engine\src\anchor.c has been updated successfully.

245-      volume - (optional) volume 0-1, default 1
246-      pitch  - (optional) pitch multiplier, default 1
247-  ]]
248:  an.sound_play = (name, volume=1, pitch=1) =>
249-    sound_play @sounds[name], volume, pitch
250-  
251-  --[[

248→  an.sound_play = (name, volume=1, pitch=1) =>
   249→    sound_play @sounds[name], volume, pitch
   250→  
   251→  --[[
   252→    Sets the master volume for all sound effects.
   253→  
   254→    Usage:
   255→      an\sound_set_volume 0.5  -- half volume
   256→  ]]
   257→  an.sound_set_volume = (volume) =>
   258→    sound_set_volume volume
   259→  
   260→  --[[
   261→    Registers a named music track.
   262→

The file E:\a327ex\Anchor\framework\anchor\init.yue has been updated successfully.

src/anchor.c(8571): warning C4996: 'strcat': This function or variable may be unsafe. Consider using strcat_s instead. To disable deprecation, use _CRT_SECURE_NO_WARNINGS. See online help for details.

gl.c

Generating Code...

LINK : warning LNK4098: defaultlib 'MSVCRT' conflicts with use of other libs; use /NODEFAULTLIB:library

Build successful: build/anchor.exe

Command running in background with ID: b3687a7. Output is being written to: C:\Users\adn\AppData\Local\Temp\claude\E--a327ex\tasks\b3687a7.output

{"message":"Successfully stopped task: b3687a7 (cd E:/a327ex/Anchor/framework && ./run.bat 2>&1 | head -20)","task_id":"b3687a7","task_type":"local_bash","command":"cd E:/a327ex/Anchor/framework && ./run.bat 2>&1 | head -20"}

animation.lua
animation.yue
array.lua
array.yue
camera.lua
camera.yue
collider.lua
collider.yue
color.lua
color.yue
font.lua
font.yue
image.lua
image.yue
init.lua
init.yue
layer.lua
layer.yue
math.lua
math.yue
object.lua
object.yue
random.lua
random.yue
shake.lua
shake.yue
spring.lua
spring.yue
spritesheet.lua
spritesheet.yue
... [2 more lines]

1→@echo off
     2→cd /d "%~dp0"
     3→.\yue.exe -r main.yue
     4→.\yue.exe -r anchor/
     5→..\engine\build\anchor.exe .
     6→

The user wants the thrust start wind sound to pitch up as the thrust progresses. The thrust already has a `@thrust_progress` that goes from 0 to 1 over `@thrust_duration`. I need to:

1. Store the sound handle when the thrust starts
2. In the update loop where thrust progress is updated, set the pitch based on progress

Let me find the relevant code sections.

1418→      if @sword_flame
  1419→        flame = @sword_flame
  1420→        dir = angular_velocity >= 0 and 1 or -1
  1421→        speed = angular_speed
  1422→        -- Horizontal force: sin(angle), strongest at π/2 and 3π/2
  1423→        horizontal = math.sin(@angle)*dir
  1424→        -- Scale horizontal: full at right quadrant (0), opposite at left (π) for clockwise
  1425→        horizontal_scale = dir == 1 and (0.35 + 0.65*math.cos(@angle)) or (0.35 - 0.65*math.cos(@angle))
  1426→        horizontal = horizontal*horizontal_scale
  1427→        -- Vertical force: cos(angle), strongest at 0 and π
  1428→        vertical = -math.cos(@angle)*dir
  1429→        -- Only reduce upward (negative) vertical force that makes flame taller
  1430→        if vertical < 0
  1431→          vertical = vertical*0.3
  1432→        -- Add velocity-based force (flame bends opposite to movement direction)

1440-        flame\apply_wind force_angle, force_magnitude

1441-        -- Base height scales with angular velocity (logistic curve)

1442-        flame.velocity_height_scale = 1.6/(1 + math.exp(-(speed - 1.73)))

1443-      -- During thrust, override velocity each frame (starts at current speed, accelerates)

1444-      if @thrusting

1445:        @thrust_progress = math.min(1, @thrust_progress + dt/@thrust_duration)

1446-        speed = math.lerp(math.quad_out(@thrust_progress), @thrust_start_speed, @thrust_end_speed)

1447-        @collider\set_velocity speed*math.cos(@thrust_angle), speed*math.sin(@thrust_angle)

1448-    elseif @weapon_type == 'bow'

1449-      -- Auto-pull bow when cooldown reaches 75%

1450-      bow_should_pull = @cooldown_bar.progress >= 0.75

1773→    -- Stop rotation immediately during hit stop
  1774→    @collider\set_fixed_rotation true
  1775→    @collider\set_angular_velocity 0
  1776→
  1777→    -- Hit stop to signal the thrust
  1778→    an\hit_stop 0.3
  1779→
  1780→    -- After hit stop, begin the actual lunge
  1781→    @timer\after 0.01, 'thrust_start', ->
  1782→      @thrusting = true
  1783→      an\sound_play thrust_start_sounds[thrust_start_sound_index], 0.90, an.random\float(0.95, 1.05)
  1784→      @thrust_hit_this_thrust = false
  1785→      @thrust_progress = 0
  1786→      vx, vy = @collider\get_velocity!
  1787→      @thrust_start_speed = math.length(vx, vy)

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

1780→    -- Stop rotation immediately during hit stop
  1781→    @collider\set_fixed_rotation true
  1782→    @collider\set_angular_velocity 0
  1783→
  1784→    -- Hit stop to signal the thrust
  1785→    an\hit_stop 0.3
  1786→
  1787→    -- After hit stop, begin the actual lunge
  1788→    @timer\after 0.01, 'thrust_start', ->
  1789→      @thrusting = true
  1790→      @thrust_sound_handle = an\sound_play_handle thrust_start_sounds[thrust_start_sound_index], 0.75, 1.0
  1791→      @thrust_hit_this_thrust = false
  1792→      @thrust_progress = 0
  1793→      vx, vy = @collider\get_velocity!
  1794→      @thrust_start_speed = math.length(vx, vy)

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The user wants an exaggerated star particle effect when a sword thrust hits a ball. Let me find the existing star particle effect for projectile-ball hits and the thrust hit code.

889-

890-      -- Spawn star particles at hit location

891-      x = (projectile_object.x + ball_object.x)/2

892-      y = (projectile_object.y + ball_object.y)/2

893-      for i = 1, an.random\int 1, 3

894:        @effects\add star_particle x, y,

895-          flash_on_spawn: true

896-

897-    -- Weapon-ball sensor: deal damage (melee only)

898-    for event in *an\sensor_begin_events 'weapon_hitbox', 'ball'

899-      attacker = event.a  -- weapon_hitbox tag (ball that owns the weapon)

--
2275-    @spring\pull 'text_scale', 0.15, 3, 0.4

2276-    @spring\pull 'text_rotation', an.random\float(-0.1, 0.1), 3, 0.5

2277-

2278-

2279--- Star particle: spawns on collisions, shoots outward, spins, shrinks

2280:class star_particle extends object

2281-  new: (@x, @y, args={}) =>

2282-    super!

2283-    multiplier = args.multiplier or 1

2284-    @velocity = multiplier*(args.velocity or an.random\float 75, 150)

2285-    @direction = args.direction or an.random\angle!

2279→-- Star particle: spawns on collisions, shoots outward, spins, shrinks
  2280→class star_particle extends object
  2281→  new: (@x, @y, args={}) =>
  2282→    super!
  2283→    multiplier = args.multiplier or 1
  2284→    @velocity = multiplier*(args.velocity or an.random\float 75, 150)
  2285→    @direction = args.direction or an.random\angle!
  2286→    @rotation = an.random\angle!
  2287→    @rotation_speed = multiplier*(an.random\float -2*math.pi, 2*math.pi)
  2288→    @duration = multiplier*(args.duration or an.random\float 0.4, 0.6)
  2289→    @sx, @sy = multiplier*14/512, multiplier*14/512  -- star.png is 512x512, scale to ~14 pixels
  2290→
  2291→    @\add timer!
  2292→    @timer\tween @duration, @, {velocity: 0, sx: 0, sy: 0}, math.linear, -> @\kill!
  2293→
  2294→  update: (dt) =>
  2295→    @x += @velocity*math.cos(@direction)*dt
  2296→    @y += @velocity*math.sin(@direction)*dt
  2297→    @rotation += @rotation_speed*dt
  2298→
  2299→    effects\push @x, @y, @rotation, @sx, @sy
  2300→    effects\image an.images.star, 0, 0
  2301→    effects\pop!
  2302→
  2303→
  2304→
  2305→-- Emoji particle: generic emoji that shoots outward and shrinks
  2306→-- angle_mode: nil = spin randomly, 'forward' = face velocity, 'backward' = face opposite, number = fixed angle
  2307→class emoji_particle extends object
  2308→  new: (@x, @y, @image, args={}) =>

897→    -- Weapon-ball sensor: deal damage (melee only)
   898→    for event in *an\sensor_begin_events 'weapon_hitbox', 'ball'
   899→      attacker = event.a  -- weapon_hitbox tag (ball that owns the weapon)
   900→      defender = event.b  -- ball tag (ball that got hit)
   901→
   902→      -- Skip self-hit, same team, and ranged weapons
   903→      continue if attacker == defender
   904→      continue if attacker.team == defender.team
   905→      continue if attacker.weapon_class != 'melee'
   906→
   907→      -- Apply damage (thrust hits use thrust_damage)
   908→      damage = if attacker.thrusting then attacker.thrust_damage else attacker.base_damage
   909→      attacker\flash_weapon!
   910→      defender\take_damage damage, attacker
   911→      if attacker.thrusting
   912→        an\sound_play 'sword_impact_dirt', 0.78, an.random\float(0.95, 1.05)
   913→      attacker.hits_landed += 1
   914→      attacker.weapon_ui\landed_hit!
   915→
   916→      -- Weapon-specific scaling on hit
   917→      if attacker.weapon_type == 'dagger'
   918→        attacker.base_angular_velocity += attacker.base_angular_velocity_increase_per_hit
   919→        attacker.max_angular_velocity = attacker.base_angular_velocity*2
   920→      elseif attacker.weapon_type == 'sword' and attacker.thrusting and not attacker.thrust_hit_this_thrust
   921→        attacker.thrust_hit_this_thrust = true
   922→        attacker.thrust_damage += 1
   923→        @effects\add emoji_text attacker.x, attacker.y - 10, "+1 dmg"
   924→
   925→      -- Hit effect on defender's edge, facing the weapon
   926→      weapon_x = attacker.x + attacker.weapon_visual_offset*math.cos(attacker.angle)

925→      -- Hit effect on defender's edge, facing the weapon
   926→      weapon_x = attacker.x + attacker.weapon_visual_offset*math.cos(attacker.angle)
   927→      weapon_y = attacker.y + attacker.weapon_visual_offset*math.sin(attacker.angle)
   928→      hit_angle = math.angle_to_point(defender.x, defender.y, weapon_x, weapon_y)
   929→      effect_x = defender.x + 1.25*defender.radius*math.cos(hit_angle)
   930→      effect_y = defender.y + 1.25*defender.radius*math.sin(hit_angle)
   931→
   932→      @\hit_effect effect_x, effect_y, attacker.hit_particle_multiplier
   933→      @\hit_stop 0.15*attacker.hit_stop_multiplier
   934→      an.camera.shake\shake 4*attacker.camera_shake_multiplier, 0.12*attacker.camera_shake_multiplier

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The user wants the thrust start sound to randomly pick between wind_small_impact_1 and wind_small_impact_2. Currently it uses the debug `thrust_start_sounds[thrust_start_sound_index]` system. Let me just change the sound play line.

1797:      @thrust_sound_handle = an\sound_play_handle thrust_start_sounds[thrust_start_sound_index], 0.65, @thrust_sound_start_pitch

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

485-    6. WEAPON ENERGY BOOST (compensates for weapon collision energy loss) - weapon-weapon collisions

486-       Problem: Weapon collisions drain energy from the system.

487-       Solution: Apply @weapon_energy_boost (1.14x) on weapon-weapon collisions.

488-       Also cap linear speed at @max_ball_speed and angular velocity at ball.max_angular_velocity.

489-

490-    Speed is capped at @max_ball_speed to prevent things from getting too chaotic.

491-  ]]

492-  early_update: (dt) =>

493-    -- Background gradient (drawn early so clouds appear on top)

494-    bg\rectangle_gradient_v 0, 0, gw, gh, sky_top!, sky_bottom!

495-

496-    -- Pause system: press space or click to start

497-    -- Music

498-    if an\key_is_pressed('m')

499-      an\music_play 'bgm'

500:    if an\key_is_pressed('1')

501-      thrust_start_sound_index = 1

502-      print "Thrust sound: wind_small_impact_1"

503-    if an\key_is_pressed('2')

504-      thrust_start_sound_index = 2

505-      print "Thrust sound: wind_small_impact_2"

506-    if an\key_is_pressed('3')

507-      thrust_start_sound_index = 3

508-      print "Thrust sound: wing_impact_5"

509-    if an\key_is_pressed('4')

510-      thrust_start_sound_index = 4

511-      print "Thrust sound: s6_impact_1_v2"

512-    if an\key_is_pressed('5')

513-      if @player_ball.weapon_type == 'sword' and not @player_ball.thrusting

514-        @player_ball\sword_thrust!

... [1 more lines]

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

172:an\sound 'ball_ball', 'assets/ball_wall.ogg'

173:an\sound 'ball_wall', 'assets/ball_wall.ogg'

174:an\sound 'dagger_dagger', 'assets/dagger_dagger.ogg'

175:an\sound 'dagger_wall', 'assets/dagger_wall.ogg'

176:an\sound 'dagger_ball', 'assets/dagger_ball.ogg'

177:an\sound 'gun_fire_1', 'assets/revolver_shot1.ogg'

178:an\sound 'gun_fire_2', 'assets/revolver_shot2.ogg'

179:an\sound 'gun_fire_3', 'assets/revolver_shot3.ogg'

180:an\sound 'weapon_projectile_1', 'assets/metal_light_2.ogg'

181:an\sound 'weapon_projectile_2', 'assets/metal_light_4.ogg'

182:an\sound 'player_hit', 'assets/player_hit.ogg'

183:an\sound 'player_death', 'assets/player_death.ogg'

184:an\sound 'grass_land_1', 'assets/grass_land1.ogg'

185:an\sound 'grass_land_2', 'assets/grass_land2.ogg'

186:an\sound 'grass_land_3', 'assets/grass_land3.ogg'

187:an\sound 'grass_impact_1', 'assets/grass_impact1.ogg'

188:an\sound 'grass_impact_2', 'assets/grass_impact2.ogg'

189:an\sound 'grass_impact_3', 'assets/grass_impact3.ogg'

190:an\sound 'hop', 'assets/hop.ogg'

191:an\sound 'concrete_1', 'assets/concrete_2.ogg'

192:an\sound 'concrete_2', 'assets/concrete_5.ogg'

193:an\sound 'concrete_3', 'assets/concrete_8.ogg'

194:an\sound 'dagger_swing_1', 'assets/dagger_swing_1.ogg'

195:an\sound 'dagger_swing_2', 'assets/dagger_swing_2.ogg'

196:an\sound 'dagger_swing_3', 'assets/dagger_swing_8.ogg'

197:an\sound 'dagger_swing_4', 'assets/dagger_swing_9.ogg'

198:an\sound 'dagger_swing_5', 'assets/dagger_swing_10.ogg'

199:an\sound 'bow_draw_1', 'assets/bow_string_drawing_fast_2.ogg'

200:an\sound 'bow_draw_2', 'assets/drawing_bow_backwards_6.ogg'

201:an\sound 'bow_draw_3', 'assets/drawing_bow_backwards_9.ogg'

... [16 more lines]

627:      an\sound_play 'ball_ball', 0.4, an.random\float(0.95, 1.05)

711:      an\sound_play 'dagger_wall', 0.54, an.random\float(0.95, 1.05)

742:      an\sound_play 'ball_wall', 0.4, pitch*an.random\float(0.95, 1.05)

755:            an\sound_play "grass_impact_#{an.random\int(1, 3)}", 0.5, an.random\float(0.95, 1.05)

768:        an\sound_play "concrete_#{an.random\int(1, 3)}", 0.7, an.random\float(0.95, 1.05)

769:      -- an\sound_play "arrow_hit_wall_#{an.random\int(1, 2)}", 0.35, an.random\float(0.95, 1.05)

842:      an\sound_play "weapon_projectile_#{an.random\int(1, 2)}", 1.0, an.random\float(0.95, 1.05)

894:        an\sound_play 'sword_impact_dirt', 0.78, an.random\float(0.95, 1.05)

929:      an\sound_play "grass_land_#{an.random\int(1, 3)}", 0.75, an.random\float(0.95, 1.05)

941:      an\sound_play "grass_land_#{an.random\int(1, 3)}", 0.75, an.random\float(0.95, 1.05)

950:      an\sound_play "grass_land_#{an.random\int(1, 3)}", 0.75, an.random\float(0.95, 1.05)

1397:            an\sound_play "sword_swing_#{an.random\int(1, 4)}", 0.7, an.random\float(0.95, 1.05)

1453:          an\sound_play "bow_draw_#{an.random\int(1, 3)}", 1.0, an.random\float(0.95, 1.05)

1480:            an\sound_play "dagger_swing_#{an.random\int(1, 5)}", 0.7, an.random\float(0.95, 1.05)

1496:        an\sound_play 'hop', 0.5, an.random\float(0.95, 1.05)

1644:    an\sound_play 'dagger_ball', 0.88, an.random\float(0.95, 1.05)

1646:    --   an\sound_play 'player_hit', 0.5, an.random\float(0.95, 1.05)

1665:      an\sound_play 'player_death', 0.44, an.random\float(0.95, 1.05)

1702:    an\sound_play "gun_fire_#{an.random\int(1, 3)}", 0.63, an.random\float(0.95, 1.05)

1779:      @thrust_sound_handle = an\sound_play_handle 'wind_small_impact_1', 0.65, @thrust_sound_start_pitch

1864:    an\sound_play "arrow_hit_wall_2", 0.9, an.random\float(0.85, 1.15)

3145:        an\sound_play "grass_land_#{an.random\int(1, 3)}", 0.75, an.random\float(1.3, 1.4)

172→an\sound 'ball_ball', 'assets/ball_wall.ogg'
   173→an\sound 'ball_wall', 'assets/ball_wall.ogg'
   174→an\sound 'dagger_dagger', 'assets/dagger_dagger.ogg'
   175→an\sound 'dagger_wall', 'assets/dagger_wall.ogg'
   176→an\sound 'dagger_ball', 'assets/dagger_ball.ogg'
   177→an\sound 'gun_fire_1', 'assets/revolver_shot1.ogg'
   178→an\sound 'gun_fire_2', 'assets/revolver_shot2.ogg'
   179→an\sound 'gun_fire_3', 'assets/revolver_shot3.ogg'
   180→an\sound 'weapon_projectile_1', 'assets/metal_light_2.ogg'
   181→an\sound 'weapon_projectile_2', 'assets/metal_light_4.ogg'
   182→an\sound 'player_hit', 'assets/player_hit.ogg'
   183→an\sound 'player_death', 'assets/player_death.ogg'
   184→an\sound 'grass_land_1', 'assets/grass_land1.ogg'
   185→an\sound 'grass_land_2', 'assets/grass_land2.ogg'
   186→an\sound 'grass_land_3', 'assets/grass_land3.ogg'
   187→an\sound 'grass_impact_1', 'assets/grass_impact1.ogg'
   188→an\sound 'grass_impact_2', 'assets/grass_impact2.ogg'
   189→an\sound 'grass_impact_3', 'assets/grass_impact3.ogg'
   190→an\sound 'hop', 'assets/hop.ogg'
   191→an\sound 'concrete_1', 'assets/concrete_2.ogg'
   192→an\sound 'concrete_2', 'assets/concrete_5.ogg'
   193→an\sound 'concrete_3', 'assets/concrete_8.ogg'
   194→an\sound 'dagger_swing_1', 'assets/dagger_swing_1.ogg'
   195→an\sound 'dagger_swing_2', 'assets/dagger_swing_2.ogg'
   196→an\sound 'dagger_swing_3', 'assets/dagger_swing_8.ogg'
   197→an\sound 'dagger_swing_4', 'assets/dagger_swing_9.ogg'
   198→an\sound 'dagger_swing_5', 'assets/dagger_swing_10.ogg'
   199→an\sound 'bow_draw_1', 'assets/bow_string_drawing_fast_2.ogg'
   200→an\sound 'bow_draw_2', 'assets/drawing_bow_backwards_6.ogg'
   201→an\sound 'bow_draw_3', 'assets/drawing_bow_backwards_9.ogg'
... [16 more lines]

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

8:- Implement status effect line UI class that displays a letter + number using emoji assets with recoloring shader

9:- Add status effect container to ball class that tracks active effects and their stack counts

18:- Fencer class: 

19:  - PASSIVE gains fencing stacks per parry (+1 damage per stack, low duration)

20:  - ACTIVE triggers lunge attack (like Earclacks' Lance) at X fencing stacks. 

22:- Spellblade class: 

23:  - PASSIVE: swaps weapons periodically between dagger and staff/wand

25:- Musical instrument weapon: adds notes that orbit around caster on hit, +notes per hit

No files found

No files found

E:\a327ex\emoji-ball-battles\reference\super-emoji-box\engine\class.lua
E:\a327ex\emoji-ball-battles\reference\super-emoji-pop-prototype\src\engine\class.lua
E:\a327ex\emoji-ball-battles\reference\super-emoji-invaders\src\engine\class.lua
E:\a327ex\emoji-ball-battles\reference\super-emoji-pairs\src\engine\class.lua
E:\a327ex\emoji-ball-battles\reference\emoji-merge-main\anchor\class.lua
E:\a327ex\emoji-ball-battles\reference\super emoji box\lun\class.lua
E:\a327ex\emoji-ball-battles\reference\super emoji pop\lun\class.lua

The user wants me to create an implementation order for all remaining weapons and add it to todo.md. Let me re-read the current todo.md and the weapon design doc to make sure I have all the details, then create a well-organized order that interleaves easy and hard weapons.

Let me first re-read the current todo.md to see what's there.

1→# TODO
     2→
     3→*Items ordered by priority (highest first)*
     4→
     5→This file tracks ideas and future tasks, not active implementation work. Each item should be a self-contained task starting with "- ". Subsections are allowed (indented "- ") but prefer flat, independent tasks over nested structures. The user periodically reorders items so higher priority tasks float to the top. When implementing features, use separate implementation plans rather than this file.
     6→
     7→- Create letter emoji assets (at minimum: P, B, S, F, K) for status effect identifiers
     8→- Implement status effect line UI class that displays a letter + number using emoji assets with recoloring shader
     9→- Add status effect container to ball class that tracks active effects and their stack counts
    10→- Implement stack consumption logic that triggers the effect and decrements the stack count
    11→- Remove status effect line from display when its stack count reaches zero
    12→- Apply recoloring shader to status effect lines with a distinct color per effect type
    13→- Handle vertical positioning of multiple simultaneous status effect lines above the emoji
    14→- UI effect anti-overlap system: tag all floating UI effects (status_text, emoji_text, damage numbers) as spatial UI elements with a bounding box
    15→- UI effect anti-overlap system: when spawning a new UI element, query all active UI elements for their current bounding boxes and projected positions
    16→- UI effect anti-overlap system: find the closest unoccupied position to the desired spawn point that doesn't visually collide with existing UI elements
    17→- UI effect anti-overlap system: account for movement direction/velocity of existing elements (e.g., emoji_text floats upward) when checking for collisions
    18→- Fencer class: 
    19→  - PASSIVE gains fencing stacks per parry (+1 damage per stack, low duration)
    20→  - ACTIVE triggers lunge attack (like Earclacks' Lance) at X fencing stacks. 
    21→  - Synergizes with duration items - even small duration boosts compound into much higher damage.
    22→- Spellblade class: 
    23→  - PASSIVE: swaps weapons periodically between dagger and staff/wand
    24→  - Dagger deals physical damage, all physical damage applies Ethereal stacks but deals 0 damage. First magical damage with wand pops ethereal stacks and makes target ethereal for [stacks] seconds.
    25→- Musical instrument weapon: adds notes that orbit around caster on hit, +notes per hit
    26→- Lightning: periodically deals lightning damage in an area around it, +damage per hit
    27→- Item: -X stack threshold. Reduces threshold for any stack-triggered effect (e.g., -1 threshold makes 3-stack Stun trigger at 2 stacks instead).
    28→

E:\a327ex\emoji-ball-battles\docs\WEAPON_DESIGN.md

1→# Weapon Design
     2→
     3→Emoji candidates for weapons.
     4→
     5→---
     6→
     7→## Gameplay Mechanics
     8→
     9→Status effects and systems that weapons/items can interact with.
    10→
    11→### Poison (P)
    12→- **Mechanic:** Intensity (Independent)
    13→- **Tick rate:** 0.5s
    14→- **Damage per tick:** 1 per stack
    15→- **Duration:** 2 seconds per stack (each expires independently)
    16→- **Display:** P [stacks]
    17→- 1 stack = 4 ticks = 4 damage over 2s
    18→- At steady state 1 hit/s ≈ 2 stacks active = 4 DPS
    19→- Synergizes with fast-hitting weapons
    20→
    21→### Bleed (B)
    22→- **Mechanic:** Counter (Wall Triggers)
    23→- **Trigger:** Target hits a wall
    24→- **Damage per trigger:** 1, consumes 1 stack
    25→- **Display:** B [stacks]
    26→- Converts wall bounces into damage
    27→- Synergizes with knockback (more bounces = more damage)
    28→
    29→### Burn (B)
    30→- **Mechanic:** Intensity (Refreshing)
... [424 more lines]

OK, so the WEAPON_DESIGN.md has a LOT more weapons than PHASE2_WEAPONS.md. Let me look at the full list of designed weapons:

Already implemented:

- Dagger
- Gun
- Sword
- Bow

Remaining from the full design doc (not just PHASE2):

1. Kitchen Knife - rotation, bleed
2. Axe - rotation, execute threshold
3. Hammer - rotation, heavy, stun
4. Trident - water beam, continuous damage
5. Shield - reflects, state machine
6. Boomerang - throws, returns


7. Chain + Hook - latches, drains, flings, bleed
8. Anchor - rotates, launches toward enemy
9. Saw - rapid small hits while in contact
10. Boxing Glove - rapid punches then charged
11. Wrench - spawns turrets
12. Flashlight - cone of light
13. Broom - wide arc, jump
14. Syringe - throws, poison
15. Sewing Needle - physics thread
16. Bone - throws, bounces, catch
17. Rock - throws in arc
18. Log - teleport when hit
19. Frying Pan - slow, +damage per parry

There's quite a bit more to work through here beyond the Phase 2 scope. Spoon - homing projectiles

21. Magic Wand - star projectiles
22. Test Tube - acid pool
23. Pencil - damaging trail
24. Pen - damaging trail
25. Umbrella - reflects, knockback, wall damage
26. Fan - slow dash projectiles
27. Guitar - music projectile
28. Bell - resonance stacks
29. Clock - time stop, knives
30. Candle - fire projectiles, burn
31. Meat on Bone - heavy melee, heals
32. Honeypot - spawns bees
33. Keyboard - spawns robots
34. CD - spawns CDs, infinite bounces

That's 34 weapons total (including 4 implemented), so 30 remaining. That's a lot more than the 15 from PHASE2.

Now I'm thinking through an implementation order that alternates between straightforward and complex weapons, with clear descriptions of what each one needs. I'm grouping them by difficulty - the very easy ones are mostly reskins of existing mechanics like the gun or bow with minor tweaks (Magic Wand with multi-projectiles, Rock with gravity, Candle with burn status, Fan with rotation, Guitar as a simple projectile, Frying Pan with parry mechanics, Kitchen Knife with bleed, Syringe with poison, CD with bouncing). Then there's the easy-medium tier where I'm adding one new system on top of existing ones, like Hammer combining rotation with a new impact effect. heavy tag + stun)

- Axe (rotation + execute threshold)
- Saw (rotation + rapid tick damage while in contact)
- Meat on Bone (rotation + heavy + lifesteal)
- Anchor (rotation + launch projectile behavior)
- Bell (resonance stacks → threshold trigger)
- Spoon (projectile + homing force each frame)

**Medium (1-2 new systems):**

- Boomerang (returning projectile)
- Bone (returning + accumulation mechanic)
- Umbrella (reflect + knockback + gravity mod)
- Boxing Glove (attack pattern state machine)
- Shield (state machine: active/broken/respawning)
- Broom (wide arc attack + conditional jump)

**Hard (new major systems):**

- Trident (beam/continuous damage)
- Pencil (trail system)
- Flashlight (cone AoE)
- Test Tube (acid pool zone)
- Chain + Hook (latch + drain + pull + fling)
- Sewing Needle (physics thread)
- Log (teleportation + substitution)
- Clock (time stop)
- Wrench (turret minions)
- Honeypot (bee minions)
- Keyboard (robot minions)

I need to recognize that status effects like bleed, poison, burn, and stun are foundational infrastructure that multiple weapons depend on, so I should prioritize building that system early. Now I'm planning an implementation order that starts with the simplest weapons, interleaves a few easy ones between medium-difficulty ones, and ensures status effects are available when needed. Looking at the remaining weapon blocks, I'm organizing them by the systems they introduce: returning projectiles with Boomerang and CD, then homing mechanics with Spoon, followed by state machine patterns for Boxing Glove and Shield, zone-based effects like trails and cone AoE, and finally the more complex weapons that combine multiple systems.

Now I'm reconsidering the distribution—the user wants easy weapons interspersed with harder ones rather than grouping all the complex mechanics together, so I should probably shuffle these blocks to alternate difficulty levels instead of stacking all the advanced systems at the end.

I'm also realizing I need to map out what new systems each weapon actually requires: status effects, heavy physics, homing and returning projectiles, multi-phase attack patterns, weapon state management, persistent damage zones, beam mechanics, area-of-effect cones, minion AI, and physics interactions. These are the foundational systems I'll need to build incrementally as I introduce weapons.

1→# TODO
     2→
     3→*Items ordered by priority (highest first)*
     4→
     5→This file tracks ideas and future tasks, not active implementation work. Each item should be a self-contained task starting with "- ". Subsections are allowed (indented "- ") but prefer flat, independent tasks over nested structures. The user periodically reorders items so higher priority tasks float to the top. When implementing features, use separate implementation plans rather than this file.
     6→
     7→- Create letter emoji assets (at minimum: P, B, S, F, K) for status effect identifiers
     8→- Implement status effect line UI class that displays a letter + number using emoji assets with recoloring shader
     9→- Add status effect container to ball class that tracks active effects and their stack counts
    10→- Implement stack consumption logic that triggers the effect and decrements the stack count
    11→- Remove status effect line from display when its stack count reaches zero
    12→- Apply recoloring shader to status effect lines with a distinct color per effect type
    13→- Handle vertical positioning of multiple simultaneous status effect lines above the emoji
    14→- UI effect anti-overlap system: tag all floating UI effects (status_text, emoji_text, damage numbers) as spatial UI elements with a bounding box
    15→- UI effect anti-overlap system: when spawning a new UI element, query all active UI elements for their current bounding boxes and projected positions
    16→- UI effect anti-overlap system: find the closest unoccupied position to the desired spawn point that doesn't visually collide with existing UI elements
    17→- UI effect anti-overlap system: account for movement direction/velocity of existing elements (e.g., emoji_text floats upward) when checking for collisions
    18→- Fencer class: 
    19→  - PASSIVE gains fencing stacks per parry (+1 damage per stack, low duration)
    20→  - ACTIVE triggers lunge attack (like Earclacks' Lance) at X fencing stacks. 
    21→  - Synergizes with duration items - even small duration boosts compound into much higher damage.
    22→- Spellblade class: 
    23→  - PASSIVE: swaps weapons periodically between dagger and staff/wand
    24→  - Dagger deals physical damage, all physical damage applies Ethereal stacks but deals 0 damage. First magical damage with wand pops ethereal stacks and makes target ethereal for [stacks] seconds.
    25→- Musical instrument weapon: adds notes that orbit around caster on hit, +notes per hit
    26→- Lightning: periodically deals lightning damage in an area around it, +damage per hit
    27→- Item: -X stack threshold. Reduces threshold for any stack-triggered effect (e.g., -1 threshold makes 3-stack Stun trigger at 2 stacks instead).
    28→

The file E:\a327ex\emoji-ball-battles\todo.md has been updated. Here's the result of running `cat -n` on a snippet of the edited file:
     1→# TODO
     2→
     3→*Items ordered by priority (highest first)*
     4→
     5→This file tracks ideas and future tasks, not active implementation work. Each item should be a self-contained task starting with "- ". Subsections are allowed (indented "- ") but prefer flat, independent tasks over nested structures. The user periodically reorders items so higher priority tasks float to the top. When implementing features, use separate implementation plans rather than this file.
     6→
     7→---
     8→
     9→## Weapon Implementation Order
    10→
    11→*Interleaved easy/hard for pacing. Already implemented: Dagger, Gun, Sword, Bow.*
    12→
    13→### Block 1: Easy projectile weapons (no new systems needed)
    14→
    15→- 🪄 Magic Wand — periodically casts star projectile, +projectiles per hit
    16→  - Copy Gun's firing logic (periodic fire when aligned)
    17→  - Add multi-projectile scaling from Bow (fire N projectiles, increment per hit)
    18→  - Star projectile visual (use star image, no gravity)
    19→  - Magical damage type tag (vs Gun's physical)
    20→
    21→- 🪨 Rock — throws rocks in arc, +rock count per hit
    22→  - Copy Gun's firing logic
    23→  - Add gravity to projectile (like arrow parry's gravity_scale)
    24→  - Multi-projectile scaling per hit (like Bow)
    25→  - Arc trajectory: fire at angle above target, gravity brings it down
    26→
    27→- 🪭 Fan — releases slow dash projectiles, +projectile count per hit
    28→  - Copy Gun's firing logic
    29→  - Projectile moves slowly (low velocity), no gravity
... [277 more lines]

E:\a327ex\emoji-ball-battles\assets\batoru_umi_to_mamono_no_kodomo_tachi.ogg

E:\a327ex\emoji-ball-battles\assets\閻浮提 - Enbudai [Speder2]_4.mp4

[libvorbis @ 00000215474e0b00] Queue input is backward in time

size=    1792KiB time=00:00:44.06 bitrate= 333.2kbits/s speed=84.3x elapsed=0:00:00.52    
size=    3840KiB time=00:01:28.73 bitrate= 354.5kbits/s speed=85.5x elapsed=0:00:01.03    
size=    5888KiB time=00:02:12.45 bitrate= 364.2kbits/s speed=85.2x elapsed=0:00:01.55    
size=    7936KiB time=00:02:56.51 bitrate= 368.3kbits/s speed=85.4x elapsed=0:00:02.06    
[out#0/ogg @ 00000215474d52c0] video:0KiB audio:8102KiB subtitle:0KiB other streams:0KiB global headers:4KiB muxing overhead: 0.568789%

size=    8148KiB time=00:03:00.09 bitrate= 370.6kbits/s speed=85.4x elapsed=0:00:02.10

218:an\music 'bgm', 'assets/batoru_umi_to_mamono_no_kodomo_tachi.ogg'

<tool_use_error>File has not been read yet. Read it first before writing to it.</tool_use_error>

   216→-- an\sound 'wing_impact_5', 'assets/wing_impact_5.ogg'
   217→-- an\sound 's6_impact_1_v2', 'assets/s6_impact_1_v2.ogg'
   218→an\music 'bgm', 'assets/batoru_umi_to_mamono_no_kodomo_tachi.ogg'
   219→an\music_set_volume 0.8
   220→
   221→-- Physics
   222→an\physics_init!
   223→an\physics_set_gravity 0, 384
   224→an\physics_tag 'wall'
   225→an\physics_tag 'ball'

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

497-    -- Pause system: press space or click to start

498-    -- Music

499:    if an\key_is_pressed('m')

500-      an\music_play 'bgm'

501-

The file E:\a327ex\emoji-ball-battles\main.yue has been updated successfully.

8863ef0 EBB Bow 2
2f15ee6 EBB Bow
48360ac EBB UI 2
664d801 EBB Sword
4119ead EBB Sword (Redo)
b523f5a Update todo
97b1a4c EBB Status Effect System Design
2dc6c03 Sync API documentation and update main.lua
626d713 EBB Weapon Design and Plan
413decf EBB Gameplay Mechanics, UI 2
dd8e77f EBB UI 1
23ae623 EBB Sounds 1
647a264 EBB Visual Polish
ed892d7 Wall Dither Checkpoint
d10ac4c EBB Combat Juice Part 3 (Gun)
56a7970 EBB Combat Juice Part 2 (Plants)
72510b7 EBB Combat Juice Part 1
28b43fa EBB Juice Archeology and Plan
2af56bb EBB Weapon Rotation Mechanics
d49e377 EBB Ball Bouncing Mechanics

122:--   gun_fire_1 (revolver_shot1): -24.7 dB → 0.54
123:--   gun_fire_2 (revolver_shot2): -24.9 dB → 0.56
124:--   gun_fire_3 (revolver_shot3): -23.3 dB → 0.46
145:an\sound 'gun_fire_1', 'assets/revolver_shot1.ogg'
146:an\sound 'gun_fire_2', 'assets/revolver_shot2.ogg'
147:an\sound 'gun_fire_3', 'assets/revolver_shot3.ogg'
1215:      @timer\when (-> @gun_ready and @\gun_is_aligned!), 'gun_fire', (-> @\gun_fire!)
1481:    an\sound_play "gun_fire_#{an.random\int(1, 3)}", 0.63, an.random\float(0.95, 1.05)
1507:  gun_fire: =>
1562:      @collider\set_bullet true
1575:    @collider\set_bullet false
2374:-- Projectile: rectangle bullet that bounces off walls
2394:    @collider\set_bullet true  -- continuous collision detection
2417:    -- Draw rounded rectangle bullet

-- Projectile: rectangle bullet that bounces off walls
class projectile extends object
  new: (@x, @y, args={}) =>
    super!
    @\tag 'projectile'
    @team = args.team  -- team that spawned this projectile
    @velocity = args.velocity or 10
    @direction = args.direction or 0
    @w = 15
    @h = 8
    @bounces = args.bounces or 0  -- starts at 0, increases with hits landed

    -- Physics collider (physical shape for wall collision)
    @\add collider 'projectile', 'dynamic', 'box', @w, @h
    @collider\set_position @x, @y
    @collider\set_restitution 0.75
    @collider\set_friction 0
    @collider\set_gravity_scale 0.5
    @collider\apply_impulse @velocity*math.cos(@direction), @velocity*math.sin(@direction)
    @collider\set_density 0.4
    @collider\set_bullet true  -- continuous collision detection

    -- Sensor shape for ball detection (passes through balls)
    @ball_sensor = @collider\add_box 'projectile_sensor', @w, @h, {sensor: true}
    @collider\set_density 0, @ball_sensor

    -- Visual feedback
    @\add spring!
    @spring\add 'hit', 1
    @spring\pull 'hit', 0.3, 3, 0.5  -- pop on spawn
... [27 more lines]

2728:class projectile extends object

  2728→class projectile extends object
  2729→  new: (@x, @y, args={}) =>
  2730→    super!
  2731→    @\tag 'projectile'
  2732→    @projectile_type = args.projectile_type or 'bullet'
  2733→    @team = args.team
  2734→    @velocity = args.velocity or 10
  2735→    @direction = args.direction or 0
  2736→    @bounces = args.bounces or 0
  2737→    @shot_id = args.shot_id
  2738→
  2739→    -- Projectile-type-specific setup
  2740→    if @projectile_type == 'bullet'
  2741→      @w = 15
  2742→      @h = 8
  2743→      @\add collider 'projectile', 'dynamic', 'box', @w, @h
  2744→      @collider\set_position @x, @y
  2745→      @collider\set_restitution 0.75
  2746→      @collider\set_friction 0
  2747→      @collider\set_gravity_scale 0.5
  2748→      @collider\set_density 0.4
  2749→    elseif @projectile_type == 'arrow'
  2750→      @w = 18
  2751→      @h = 4
  2752→      @\add collider 'projectile', 'dynamic', 'box', @w, @h
  2753→      @collider\set_position @x, @y
  2754→      @collider\set_restitution 0
  2755→      @collider\set_friction 1
  2756→      @collider\set_gravity_scale 0
  2757→      @collider\set_density 0.1
... [30 more lines]

  gun_fire: =>
    @gun_ready = false
    cooldown = math.max(@minimum_cooldown, @base_cooldown - @hits_landed * @cooldown_reduction_per_hit)
    @timer\after cooldown, 'gun_cooldown', -> @gun_ready = true
    @cooldown_bar\activate cooldown

    -- Check for burstfire
    burstfire_chance = @burstfire_chance_increase_per_hit * @hits_landed
    is_burstfire = an.random\bool burstfire_chance * 100

    if is_burstfire
      burst_delay = math.max(@minimum_burstfire_delay, @base_burstfire_delay - @hits_landed * @burstfire_delay_reduction_per_hit)
      @\fire_single_shot!
      @timer\after burst_delay, -> @\fire_single_shot!
      @timer\after burst_delay * 2, -> @\fire_single_shot!
    else
      @\fire_single_shot!

  -- Sword alignment check: raycast from sword tip to detect enemy
  sword_is_aligned: =>
    tip_offset = @weapon_visual_offset + @weapon_hitbox_length/2
    tip_x = @x + tip_offset*math.cos(@angle)
    tip_y = @y + tip_offset*math.sin(@angle)

    ray_length = 120
    ray_end_x = tip_x + ray_length*math.cos(@angle)
    ray_end_y = tip_y + ray_length*math.sin(@angle)

    -- debug_draw\line tip_x, tip_y, ray_end_x, ray_end_y, 2, red!

... [24 more lines]

1479:  fire_single_shot: =>
1519:      @\fire_single_shot!
1520:      @timer\after burst_delay, -> @\fire_single_shot!
1521:      @timer\after burst_delay * 2, -> @\fire_single_shot!
1523:      @\fire_single_shot!

  fire_single_shot: =>
    -- Sound
    an\sound_play "gun_fire_#{an.random\int(1, 3)}", 0.63, an.random\float(0.95, 1.05)

    gun_tip_offset = @weapon_visual_offset + 12
    perpendicular = @angle - math.pi/2

    -- Spawn boom particle
    boom_offset = an.random\float(0.9, 1.1)*gun_tip_offset
    boom_x = @x + boom_offset*math.cos(@angle) + 10*math.cos(perpendicular)
    boom_y = @y + boom_offset*math.sin(@angle) + 10*math.sin(perpendicular)
    @parent.effects\add boom_particle boom_x, boom_y

    -- Weapon feedback
    @spring\pull 'weapon', 0.6, 3, 0.7
    @spring\pull 'hit', 0.25, 3, 0.5
    @\recoil_weapon!
    @weapon_ui\shoot!

    -- Spawn projectile
    @parent.projectiles\add projectile boom_x, boom_y,
      velocity: 15
      direction: @angle
      flash_on_spawn: true
      team: @team
      bounces: 2

  -- Gun callback: fire projectile with effects
  gun_fire: =>
    @gun_ready = false
... [2 more lines]

1703:  fire_single_shot: =>

1743:      @\fire_single_shot!

1744:      @timer\after burst_delay, -> @\fire_single_shot!

1745:      @timer\after burst_delay * 2, -> @\fire_single_shot!

1747:      @\fire_single_shot!