game-bounce-level-1 / qwen3.6-27b-q6 / log
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← Bounce — Level 1 · play what it built · pi's own transcript
system preamble (from the harness)
You are building a self-contained static demo that will be published to a static host and
opened directly in a browser. Non-negotiable constraints:
- Vanilla HTML, CSS and JavaScript only. No build step, no bundler, no package manager, no
framework, no server-side code, no TypeScript that needs compiling.
- Everything lives in the current directory. `index.html` is the entry point unless the task
says otherwise.
- It must work completely offline. No CDN links, no external fonts, no remote images, no
network requests of any kind. Draw or generate any graphics you need (CSS, SVG, canvas,
inline data URIs), or do without.
- Write files with the write tool. If a file is getting long, write it in chunks (write the
first part, then append with edit) — a single oversized write can be truncated silently.
- Before you finish, read back the files you wrote and confirm they are complete and
consistent. Do not leave any background process running.
Finish the whole task. A partially built page that stops halfway is worse than a smaller
one that is complete.
the prompt (identical for every model)
Build a complete, playable prototype called **Bounce — Level 1** that runs from `index.html`.
It is a horizontal puzzle-platformer about carrying momentum with a rolling red ball. You may
split CSS and JavaScript into `style.css` and `game.js`, but there must be no build step.
The player must be able to start the game, collect all six hoops, reach the exit and see a
Level Complete screen. Three deaths must produce Game Over and then return to a fresh title
screen. Implement only this one level and the systems named below: no water, size changes,
pumps, moving enemies, power-ups, bounce pads or special surfaces, level select or extra levels.
## Controls and the central rule
There are three inputs:
- roll left: Left Arrow, A or numpad 4
- roll right: Right Arrow, D or numpad 6
- bounce: Up Arrow, W, Space or numpad 2
Prevent those keys from scrolling the page while the game has focus. Holding a direction
accelerates the ball. Releasing it does not stop immediately; friction removes its speed over
roughly half a second. Direction changes still work in the air, but at reduced strength.
There is **no jump button and no instant jump impulse**. Bounce is applied only when the ball
lands. Every bounce is the same height: if bounce is held at the moment of landing, the ball is
launched to its full bounce height — about 3 tiles — whether it was standing still or rolling
flat out. Landing without bounce held makes it settle quickly instead.
**Momentum is horizontal only.** A run-up buys distance, never height. Holding bounce through
a series of landings keeps the ball bouncing at that same full height while its horizontal
speed carries it along; going faster makes each hop longer, not taller. Do not implement
variable jump height, a charge-up, or a chain that builds height over consecutive landings.
Every wall the player can clear, they can clear from standing.
## Fixed-step ball physics
One tile is 8 logical pixels. The ball is a circle exactly 1 tile in diameter and has one state
only. Use an accumulator with a fixed simulation timestep; rendering may use
`requestAnimationFrame`, but physics must be identical at different refresh rates.
These values, in tiles and seconds, are a starting point — tune them until it feels right:
| Parameter | Value |
|---|---:|
| gravity | 22 t/s² |
| terminal fall speed | 14 t/s |
| ground acceleration | 18 t/s² |
| maximum roll speed | 6 t/s |
| ground friction when no direction is held | 12 t/s² |
| air control | 0.4 × ground acceleration |
| landing restitution when bounce is not held | 0.35 |
| bounce height | 3.0 tiles |
Derive the launch velocity from the bounce height and gravity rather than hard-coding a
speed. The ball should settle quickly when bounce is not held.
Resolve circle-versus-solid-tile collisions one axis at a time, horizontal first and vertical
second, without corner snagging, sinking, tunnelling or leaving the world. There are no slopes.
Spikes may fill their tile visually, but their lethal hitbox must be a smaller region inside it,
so a clean bounce over a floor spike is never frame-perfect.
Add only two ball effects: a small squash/stretch based on impacts and speed, and a roughly
0.4-second expanding-fragment burst on death. Effects must not alter collision geometry.
## Objects and persistent level state
- **Solid block**: normal collision surface.
- **Spike**: the only hazard. Contact bursts the ball and costs one life.
- **Hoop**: an open ring, collected on overlap. There are exactly 6 and every one is required.
Each awards 100 points and stays collected after death.
- **Checkpoint**: collected on overlap. It awards 200 points once, becomes visibly active
and clears the previous active checkpoint. Respawn at the latest active checkpoint; if none
was reached, respawn at the level spawn. There are exactly 2.
- **Crystal ball**: one optional pickup, off the critical path. It awards 1,000 points and
one life up to the maximum of 5, then stays collected after death.
- **Exit door**: two tiles tall. It is closed, visibly closed and impassable while any hoop
remains. When the counter reaches 0 it visibly opens; touching the open door completes the
level.
Start with 3 lives. On death, play the complete burst before decrementing and respawning. Reset
position and velocity, but preserve collected pickups and checkpoint state. At 0 lives, show
Game Over briefly, then return to the title screen with a completely fresh run; nothing from
the failed run is preserved.
The score is an 8-digit, zero-padded running total. Award 100 per hoop, 200 per checkpoint,
1,000 for the crystal ball, 500 for clearing the level and 1,000 for each life remaining when
the level ends. The Level Complete screen must show the final score.
## Screen and camera
The camera viewport is 16×16 tiles — 128×128 logical pixels — scaled up crisply to suit a
desktop browser. The level is exactly as tall as the viewport and several screens wide, so the
camera scrolls horizontally only. Follow smoothly while keeping the ball near the horizontal
centre, clamp to the level bounds and never reveal outside the map. The camera must not
visibly jitter.
Keep a single HUD bar fixed below the 128×128 world viewport so it never hides a map row. It
contains only: one small ball icon per remaining life, the number of hoops remaining and the
8-digit score, with the score aligned to the right. Do not add objective text, a minimap,
tutorial popups or a pause menu.
## The level is yours to design
Define the level as data — a tile map in the source, parsed at load — rather than as scattered
hard-coded objects, and verify the object counts in your parsed map.
Design it yourself, subject to these constraints:
- It must be **genuinely completable** by a competent player on a keyboard, and every jump it
asks for must be one a single full-height bounce actually makes. Play it through in your head
move by move before you call it done.
- **Leave room.** Space hazards generously — several clear tiles between spikes and after every
landing — so a player arriving at speed has time to react and stop. Nothing frame-perfect,
no leaps of faith, no blind drops onto a hazard, no obstacle that has to be taken at exactly
one speed.
- **Pace it.** Open ground first, so rolling and bouncing can be learned safely; then a wall or
two; then a gap; then a hazard sequence. Difficulty should rise steadily, and the last stretch
before the exit should be the hardest thing in the level.
- The one gap in the floor is floored with spikes rather than bottomless.
- The six hoops sit on the critical path. The crystal ball takes a deliberate detour — a high
ledge or a side alcove — and is never required.
- The two checkpoints bank progress in front of the two hardest stretches.
- Every area is escapable, and a respawn never places the ball inside a solid or a hazard.
## Screen flow and presentation
The title screen contains only the game name, "Press Space to Start" and a one-line control
hint. Space starts a fresh run. The flow is:
```text
Title -> Level 1 -> Level Complete
-> Game Over -> Title
```
Make the world flat, geometric, high-contrast and readable at the small logical resolution.
Use solid fills, no textures or gradients, and at most a one-logical-pixel outline. The player
ball must be red, circular and immediately distinguishable from every other object; choose the
rest of the visual design yourself. Sound is out of scope.
## Completion checklist
Before finishing, read the implementation back and check all of these:
- rolling has inertia and reduced air control;
- every bounce reaches the same height, from standing and at full speed alike;
- speed changes how far a bounce travels and never how high;
- all 6 hoops can be collected and open the previously solid exit;
- spikes burst the ball, consume lives and respawn at the correct checkpoint;
- both checkpoints work and the second overrides the first;
- the optional crystal grants a life and 1,000 points and is off the critical path;
- three deaths reach Game Over and a fresh title state;
- level completion calculates and displays the exact final score;
- the camera traverses the whole level without jitter or out-of-bounds space;
- the simulation behaves the same at different frame rates;
- the level can be finished without a frame-perfect input anywhere.
It must be genuinely playable and completable with keyboard controls.
pi invocation
pi -p --mode json --offline --no-extensions --no-skills --no-prompt-templates --no-context-files --tools read,bash,edit,write --append-system-prompt You are building a self-contained static demo that will be published to a static host and
opened directly in a browser. Non-negotiable constraints:
- Vanilla HTML, CSS and JavaScript only. No build step, no bundler, no package manager, no
framework, no server-side code, no TypeScript that needs compiling.
- Everything lives in the current directory. `index.html` is the entry point unless the task
says otherwise.
- It must work completely offline. No CDN links, no external fonts, no remote images, no
network requests of any kind. Draw or generate any graphics you need (CSS, SVG, canvas,
inline data URIs), or do without.
- Write files with the write tool. If a file is getting long, write it in chunks (write the
first part, then append with edit) — a single oversized write can be truncated silently.
- Before you finish, read back the files you wrote and confirm they are complete and
consistent. Do not leave any background process running.
Finish the whole task. A partially built page that stops halfway is worse than a smaller
one that is complete.
--session-dir /home/lzieniew/Documents/vram-arcade/.work/game-bounce-level-1-v2__qwen3.6-27b-q6__minimal-v1/.session --session-id run --provider llamacpp --model qwen3.6-27b-q6 Build a complete, playable prototype called **Bounce — Level 1** that runs from `index.html`.
It is a horizontal puzzle-platformer about carrying momentum with a rolling red ball. You may
split CSS and JavaScript into `style.css` and `game.js`, but there must be no build step.
The player must be able to start the game, collect all six hoops, reach the exit and see a
Level Complete screen. Three deaths must produce Game Over and then return to a fresh title
screen. Implement only this one level and the systems named below: no water, size changes,
pumps, moving enemies, power-ups, bounce pads or special surfaces, level select or extra levels.
## Controls and the central rule
There are three inputs:
- roll left: Left Arrow, A or numpad 4
- roll right: Right Arrow, D or numpad 6
- bounce: Up Arrow, W, Space or numpad 2
Prevent those keys from scrolling the page while the game has focus. Holding a direction
accelerates the ball. Releasing it does not stop immediately; friction removes its speed over
roughly half a second. Direction changes still work in the air, but at reduced strength.
There is **no jump button and no instant jump impulse**. Bounce is applied only when the ball
lands. Every bounce is the same height: if bounce is held at the moment of landing, the ball is
launched to its full bounce height — about 3 tiles — whether it was standing still or rolling
flat out. Landing without bounce held makes it settle quickly instead.
**Momentum is horizontal only.** A run-up buys distance, never height. Holding bounce through
a series of landings keeps the ball bouncing at that same full height while its horizontal
speed carries it along; going faster makes each hop longer, not taller. Do not implement
variable jump height, a charge-up, or a chain that builds height over consecutive landings.
Every wall the player can clear, they can clear from standing.
## Fixed-step ball physics
One tile is 8 logical pixels. The ball is a circle exactly 1 tile in diameter and has one state
only. Use an accumulator with a fixed simulation timestep; rendering may use
`requestAnimationFrame`, but physics must be identical at different refresh rates.
These values, in tiles and seconds, are a starting point — tune them until it feels right:
| Parameter | Value |
|---|---:|
| gravity | 22 t/s² |
| terminal fall speed | 14 t/s |
| ground acceleration | 18 t/s² |
| maximum roll speed | 6 t/s |
| ground friction when no direction is held | 12 t/s² |
| air control | 0.4 × ground acceleration |
| landing restitution when bounce is not held | 0.35 |
| bounce height | 3.0 tiles |
Derive the launch velocity from the bounce height and gravity rather than hard-coding a
speed. The ball should settle quickly when bounce is not held.
Resolve circle-versus-solid-tile collisions one axis at a time, horizontal first and vertical
second, without corner snagging, sinking, tunnelling or leaving the world. There are no slopes.
Spikes may fill their tile visually, but their lethal hitbox must be a smaller region inside it,
so a clean bounce over a floor spike is never frame-perfect.
Add only two ball effects: a small squash/stretch based on impacts and speed, and a roughly
0.4-second expanding-fragment burst on death. Effects must not alter collision geometry.
## Objects and persistent level state
- **Solid block**: normal collision surface.
- **Spike**: the only hazard. Contact bursts the ball and costs one life.
- **Hoop**: an open ring, collected on overlap. There are exactly 6 and every one is required.
Each awards 100 points and stays collected after death.
- **Checkpoint**: collected on overlap. It awards 200 points once, becomes visibly active
and clears the previous active checkpoint. Respawn at the latest active checkpoint; if none
was reached, respawn at the level spawn. There are exactly 2.
- **Crystal ball**: one optional pickup, off the critical path. It awards 1,000 points and
one life up to the maximum of 5, then stays collected after death.
- **Exit door**: two tiles tall. It is closed, visibly closed and impassable while any hoop
remains. When the counter reaches 0 it visibly opens; touching the open door completes the
level.
Start with 3 lives. On death, play the complete burst before decrementing and respawning. Reset
position and velocity, but preserve collected pickups and checkpoint state. At 0 lives, show
Game Over briefly, then return to the title screen with a completely fresh run; nothing from
the failed run is preserved.
The score is an 8-digit, zero-padded running total. Award 100 per hoop, 200 per checkpoint,
1,000 for the crystal ball, 500 for clearing the level and 1,000 for each life remaining when
the level ends. The Level Complete screen must show the final score.
## Screen and camera
The camera viewport is 16×16 tiles — 128×128 logical pixels — scaled up crisply to suit a
desktop browser. The level is exactly as tall as the viewport and several screens wide, so the
camera scrolls horizontally only. Follow smoothly while keeping the ball near the horizontal
centre, clamp to the level bounds and never reveal outside the map. The camera must not
visibly jitter.
Keep a single HUD bar fixed below the 128×128 world viewport so it never hides a map row. It
contains only: one small ball icon per remaining life, the number of hoops remaining and the
8-digit score, with the score aligned to the right. Do not add objective text, a minimap,
tutorial popups or a pause menu.
## The level is yours to design
Define the level as data — a tile map in the source, parsed at load — rather than as scattered
hard-coded objects, and verify the object counts in your parsed map.
Design it yourself, subject to these constraints:
- It must be **genuinely completable** by a competent player on a keyboard, and every jump it
asks for must be one a single full-height bounce actually makes. Play it through in your head
move by move before you call it done.
- **Leave room.** Space hazards generously — several clear tiles between spikes and after every
landing — so a player arriving at speed has time to react and stop. Nothing frame-perfect,
no leaps of faith, no blind drops onto a hazard, no obstacle that has to be taken at exactly
one speed.
- **Pace it.** Open ground first, so rolling and bouncing can be learned safely; then a wall or
two; then a gap; then a hazard sequence. Difficulty should rise steadily, and the last stretch
before the exit should be the hardest thing in the level.
- The one gap in the floor is floored with spikes rather than bottomless.
- The six hoops sit on the critical path. The crystal ball takes a deliberate detour — a high
ledge or a side alcove — and is never required.
- The two checkpoints bank progress in front of the two hardest stretches.
- Every area is escapable, and a respawn never places the ball inside a solid or a hazard.
## Screen flow and presentation
The title screen contains only the game name, "Press Space to Start" and a one-line control
hint. Space starts a fresh run. The flow is:
```text
Title -> Level 1 -> Level Complete
-> Game Over -> Title
```
Make the world flat, geometric, high-contrast and readable at the small logical resolution.
Use solid fills, no textures or gradients, and at most a one-logical-pixel outline. The player
ball must be red, circular and immediately distinguishable from every other object; choose the
rest of the visual design yourself. Sound is out of scope.
## Completion checklist
Before finishing, read the implementation back and check all of these:
- rolling has inertia and reduced air control;
- every bounce reaches the same height, from standing and at full speed alike;
- speed changes how far a bounce travels and never how high;
- all 6 hoops can be collected and open the previously solid exit;
- spikes burst the ball, consume lives and respawn at the correct checkpoint;
- both checkpoints work and the second overrides the first;
- the optional crystal grants a life and 1,000 points and is off the critical path;
- three deaths reach Game Over and a fresh title state;
- level completion calculates and displays the exact final score;
- the camera traverses the whole level without jitter or out-of-bounds space;
- the simulation behaves the same at different frame rates;
- the level can be finished without a frame-perfect input anywhere.
It must be genuinely playable and completable with keyboard controls.
cwd: /home/lzieniew/Documents/vram-arcade/.work/game-bounce-level-1-v2__qwen3.6-27b-q6__minimal-v1
-
8,192 out-tok · length hit token limit
reasoning This is a massive task - building a complete puzzle-platformer game in vanilla HTML/CSS/JS. Let me plan the architecture…25,632 chars
This is a massive task - building a complete puzzle-platformer game in vanilla HTML/CSS/JS. Let me plan the architecture carefully before writing code. Key requirements: 1. Single `index.html` with optional `style.css` and `game.js` 2. No build step, no external dependencies 3. Fixed-step physics with accumulator 4. Ball physics: gravity, acceleration, friction, air control 5. Bounce mechanic: same height every time, horizontal momentum preserved 6. Level with tiles, spikes, hoops, checkpoints, crystal ball, exit 7. Camera scrolling, HUD 8. Screen flow: Title -> Level -> Complete/Game Over -> Title Let me design the level first, then implement the systems. Level design (16 tiles tall, ~80 tiles wide): - Row 0-13: playable area - Row 14-15: floor (solid) I'll create a tile map as a string array. Tile types: - 0: empty - 1: solid block - 2: spike - 3: hoop - 4: checkpoint - 5: crystal ball - 6: exit door (closed) - 7: exit door (open) Let me think about the level layout carefully: The viewport is 16x16 tiles. The level is 16 tiles tall and ~80 tiles wide. Level layout (x, y) where y=0 is top: ``` Section 1 (x=0-20): Tutorial area - flat ground, learn rolling and bouncing Section 2 (x=20-40): Walls to bounce over Section 3 (x=40-55): Gap with spikes underneath Section 4 (x=55-70): Hazard sequence Section 5 (x=70-80): Final stretch to exit ``` Let me design this more carefully... Actually, let me think about the physics first: - Bounce height: 3 tiles - Gravity: 22 t/s² - Launch velocity: v = sqrt(2 * g * h) = sqrt(2 * 22 * 3) = sqrt(132) ≈ 11.49 t/s - Time to peak: v/g = 11.49/22 ≈ 0.522s - Total bounce time: 2 * 0.522 ≈ 1.044s Max roll speed: 6 t/s So a full-speed bounce covers: 6 * 1.044 ≈ 6.26 tiles horizontally This means gaps need to be at most ~6 tiles wide for a standing bounce at max speed, or less for slower speeds. Let me design the level map. I'll use a grid of characters. Let me write the code now. I'll split into: 1. `index.html` - HTML structure 2. `style.css` - Styling 3. `game.js` - All game logic Let me start with the game.js since it's the most complex. For the level map, I'll define it as an array of strings where each character represents a tile type. Let me think about the level design more carefully: Width: ~90 tiles Height: 16 tiles (rows 0-15) Floor is at row 14-15 (bottom two rows are solid, floor surface at row 14) Actually, let me reconsider. The ball is 1 tile in diameter. If the floor is at row 14, the ball's center would be at y=13.5 when standing on the floor. Let me use row 14 as the floor surface (the top of the floor tiles), so the ball sits on row 14. Let me design the level: ``` Columns: 0 10 20 30 40 50 60 70 80 90 01234567890123456789012... ``` Row 0-12: mostly empty (air) Row 13: floor level (ball center sits here when on ground) Row 14-15: solid floor tiles Wait, let me reconsider the coordinate system. I'll use tile coordinates where the ball's position is in tiles (float). The ball has radius 0.5 tiles. Floor at y=14 means the ball's bottom (center_y + 0.5) touches y=14, so center_y = 13.5. Let me design: ``` x: 0 5 10 15 20 25 30 35 40 45 50 55 60 65 70 75 80 85 90 ``` Section 1 (x=0-20): Tutorial - Flat ground from x=0 to x=20 - Hoop 1 at x=5, y=11 (on ground) - Hoop 2 at x=10, y=11 (on ground) - Checkpoint 1 at x=18 Section 2 (x=20-40): Walls - Wall at x=22, height 3 tiles (y=11-13), needs bounce to clear - Hoop 3 at x=25 - Wall at x=30, height 3 tiles - Hoop 4 at x=33 Section 3 (x=40-55): Gap with spikes - Gap from x=42 to x=48 with spikes underneath - Checkpoint 2 at x=50 Section 4 (x=55-75): Hazards - Spikes on ground at x=58, x=62, x=66 - Hoop 5 at x=60 (between spikes) - Hoop 6 at x=68 Section 5 (x=75-90): Final stretch and exit - Crystal ball on a ledge at x=78, y=8 (high platform) - Exit at x=85 Let me refine this into actual tile data. Actually, I think I should just code this up now. The level design can be refined as I go. Let me write the three files: 1. `index.html` 2. `style.css` 3. `game.js` I'll start with the HTML, then CSS, then the big JS file. For the level map, I'll use a compact string format where each character represents a tile: - `.` = empty - `#` = solid block - `^` = spike - `O` = hoop - `C` = checkpoint - `B` = crystal ball - `E` = exit door (top) - `e` = exit door (bottom) - `S` = spawn point Let me design the full level now. 16 rows, ~90 columns. Row 0: all empty Row 1: all empty ... Row 12: all empty (with some platform tiles for crystal ball) Row 13: floor level (ball center at 13.5) Row 14-15: solid floor Actually wait - let me reconsider. The viewport is 16x16 tiles. If the level is exactly 16 tiles tall, the camera doesn't scroll vertically. Let me use rows 0-15, with the floor surface at row 14 (so rows 14-15 are solid floor tiles). Ball radius = 0.5 tiles. When on the floor, ball center y = 13.5. Bounce height = 3 tiles. So peak y = 13.5 - 3 = 10.5. Let me design the level map as a 2D array of strings. I'll make it 16 rows by 90 columns. Let me be more precise about the level: ``` Row 0: all empty Row 1: all empty Row 2: all empty Row 3: all empty Row 4: all empty Row 5: all empty Row 6: all empty Row 7: all empty Row 8: crystal ball on platform (x=78) Row 9: platform support Row 10: all empty Row 11: hoops on ground level (center at ~11.5) Row 12: empty Row 13: empty (ball center here when on ground at y=13.5) Row 14: floor surface Row 15: floor surface ``` Hmm, actually the hoops should be collectible on overlap. The hoop is 1 tile, and the ball is 1 tile diameter. So the hoop should be at the same level as where the ball rolls. Let me think about this differently. The ball center is at y=13.5 when on the ground. A hoop at tile row 13 (its center at y=13.5) would be at the same level as the ball. That makes sense. For the crystal ball on a high ledge: platform at row 10, crystal at row 10. Ball center at y=10.5 when standing on it. Let me now write the actual level map. I'll use a more compact representation. OK, I'm going to just write the code now. Let me structure game.js: ```javascript // Constants const TILE_SIZE = 8; const VIEWPORT_TILES = 16; const VIEWPORT_SIZE = 128; // Physics constants const GRAVITY = 22; const TERMINAL_VELOCITY = 14; const GROUND_ACCEL = 18; const MAX_SPEED = 6; const FRICTION = 12; const AIR_CONTROL = 0.4 * GROUND_ACCEL; const RESTITUTION = 0.35; const BOUNCE_HEIGHT = 3.0; const BOUNCE_LAUNCH = Math.sqrt(2 * GRAVITY * BOUNCE_HEIGHT); // Tile types const TILE = { EMPTY: 0, SOLID: 1, SPIKE: 2, HOOP: 3, CHECKPOINT: 4, CRYSTAL: 5, EXIT_TOP: 6, EXIT_BOTTOM: 7 }; // Game states const STATE = { TITLE: 0, PLAYING: 1, DYING: 2, LEVEL_COMPLETE: 3, GAME_OVER: 4 }; ``` Let me write the full implementation now. This is going to be a big file. For the level map, I need to be very careful about the design. Let me create a proper level. Level width: 95 tiles Level height: 16 tiles Let me think about each section: **Section 1: Tutorial (x=0 to x=22)** - Flat ground, easy rolling - Hoop 1 at x=6 - Hoop 2 at x=12 - Checkpoint 1 at x=20 **Section 2: Walls (x=22 to x=42)** - Wall at x=24, 3 tiles high (blocks at y=11,12,13) - Hoop 3 at x=27 - Wall at x=33, 3 tiles high - Hoop 4 at x=36 **Section 3: Gap (x=42 to x=55)** - Gap from x=44 to x=50 with spikes at the bottom - Checkpoint 2 at x=53 **Section 4: Spikes (x=55 to x=72)** - Spike clusters at x=58, x=63, x=68 - Hoop 5 at x=60 (between first two spike clusters) - Hoop 6 at x=70 (after last spike cluster) **Section 5: Finale (x=72 to x=95)** - Crystal ball on high ledge at x=78, y=9 - Exit at x=90 Now let me code this. I'll write the level as an array of 16 strings. For the rendering, I'll use a canvas element. The canvas will be 128x128 logical pixels, scaled up with CSS to fit the screen. Let me now write all three files. I'll start with the simplest ones first. Actually, for the level map representation, let me use a more readable format. Each row is a string of characters: ``` ................................................................................................... ``` That's 95 dots for an empty row. Let me be more precise. I'll design the level tile by tile. Level dimensions: 95 columns × 16 rows Row 14 and 15 are the floor (solid tiles everywhere, except where there's a gap). Let me define it: ``` Row 0: all empty (95 chars) Row 1: all empty Row 2: all empty Row 3: all empty Row 4: all empty Row 5: all empty Row 6: all empty Row 7: all empty Row 8: all empty Row 9: ".................................................#........................................." (platform support at x=78) Row 10: ".................................................##......................................." (platform at x=78, crystal at x=78) Row 11: ".................................................###......................................" (platform extends) Row 12: all empty Row 13: all empty Row 14: floor with gap and walls... Row 15: floor with gap and walls... ``` Hmm, this is getting complex. Let me just code it all up in the JS file. For the spike hitbox: the spike tile is 8x8 logical pixels, but the lethal hitbox is smaller. I'll make it a diamond or triangle shape inside the tile, or just a smaller rectangle. Let me use a smaller rectangle: 4x4 centered in the tile, or maybe 6x6. Actually, to make bounces over spikes forgiving, I'll make the hitbox about 5x5 pixels centered in the 8x8 tile. That gives 1.5 pixels of clearance on each side. Actually, the spec says "a smaller region inside it, so a clean bounce over a floor spike is never frame-perfect." So I need the hitbox to be noticeably smaller. Let me make it 4x4 centered in the tile. Wait, but the ball is 8 pixels in diameter (radius 4). If the spike hitbox is 4x4 centered in an 8x8 tile, that means the spike hitbox extends from pixel 2 to 6 in both directions within the tile. The ball's bottom edge at y=13.5+4=17.5 (in pixel coords with tile 14 starting at y=112) would... Let me think in tile coordinates. Spike at tile (x, 14). The spike's lethal hitbox is centered at (x+0.5, 14.5) with size 0.5x0.5 tiles (4x4 pixels). The ball has radius 0.5 tiles. When the ball is on the ground at tile x, its center is at y=13.5. The spike at tile 14 has its hitbox at y=14.5 (center). The ball's bottom is at y=14.0. The spike hitbox extends from y=14.25 to y=14.75. So the ball touching the ground doesn't overlap with the spike hitbox. Good. When the ball bounces over a spike, its center goes up to y=10.5 at peak. The ball's bottom is at y=11.0 at peak. The spike hitbox is at y=14.25 to 14.75. So there's plenty of clearance vertically. But what about when the ball rolls over a spike that's on the ground? If the spike tile is at (x, 14) and the ball rolls over it... wait, the spike IS on the ground. The floor tiles are at row 14. The spike replaces the floor tile. Hmm, I need to reconsider. Let me have the floor at row 14, and spikes are placed on top of the floor or replace floor tiles. Actually, let me reconsider the level structure: - Rows 0-13: air (with objects) - Row 14: floor surface (solid tiles) - Row 15: solid tiles (under floor) Spikes sit ON the floor, so they'd be at row 13 (the air row just above the floor). The spike tile at row 13 has its lethal hitbox in the lower portion, so it protrudes upward from the floor. Wait, that doesn't make sense either. Let me think about this differently. In many platformers, spikes are placed on the ground. The spike tile is a hazard tile that sits where a floor tile would be. The spike's collision is a smaller shape within the tile. Let me have: - Floor at row 14 (solid collision tiles) - Spikes at row 13 (hazard tiles above the floor) - The spike's lethal hitbox is in the lower half of row 13 (so it protrudes up from the floor level) Actually, I think the simplest approach is: - Floor at row 14 - Spikes at row 13, with their lethal hitbox being a smaller region in the bottom part of the tile - The ball can roll past spikes without touching them if it stays on the floor - But if the ball touches the spike hitbox, it dies Wait, but the ball is on the floor at row 14, and spikes at row 13 are above the floor. The ball's center is at y=13.5 when on the floor. The spike at row 13 has its center at y=13.5. So the ball and spike are at the same vertical level! That means if the ball rolls next to a spike on the ground, it would overlap. That's the intended behavior - spikes on the floor are hazards you need to avoid by bouncing over or steering around. Hmm, but that makes floor spikes unavoidable if they're in a line. Let me reconsider. OK, I think the standard approach is: - Floor tiles are solid collision tiles at row 14 - Spike tiles REPLACE floor tiles (they're not solid, they're hazards) - The spike's lethal hitbox is a smaller shape within the tile - The ball can roll over the spike tile (no collision from the tile itself), but if it touches the hitbox, it dies So spikes are NOT solid tiles. They're hazard tiles with a smaller hitbox. The ball can pass through the spike tile but dies if it overlaps the hitbox. For floor spikes, the hitbox is in the upper portion of the tile, so the ball's bottom touches the spike as it rolls over. Wait, but if spikes replace floor tiles, the ball would fall through. Unless... Let me think again. Maybe: - Floor at row 14 (solid) - Spikes at row 13 (above floor, not solid) - The spike hitbox protrudes down into the floor level So the ball rolls on the floor at row 14. A spike at row 13 has its hitbox extending from the bottom of row 13 down into row 14. The ball touches the hitbox as it rolls by. This makes more sense! The spike sits on the floor and the ball touches it from the side. For the hitbox, I'll make it a rectangle that's 5x5 pixels centered in the tile, or maybe a triangle pointing up. Actually, let me simplify. I'll make spikes solid tiles with a smaller hitbox. The spike tile IS solid (the ball bounces off it), but the lethal hitbox is smaller. This way: - Floor spikes are solid tiles with a spike on top - The ball rolls on top of the spike tile - The lethal hitbox is in the upper portion of the tile - The ball touches the hitbox as it rolls over No wait, this is getting too complicated. Let me just go with: - Floor at row 14 (solid tiles) - Spikes at row 13 (NOT solid, just a hazard) - Spike hitbox: a 4x4 pixel region in the lower half of the tile (y=13.5 to y=14.0 in tile coords, so it protrudes into the floor) - The ball at y=13.5 (on the floor) would overlap with this hitbox Hmm, but then the ball always touches floor spikes. That's not right either. OK, I think the cleanest approach is: - Spikes are placed at row 13 (above the floor at row 14) - The spike tile is NOT solid (ball can pass through) - The spike's lethal hitbox is a triangle or small rectangle in the LOWER half of the spike tile - When the ball is on the floor (center at y=13.5), its bottom is at y=14.0 - The spike hitbox in row 13 extends from y=13.5 to y=14.0 (the bottom of the tile) - So the ball at y=13.5 overlaps with the spike hitbox if it's horizontally adjacent This means floor spikes kill the ball if the ball rolls over them. The player needs to bounce over them. For the gap with spikes: the gap has no floor tiles, and spikes are placed at the bottom of the gap. If the ball falls into the gap, it hits the spikes. OK let me just go with this approach and code it up. The spike hitbox will be a smaller rectangle centered in the tile, maybe 5x5 pixels (0.625x0.625 tiles). Actually, I just realized I'm overcomplicating this. Let me re-read the spec: "Spikes may fill their tile visually, but their lethal hitbox must be a smaller region inside it, so a clean bounce over a floor spike isnever frame-perfect." So spikes fill their tile VISUALLY, but the hitbox is smaller. This means: - The spike tile is drawn as a full tile - The hitbox is a smaller region inside - A bounce over a floor spike should be forgiving (not frame-perfect) For floor spikes, the spike tile is at row 13 (above the floor at row 13). The ball rolls on the floor at y=13.5. The spike hitbox is smaller than the full tile, so there's some margin. Let me make the spike hitbox a circle or rectangle that's about 60% of the tile size. So 4.8x4.8 pixels, centered in the tile. When the ball rolls on the floor (center y=13.5), it overlaps with the spike at row 13 (center y=13.5). The spike hitbox has radius ~0.3 tiles. The ball has radius 0.5 tiles. So the distance between centers would need to be > 0.3 + 0.5 = 0.8 tiles for no overlap. Since they're at the same y, the horizontal distance needs to be > 0.8 tiles. This means the ball can pass within 0.2 tiles of the spike center without dying. That's about 1.6 pixels of clearance. That should be forgiving enough. OK, let me just code this up now. I've spent too long thinking about the spike hitbox. Let me write the complete game now. I'll structure it as: 1. `index.html` - minimal HTML with canvas and HUD 2. `style.css` - styling 3. `game.js` - all game logic Let me start writing the code. For the level, I'll use a 2D array. Let me design it carefully: Level: 95 wide × 16 tall I'll represent it as an array of 16 strings. Let me define the level: ``` Row 0: ................................................................................................... Row 1: ................................................................................................... Row 2: ................................................................................................... Row 3: ................................................................................................... Row 4: ................................................................................................... Row 5: ................................................................................................... Row 6: ................................................................................................... Row 7: ................................................................................................... Row 8: ................................................................................................... Row 9: ................................................................................................... Row 10: ................................................................................................... Row 11: ................................................................................................... Row 12: ................................................................................................... Row 13: ................................................................................................... Row 14: ################################################################################################### Row 15: ################################################################################################### ``` That's the base. Now I'll add features: **Tutorial area (x=0-20):** - Hoop 1 at (6, 13) - Hoop 2 at (12, 13) - Checkpoint 1 at (18, 13) **Walls (x=20-42):** - Wall at x=24, 3 tiles high: solid at (24, 11), (24, 12), (24, 13) - But wait, row 14 is the floor. So the wall goes from row 11 to row 13 (3 tiles high) - Ball needs to bounce to clear it. Bounce peak at y=10.5. Wall top at y=11.5. Ball radius 0.5, so ball top at y=10.0. Wall top at y=11.0 (bottom of tile at y=11). Actually, let me reconsider. The wall tiles are at rows 11, 12, 13. The ball needs to pass above row 11. The ball's top at peak is y=10.5-0.5=10.0. The bottom of row 11 is y=11.0. So the ball clears by 1.0 tile. Good. - Hoop 3 at (27, 13) - Wall at x=33, 3 tiles high: solid at (33, 11), (33, 12), (33, 13) - Hoop 4 at (36, 13) **Gap (x=42-55):** - Gap from x=44 to x=50: no floor tiles - Spikes at the bottom of the gap: at (44, 13), (45, 13), (46, 13), (47, 13), (48, 13), (49, 13) - Wait, the gap has no floor. Spikes at row 13 would be floating. Let me put spikes at row 14 (where the floor would be) and row 15. - Actually, for the gap, I'll remove floor tiles at rows 14-15 from x=44 to x=50, and put spikes at row 13 (above the void). Hmm, but then the ball would fall past the spikes into the void. Let me think... The gap is at x=44 to x=50, rows 14-15 are empty (no floor). Spikes at row 13, x=44 to x=50. If the ball falls into the gap, it passes through row 13 (spikes) and falls into the void below. The spike hitbox at row 13 would kill the ball as it falls past. Actually, I should put spikes at row 14 (the bottom of the gap) so they form a "spiky floor" at the bottom of the gap. But row 14 is where the normal floor is. In the gap area, there's no floor, so I can put spikes at row 14. Let me reconsider the level structure: - Normal floor: rows 14-15 are solid - Gap: rows 14-15 are empty, with spikes at row 13 The spikes at row 13 in the gap area would kill the ball if it falls into the gap. The ball would fall past y=13.5 (center of spike tile) and die. Actually, I think the cleaner design is: - Gap: rows 14-15 are empty - Spike tiles at row 13, x=44 to x=50 (forming a "spike ceiling" at the bottom of the gap) - The ball falling into the gap passes through the spike tiles and dies But that means the spike tiles are at the bottom of the gap, and the ball falls through them. The hitbox should catch the ball. Let me just put the spikes at row 14 (the floor level) in the gap area. The spike tiles are at row 14, x=44 to x=50. They're not solid (no floor), but they have a lethal hitbox. The ball falling into the gap would hit the spike hitboxes at row 14. Wait, but the ball is 1 tile in diameter. If it falls into the gap and reaches row 14, its center is at y=14.5. The spike at row 14 has center at y=14.5. The ball would overlap with the spike hitbox. Good. But there's no floor below the spikes. The ball would continue falling. I should add a solid floor at row 15 below the spikes to prevent the ball from falling out of the world. OK, let me redesign: - Gap at x=44 to x=50 - Row 14: spikes at x=44 to x=50 (lethal) - Row 15: solid floor at x=44 to x=50 (to prevent falling out) This way, the ball falls into the gap, hits the spikes at row 14, and dies. The solid floor at row 15 prevents falling out of the world. - Checkpoint 2 at (53, 13) **Spike hazards (x=55-72):** - Spike clusters at x=58, x=63, x=68 (on the floor, at row 13) - Hoop 5 at (60, 13) - Hoop 6 at (70, 13) **Finale (x=72-95):** - Crystal ball on a ledge: platform at x=78-80, row 11 (solid tiles at row 11,12,13) - Crystal at (79, 10) - Exit at x=90 (two tiles tall: exit_top at (90, 12), exit_bottom at (90, 13)) Let me now code this level as a 2D array. Actually, I realize I need to be more careful about the wall design. The wall at x=24 is 3 tiles high (rows 11, 12, 13). But row 14 is the floor. So the wall sits on the floor and is 3 tiles tall. For the ball to clear a 3-tile wall: - Wall top is at the top of row 11, which is y=11.0 - Ball peak y = 10.5 (center) - Ball top at peak = 10.5 - 0.5 = 10.0 - Wall top = 11.0 - Clearance = 11.0 - 10.0 = 1.0 tile Wait, that's wrong. The wall tiles are at rows 11, 12. 13. The bottom of row 11 is at y=11.0. The ball's top at peak is at y=10.0. So the ball's top is 1.0 tiles above the wall top. That means the ball CLEARLY clears the wall. Hmm, let me recalculate. Bounce height is 3 tiles. Ball center on ground is at y=13.5. Peak center is at y=13.5 - 3 = 10.5. Ball top at peak is y=10.5 - 0.5 = 10.0. A wall that's 3 tiles high sits at rows 11, 12, 13 (since row 14 is the floor). The top of the wall is the top of row 11, which is at y=11.0. Ball top at peak: y=10.0 Wall top: y=11.0 Clearance: 1.0 tile So the ball clears a 3-tile wall by 1 tile. That's very comfortable. Let me make the walls 4 tiles high instead (rows 10, 11, 12, 13) so they're exactly at the limit: Wall top: y=10.0 Ball top at peak: y=10.0 Clearance: 0 tiles That's too tight! The ball would barely clear. Let me make them 3.5 tiles... but we can't have half tiles. Let me make the walls 3 tiles high and that's fine. The player has plenty of clearance. Actually wait, let me reconsider. The bounce height of 3 tiles means the ball travels 3 tiles UP from the ground. So: - Ground: ball center at y=13.5 - Peak: ball center at y=10.5 - Ball top at peak: y=10.0 A 3-tile wall at rows 11, 12, 13 has its top at y=11.0. The ball clears by 1.0 tile. That's very generous. A 4-tile wall at rows 10, 11, 12, 12 has its top at y=10.0. The ball clears by 0 tiles. Too tight. So 3-tile walls are the maximum that can be cleared. Let me use 3-tile walls. But wait, I want the player to feel like they need to bounce. A 3-tile wall that's cleared with 1 tile of clearance is too easy. Let me make the walls 3 tiles high but add a narrow passage that requires bouncing to enter. Actually, let me just use 3-tile walls. The game is about momentum and bouncing, not about barely clearing walls. The difficulty comes from the spike patterns and gap jumping. OK, let me finalize the level and code it up. Let me also think about the crystal ball placement. It should be on a high ledge that requires a deliberate detour. Let me put a platform at x=76-80, row 10 (solid tiles at rows 10, 11I'll build this complete game across three files. Let me start by designing and implementing everything.
✎writeindex.htmlerror
pathindex.htmlcontent<!DOCTYPE html> <html lang="en"> <head> <meta charset="UTF-8"> <meta name="viewport" content="width=device-width, initial-scale=1.0"> <title>Bounce — Level 1</title> <link rel="stylesheet" href="style.css"> </head> <body> <div id="game-container"> <canvas id="world"></canvas> <div id="hud"> <div id="hud-lives"></div> <div id="hud-hoops"></div> <div id="hud-score">00000000</div> </div>errorTool call "write" was not executed: the response hit the output token limit, so its arguments may be truncated. Re-issue the tool call with complete arguments. -
217 out-tok · toolUse
reasoning Let me write the files in smaller chunks to avoid token limits.…64 chars
Let me write the files in smaller chunks to avoid token limits.✎writeindex.html
pathindex.htmlcontent<!DOCTYPE html> <html lang="en"> <head> <meta charset="UTF-8"> <meta name="viewport" content="width=device-width, initial-scale=1.0"> <title>Bounce — Level 1</title> <link rel="stylesheet" href="style.css"> </head> <body> <div id="game-container"> <canvas id="world"></canvas> <div id="hud"> <div id="hud-lives"></div> <div id="hud-hoops"></div> <div id="hud-score">00000000</div> </div> </div> <script src="game.js"></script> </body> </html>outputSuccessfully wrote 461 bytes to index.html -
520 out-tok · toolUse
reasoning Good, now let me write the CSS file.…37 chars
Good, now let me write the CSS file.✎writestyle.css
pathstyle.csscontent* { margin: 0; padding: 0; box-sizing: border-box; } html, body { width: 100%; height: 100%; background: #0a0a12; overflow: hidden; font-family: monospace; user-select: none; } #game-container { display: flex; flex-direction: column; align-items: center; justify-content: center; width: 100%; height: 100%; } canvas#world { image-rendering: pixelated; image-rendering: crisp-edges; background: #0e0e1a; border: 2px solid #2a2a3a; } #hud { display: flex; align-items: center; justify-content: space-between; width: 100%; max-width: 768px; height: 28px; padding: 0 8px; background: #0e0e1a; border: 2px solid #2a2a3a; border-top: none; color: #ccc; font-size: 14px; font-family: monospace; } #hud-lives { display: flex; gap: 3px; align-items: center; } #hud-lives .life-icon { width: 10px; height: 10px; background: #e33; border-radius: 50%; display: inline-block; } #hud-hoops { color: #5cf; font-size: 13px; letter-spacing: 1px; } #hud-score { color: #fd0; font-size: 15px; font-weight: bold; letter-spacing: 2px; text-align: right; }outputSuccessfully wrote 1119 bytes to style.css -
8,192 out-tok · length hit token limit
reasoning Now I need to write the game.js file. This is the big one. Let me write it in chunks to avoid token limits. I'll start w…498 chars
Now I need to write the game.js file. This is the big one. Let me write it in chunks to avoid token limits. I'll start with the constants, level data, and initialization, then add physics, rendering, and game logic. Let me plan the structure: 1. Constants and configuration 2. Level map data 3. Game state 4. Input handling 5. Physics engine (fixed timestep) 6. Collision detection 7. Rendering 8. Game flow (title, playing, death, complete, game over) 9. Main loop Let me write the first chunk.Now the main game logic. I'll write it in parts due to size.
✎writegame.jserror
pathgame.jscontent/* ========================================================= Bounce — Level 1 A horizontal puzzle-platformer about carrying momentum. ========================================================= */ // --- Constants --- const TILE = 8; // logical pixels per tile const VP_TILES = 16; // viewport: 16×16 tiles const VP_SIZE = VP_TILES * TILE; // 128 logical pixels // Physics (tiles / second) const GRAVITY = 22; const TERM_FALL = 14; const G_ACCEL = 18; const MAX_SPEED = 6; const FRICTION = 12; const AIR_CTRL = G_ACCEL * 0.4; const RESTITUTION = 0.35; const BOUNCE_H = 3.0; const BOUNCE_VEL = Math.sqrt(2 * GRAVITY * BOUNCE_H); // ~11.49 t/s // Timing const FIXED_DT = 1 / 120; // fixed physics step const SETTLE_FRIC = 20; // extra friction when settling after non-bounce landing // Game const MAX_LIVES = 5; const START_LIVES = 3; const HOOP_SCORE = 100; const CP_SCORE = 200; const CRYSTAL_SCORE= 1000; const CLEAR_SCORE = 500; const LIFE_BONUS = 1000; const DEATH_DELAY = 0.5; // seconds for death burst const GAME_OVER_DELAY = 2.0; // seconds before returning to title const COMPLETE_DELAY = 3.0; // seconds on level complete // Tile types const T = { EMPTY: 0, SOLID: 1, SPIKE: 2, HOOP: 3, CHECKPOINT: 4, CRYSTAL: 5, EXIT_TOP: 6, EXIT_BOTTOM: 7 }; // Game states const S = { TITLE: 0, PLAYING: 1, DYING: 2, COMPLETE: 3, OVER: 4 }; // --- Canvas & scaling --- const canvas = document.getElementById('world'); const ctx = canvas.getContext('2d'); canvas.width = VP_SIZE; canvas.height = VP_SIZE; function resizeCanvas() { const maxW = window.innerWidth - 16; const maxH = window.innerHeight - 56; // room for HUD const scale = Math.min(Math.floor(maxW / VP_SIZE), Math.floor(maxH / VP_SIZE), 6); const s = Math.max(scale, 2); canvas.style.width = (VP_SIZE * s) + 'px'; canvas.style.height = (VP_SIZE * s) + 'px'; } window.addEventListener('resize', resizeCanvas); resizeCanvas(); // --- Level Map --- // 16 rows × 95 columns // Legend: . empty # solid ^ spike O hoop C checkpoint B crystal E exit-top e exit-bottom const LEVEL_STR = [ // row 0 '...................................................................................................', // row 1 '...................................................................................................', // row 2 '...................................................................................................', // row 3 '...................................................................................................', // row 4 '...................................................................................................', // row 5 '...................................................................................................', // row 6 '...................................................................................................', // row 7 '...................................................................................................', // row 8 '...................................................................................................', // row 9 '...................................................................................................', // row 10 -- crystal ledge at x=77-80 '................................................###................................................', // row 11 -- wall tops at x=24,33 ; crystal ledge at x=77-80 '..#....................................#.........................................................', // row 12 -- wall mids at x=24,33 ; exit top at x=90; ledge at x=77-80 '..#....................................#.##......................................................', // row 13 -- wall bots, hoops, spikes, checkpoints, exit bottom '..#O...O...#O...O...#O...O.........^O^O^O^O^O........C...B..C..e..................................', // row 14 -- floor with gap at x=42-48, spikes in gap '...................####................^^^^^^^^^^^^####...................####....................', // row 15 -- floor continuation '###################################################################################################' ]; const LEVEL_W = LEVEL_STR[0].length; const LEVEL_H = LEVEL_STR.length; // Parse level let levelMap = []; let spawnX = 2, spawnY = 13; let hoopPositions = []; let checkpointPositions = []; let crystalPos = null; let exitPos = null; function parseLevel() { levelMap = []; hoopPositions = []; checkpointPositions = []; crystalPos = null; exitPos = null; for (let y = 0; y < LEVEL_H; y++) { const row = []; for (let x = 0; x < LEVEL_W; x++) { const ch = LEVEL_STR[y][x] || '.'; switch (ch) { case '#': row.push(T.SOLID); break; case '^': row.push(T.SPIKE); break; case 'O': row.push(T.HOOP); hoopPositions.push({x, y}); break; case 'C': row.push(T.CHECKPOINT); checkpointPositions.push({x, y}); break; case 'B': row.push(T.CRYSTAL); crystalPos = {x, y}; break; case 'E': row.push(T.EXIT_TOP); exitPos = {x, y, type:'top'}; break; case 'e': row.push(T.EXIT_BOTTOM); if (!exitPos) exitPos = {x, y, type:'bottom'}; else exitPos.h = y - exitPos.y + 1; break; default: row.push(T.EMPTY); break; } } levelMap.push(row); } // Verify counts if (hoopPositions.length !== 6) console.error('Expected 6 hoops, got', hoopPositions.length); if (checkpointPositions.length !== 2) console.error('Expected 2 checkpoints, got', checkpointPositions.length); if (!crystalPos) console.error('Missing crystal ball'); if (!exitPos) console.error('Missing exit'); } function tileAt(x, y) { if (x < 0 || x >= LEVEL_W || y < 0 || y >= LEVEL_H) return T.SOLID; return levelMap[y][x]; } function isSolid(x, y) { const t = tileAt(x, y); return t === T.SOLID; } // --- Game State --- let state = S.TITLE; let score = 0; let lives = START_LIVES; let hoopsRemaining = 6; let hoopsCollected = new Set(); let crystalCollected = false; let checkpoints = []; // array of {x, y, active} let activeCheckpoint = null; // {x, y} let cpScores = new Set(); // which checkpoints have been scored let ball = { x: 0, y: 0, vx: 0, vy: 0 }; let squash = 1, stretch = 1; // visual deformation let deathTimer = 0; let deathFx = []; // fragment particles for death burst let completeTimer = 0; let overTimer = 0; // Camera let camX = 0; // Input let keys = { left: false, right: false, bounce: false }; let keysJustPressed = { bounce: false }; // --- Input Handling --- const LEFT_KEYS = new Set(['ArrowLeft', 'KeyA', 'Numpad4']); const RIGHT_KEYS = new Set(['ArrowRight', 'KeyD', 'Numpad6']); const BOUNCE_KEYS = new Set(['ArrowUp', 'KeyW', 'Space', 'Numpad2']); const ALL_GAME_KEYS = new Set([...LEFT_KEYS, ...RIGHT_KEYS, ...BOUNCE_KEYS]); document.addEventListener('keydown', (e) => { if (ALL_GAME_KEYS.has(e.code)) e.preventDefault(); if (LEFT_KEYS.has(e.code)) keys.left = true; if (RIGHT_KEYS.has(e.code)) keys.right = true; if (BOUNCE_KEYS.has(e.code)) { keys.bounce = true; keysJustPressed.bounce = true; } // Title screen: space to start if (state === S.TITLE && (e.code === 'Space' || e.code === 'ArrowUp' || e.code === 'KeyW')) { e.preventDefault(); startGame(); } }); document.addEventListener('keyup', (e) => { if (ALL_GAME_KEYS.has(e.code)) e.preventDefault(); if (LEFT_KEYS.has(e.code)) keys.left = false; if (RIGHT_KEYS.has(e.code)) keys.right = false; if (BOUNCE_KEYS.has(e.code)) keys.bounce = false; }); // --- Game Flow --- function startGame() { state = S.PLAYING; score = 0; lives = START_LIVES; hoopsRemaining = 6; hoopsCollected = new Set(); crystalCollected = false; cpScores = new Set(); activeCheckpoint = null; checkpoints = checkpointPositions.map((p, i) => ({x: p.x, y: p.y, id: i, active: false})); parseLevel(); respawnBall(); } function respawnBall() { if (activeCheckpoint) { ball.x = activeCheckpoint.x + 0.5; ball.y = activeCheckpoint.y - 0.5; } else { ball.x = spawnX + 0.5; ball.y = spawnY - 0.5; } ball.vx = 0; ball.vy = 0; squash = 1; stretch = 1; } function killBall() { if (state !== S.PLAYING) return; state = S.DYING; deathTimer = DEATH_DELAY; // Create burst fragments deathFx = []; for (let i = 0; i < 16; i++) { const angle = (Math.PI * 2 * i) / 16 + Math.random() * 0.3; const speed = 3 + Math.random() * 5; deathFx.push({ x: ball.x, y: ball.y, vx: Math.cos(angle) * speed, vy: Math.sin(angle) * speed, life: 1.0, size: 0.15 + Math.random() * 0.15 }); } } function loseLife() { lives--; if (lives <= 0) { state = S.OVER; overTimer = GAME_OVER_DELAY; } else { state = S.PLAYING; respawnBall(); } } function completeLevel() { if (state !== S.PLAYING) return; state = S.COMPLETE; completeTimer = COMPLETE_DELAY; // Calculate bonus score += CLEAR_SCORE; score += lives * LIFE_BONUS; } // --- Physics --- let accum = 0; function physicsStep(dt) { if (state !== S.PLAYING) return; const r = 0.5; // ball radius in tiles // Input acceleration let accelX = 0; if (keys.left) accelX -= 1; if (keys.right) accelX += 1; // Determine if on ground const onGround = ball.y + r >= 13.5 - 0.01; // floor level check const grounded = isOnGround(); // Horizontal acceleration if (accelX !== 0) { const a = grounded ? G_ACCEL : AIR_CTRL; ball.vx += accelX * a * dt; } // Clamp speed ball.vx = Math.max(-MAX_SPEED, Math.min(MAX_SPEED, ball.vx)); // Friction (when no input on ground) if (accelX === 0 && grounded) { if (Math.abs(ball.vx) < FRICTION * dt + 0.01) { ball.vx = 0; } else { ball.vx -= Math.sign(ball.vx) * FRICTION * dt; if (Math.sign(ball.vx) !== Math.sign(ball.vx + Math.sign(ball.vx) * FRICTION * dt)) ball.vx = 0; } } // Gravity ball.vy += GRAVITY * dt; if (ball.vy > TERM_FALL) ball.vy = TERM_FALL; // Move X ball.x += ball.vx * dt; resolveCollisionX(r); // Move Y ball.y += ball.vy * dt; const wasGrounded = grounded; const justLanded = resolveCollisionY(r); // Bounce / settle on landing if (justLanded && ball.vy > 0) { if (keys.bounce) { ball.vy = -BOUNCE_VEL; squash = 0.6; stretch = 1.4; } else { ball.vy *= -RESTITUTION; if (Math.abs(ball.vy) < 0.5) { ball.vy = 0; ball.y = getLowestY(r); } squash = 0.7; stretch = 1.3; } } // Ceiling collision if (ball.y - r < 0) { ball.y = r; ball.vy = Math.max(0, ball.vy); } // World bounds if (ball.x - r < 0) { ball.x = r; ball.vx = 0; } if (ball.x + r > LEVEL_W) { ball.x = LEVEL_W - r; ball.vx = 0; } // Squash/stretch decay squash += (1 - squash) * 12 * dt; stretch += (1 - stretch) * 12 * dt; // Collect pickups checkPickups(); } function isOnGround() { const r = 0.5; // Check if ball is touching a solid tile below const bx = ball.x; const by = ball.y + r; const tileX1 = Math.floor(bx - r + 0.001); const tileX2 = Math.floor(bx + r - 0.001); const tileY = Math.floor(by); for (let tx = tileX1; tx <= tileX2; tx++) { if (isSolid(tx, tileY)) return true; } return false; } function getLowestY(r) { // Find the lowest valid Y for the ball (resting on ground) const bx = ball.x; const tileX1 = Math.floor(bx - r + 0.01); const tileX2 = Math.floor(bx + r - 0.01); let lowest = ball.y; for (let tx = tileX1; tx <= tileX2; tx++) { for (let ty = Math.floor(ball.y - r); ty <= Math.floor(ball.y + r) + 1; ty++) { if (isSolid(tx, ty)) { // Solid tile top is at ty, ball bottom should be at ty const restY = ty - r; if (restY < lowest) lowest = restY; } } } return lowest; } function resolveCollisionX(r) { const bx = ball.x; const by = ball.y; // Check tiles overlapping the ball's horizontal extent const tileY1 = Math.floor(by - r + 0.001); const tileY2 = Math.floor(by + r - 0.001); const tileX1 = Math.floor(bx - r + 0.001); const tileX2 = Math.floor(bx + r - 0.001); for (let ty = tileY1; ty <= tileY2; ty++) { for (let tx = tileX1; tx <= tileX2; tx++) { if (!isSolid(tx, ty)) continue; // Resolve X overlap const tileLeft = tx; const tileRight = tx + 1; const tileTop = ty; const tileBottom = ty + 1; // Check if ball overlaps this tile if (bx + r > tileLeft && bx - r < tileRight && by + r > tileTop && by - r < tileBottom) { // Find overlap on X axis const overlapLeft = (bx + r) - tileLeft; const overlapRight = tileRight - (bx - r); if (overlapLeft < overlapRight) { ball.x = tileLeft - r; } else { ball.x = tileRight + r; } ball.vx = 0; } } } } function resolveCollisionY(r) { let landed = false; const bx = ball.x; const by = ball.y; const tileY1 = Math.floor(by - r + 0.001); const tileY2 = Math.floor(by + r - 0.001); const tileX1 = Math.floor(bx - r + 0.001); const tileX2 = Math.floor(bx + r - 0.001); for (let ty = tileY1; ty <= tileY2; ty++) { for (let tx = tileX1; tx <= tileX2; tx++) { if (!isSolid(tx, ty)) continue; const tileLeft = tx; const tileRight = tx + 1; const tileTop = ty; const tileBottom = ty + 1; if (bx + r > tileLeft && bx - r < tileRight && by + r > tileTop && by - r < tileBottom) { const overlapTop = (by + r) - tileTop; const overlapBottom = tileBottom - (by - r); if (overlapTop < overlapBottom) { // Landing on top ball.y = tileTop - r; if (ball.vy > 0) landed = true; ball.vy = 0; } else { // Hitting bottom ball.y = tileBottom + r; ball.vy = 0; } } } } return landed; } function checkPickups() { const r = 0.5; const bx = ball.x; const by = ball.y; // Check hoops for (let i = 0; i < hoopPositions.length; i++) { if (hoopsCollected.has(i)) continue; const h = hoopPositions[i]; const dx = bx - (h.x + 0.5); const dy = by - (h.y + 0.5); if (Math.sqrt(dx*dx + dy*dy) < 1.0) { hoopsCollected.add(i); hoopsRemaining--; score += HOOP_SCORE; } } // Check checkpoints for (let i = 0; i < checkpoints.length; i++) { const cp = checkpoints[i]; const dx = bx - (cp.x + 0.5); const dy = by - (cp.y + 0.5); if (Math.sqrt(dx*dx + dy*dy) < 1.0) { if (!cpScores.has(i)) { score += CP_SCORE; cpScores.add(i); } // Activate this checkpoint, deactivate others checkpoints.forEach(c => c.active = false); cp.active = true; activeCheckpoint = {x: cp.x, y: cp.y}; } } // Check crystal if (crystalPos && !crystalCollected) { const dx = bx - (crystalPos.x + 0.5); const dy = by - (crystalPos.y + 0.5); if (Math.sqrt(dx*dx + dy*dy) < 1.0) { crystalCollected = true; score += CRYSTAL_SCORE; if (lives < MAX_LIVES) lives++; } } // Check exit if (exitPos && hoopsRemaining <= 0) { const ex = exitPos.x + 0.5; const ey = exitPos.y + 0.5; const dx = bx - ex; const dy = by - ey; if (Math.abs(dx) < 0.8 && Math.abs(dy) < 1.2) { completeLevel(); } } // Check spikes for (let y = 0; y < LEVEL_H; y++) { for (let x = 0; x < LEVEL_W; x++) { if (levelMap[y][x] !== T.SPIKE) continue; // Spike hitbox: smaller region centered in tile const sx = x + 0.5; const sy = y + 0.5; const hitR = 0.35; // hitbox radius const dx = bx - sx; const dy = by - sy; if (Math.sqrt(dx*dx + dy*dy) < (r + hitR)) { killBall(); return; } } } } // --- Death FX --- function updateDeathFX(dt) { if (state !== S.DYING) return; deathTimer -= dt; for (const p of deathFx) { p.x += p.vx * dt; p.y += p.vy * dt; p.vy += GRAVITY * 0.3 * dt; p.life -= dt / DEATH_DELAY; } if (deathTimer <= 0) { loseLife(); } } // --- Camera --- function updateCamera() { const targetX = ball.x - VP_TILES / 2; camX += (targetX - camX) * 0.1; camX = Math.max(0, Math.min(LEVEL_W - VP_TILES, camX)); } // --- Rendering --- function drawTile(tx, ty, type, screenX, screenY) { const sx = Math.floor(screenX); const sy = Math.floor(screenY); switch (type) { case T.SOLID: ctx.fillStyle = '#4a4a5a'; ctx.fillRect(sx, sy, TILE, TILE); ctx.fillStyle = '#5a5a6a'; ctx.fillRect(sx, sy, TILE - 1, TILE - 1); ctx.fillStyle = '#3a3a4a'; ctx.fillRect(sx + TILE - 1, sy, 1, TILE); ctx.fillRect(sx, sy + TILE - 1, TILE, 1); break; case T.SPIKE: // Draw as a triangle spike ctx.fillStyle = '#c44'; ctx.beginPath(); ctx.moveTo(sx + TILE/2, sy); ctx.lineTo(sx + TILE, sy + TILE); ctx.lineTo(sx, sy + TILE); ctx.closePath(); ctx.fill(); // Highlight ctx.fillStyle = '#e66'; ctx.beginPath(); ctx.moveTo(sx + TILE/2, sy + 2); ctx.lineTo(sx + TILE - 2, sy + TILE); ctx.lineTo(sx + TILE/2, sy + TILE); ctx.closePath(); ctx.fill(); break; case T.HOOP: // Draw as a ring ctx.strokeStyle = '#5cf'; ctx.lineWidth = 2; ctx.beginPath(); ctx.arc(sx + TILE/2, sy + TILE/2, TILE/2 - 1, 0, Math.PI * 2); ctx.stroke(); break; case T.CHECKPOINT: // Draw as a flag ctx.fillStyle = '#5f5'; ctx.fillRect(sx + 3, sy + 1, 2, TILE - 1); ctx.fillStyle = '#8f8'; ctx.fillRect(sx + 5, sy + 1, 3, 3); break; case T.CRYSTAL: // Draw as a diamond ctx.fillStyle = '#f0f'; ctx.beginPath(); ctx.moveTo(sx + TILE/2, sy + 1); ctx.lineTo(sx + TILE - 1, sy + TILE/2); ctx.lineTo(sx + TILE/2, sy + TILE - 1); ctx.lineTo(sx + 1, sy + TILE/2); ctx.closePath(); ctx.fill(); ctx.fillStyle = '#faf'; ctx.beginPath(); ctx.moveTo(sx + TILE/2, sy + 2); ctx.lineTo(sx + TILE - 3, sy + TILE/2); ctx.lineTo(sx + TILE/2, sy + TILE/2); ctx.closePath(); ctx.fill(); break; case T.EXIT_TOP: case T.EXIT_BOTTOM: // Draw door if (hoopsRemaining <= 0) { // Open ctx.fillStyle = '#2a4'; ctx.fillRect(sx, sy, TILE, TILE); ctx.fillStyle = '#4f6'; ctx.fillRect(sx + 1, sy + 1, TILE - 2, TILE - 2); } else { // Closed ctx.fillStyle = '#666'; ctx.fillRect(sx, sy, TILE, TILE); ctx.fillStyle = '#888'; ctx.fillRect(sx + 1, sy + 2, TILE - 2, TILE - 4); ctx.fillStyle = '#fd0'; ctx.fillRect(sx + 3, sy + TILE/2 - 1, 2, 2); } break; } } function render() { ctx.clearRect(0, 0, VP_SIZE, VP_SIZE); // Background ctx.fillStyle = '#0e0e1a'; ctx.fillRect(0, 0, VP_SIZE, VP_SIZE); // Draw background grid dots ctx.fillStyle = '#1a1a2a'; for (let y = 0; y < VP_TILES; y++) { for (let x = 0; x < VP_TILES; x++) { if ((x + y) % 4 === 0) { ctx.fillRect(Math.floor(x * TILE - camX % TILE), y * TILE, 1, 1); } } } // Draw tiles const startTX = Math.max(0, Math.floor(camX)); const endTX = Math.min(LEVEL_W, Math.ceil(camX + VP_TILES)); for (let ty = 0; ty < LEVEL_H; ty++) { for (let tx = startTX; tx < endTX; tx++) { const type = levelMap[ty][tx]; if (type === T.EMPTY) continue; const sx = tx * TILE - camX * TILE / TILE; // screen x in logical pixels const sy = ty * TILE; drawTile(tx, ty, type, sx, sy); } } // Draw collected hoop indicators (dim) for (let i = 0; i < hoopPositions.length; i++) { if (hoopsCollected.has(i)) { const h = hoopPositions[i]; const sx = h.x * TILE - camX; const sy = h.y * TILE; ctx.strokeStyle = 'rgba(85,204,255,0.2)'; ctx.lineWidth = 1; ctx.beginPath(); ctx.arc(sx + TILE/2, sy + TILE/2, TILE/2 - 1, 0, Math.PI * 2); ctx.stroke(); } } // Draw active checkpoint glow for (const cp of checkpoints) { if (cp.active) { const sx = cp.x * TILE - camX; const sy = cp.y * TILE; ctx.fillStyle = 'rgba(85,255,85,0.15)'; ctx.fillRect(sx - 2, sy - 2, TILE + 4, TILE + 4); } } // Draw ball (if not dying) if (state === S.PLAYING || state === S.COMPLETE) { const bx = ball.x * TILE - camX; const by = ball.y * TILE; const r = TILE / 2; ctx.save(); ctx.translate(bx, by); ctx.scale(stretch, squash); // Shadow ctx.fillStyle = 'rgba(0,0,0,0.3)'; ctx.beginPath(); ctx.arc(1, 1, r, 0, Math.PI * 2); ctx.fill(); // Ball body ctx.fillStyle = '#e33'; ctx.beginPath(); ctx.arc(0, 0, r, 0, Math.PI * 2); ctx.fill(); // Highlight ctx.fillStyle = '#f66'; ctx.beginPath(); ctx.arc(-1, -1, r * 0.6, 0, Math.PI * 2); ctx.fill(); // Outline ctx.strokeStyle = '#a22'; ctx.lineWidth = 1; ctx.beginPath(); ctx.arc(0, 0, r - 0.5, 0, Math.PI * 2); ctx.stroke(); ctx.restore(); } // Draw death fragments if (state === S.DYING) { for (const p of deathFx) { if (p.life <= 0) continue; const px = p.x * TILE - camX; const py = p.y * TILE; const sz = p.size * TILE * p.life; ctx.globalAlpha = p.life; ctx.fillStyle = '#e33'; ctx.fillRect(px - sz/2, py - sz/2, sz, sz); } ctx.globalAlpha = 1; } // Render overlays if (state === S.TITLE) renderTitle(); else if (state === S.COMPLETE) renderComplete(); else if (state === S.OVER) renderGameOver(); } function renderTitle() { ctx.fillStyle = 'rgba(10,10,18,0.85)'; ctx.fillRect(0, 0, VP_SIZE, VP_SIZE); ctx.textAlign = 'center'; ctx.textBaseline = 'middle'; // Title ctx.fillStyle = '#e33'; ctx.font = 'bold 16px monospace'; ctx.fillText('BOUNCE', VP_SIZE/2, VP_SIZE/2 - 20); ctx.fillStyle = '#5cf'; ctx.font = '8px monospace'; ctx.fillText('Level 1', VP_SIZE/2, VP_SIZE/2 - 6); // Blink prompt if (Math.floor(Date.now() / 500) % 2 === 0) { ctx.fillStyle = '#fd0'; ctx.font = '7px monospace'; ctx.fillText('Press SPACE to Start', VP_SIZE/2, VP_SIZE/2 + 14); } // Controls hint ctx.fillStyle = '#888'; ctx.font = '5px monospace'; ctx.fillText('← → or A/D to roll | ↑ W SPACE to bounce', VP_SIZE/2, VP_SIZE/2 + 30); } function renderComplete() { ctx.fillStyle = 'rgba(10,10,18,0)'; ctx.fillRect(0, 0, VP_SIZE,VP_SIZE); ctx.textAlign = 'center'; ctx.textBaseline = 'middle'; ctx.fillStyle = '#4f6'; ctx.font = 'bold 12px monospace'; ctx.fillText('LEVEL COMPLETE', VP_SIZE/2, VP_SIZE/2 - 16); ctx.fillStyle = '#fd0'; ctx.font = 'bold 10px monospace'; ctx.fillText(score.toString().padStart(8, '0'), VP_SIZE/2, VP_SIZE/2 + 2); ctx.fillStyle = '#aaa'; ctx.font = '6px monospace'; ctx.fillText(`+${CLEAR_SCORE} clear +${lives * LIFE_BONUS} lives`, VP_SIZE/2, VP_SIZE/2 + 14); } function renderGameOver() { ctx.fillStyle = 'rgba(10,10,18, 0.9)'; ctx.fillRect(0, 0, VP_SIZE * VP_SIZE); ctx.textAlign = 'center'; ctx.textBaseline = 'middle'; ctx.fillStyle = '#e33'; ctx.font = 'bold 14px monospace'; ctx.fillText('GAME OVER', VP_SIZE/2, VP_SIZE/2 - 8); ctx.fillStyle = '#888'; ctx.font = '7px monospace'; ctx.fillText('Returning to title...', VP_SIZE/2, VP_SIZE/2 + 10); } // --- HUD --- function updateHUD() { const livesEl = document.getElementById('hud-lives'); livesEl.innerHTML = ''; for (let i = 0; i < lives; i++) { const icon = document.createElement('span'); icon.className = 'life-icon'; livesEl.appendChild(icon); }errorTool call "write" was not executed: the response hit the output token limit, so its arguments may be truncated. Re-issue the tool call with complete arguments. -
421 out-tok · toolUse
reasoning I need to write the game.js file in smaller chunks. Let me split it into multiple write/edit calls. First I'll write the…155 chars
I need to write the game.js file in smaller chunks. Let me split it into multiple write/edit calls. First I'll write the first part, then append the rest.Let me write the JS file in smaller parts.
✎writegame.js
pathgame.jscontent/* Bounce — Level 1 */ const TILE=8, VP_T=16, VP=128; const GRAV=22, TERM=14, GAC=18, MSPD=6, FRI=12, AIRT=GAC*0.4, REST=0.35, BH=3; const BV=Math.sqrt(2*GRAV*BH); const FDT=1/120, MXL=5, STL=3, HOOPS=6; const HSC=100,CPS=200,CRY=1000,CLS=500,LBS=1000; const DDEL=0.5,ODEL=2.0,CDEL=3.0; const T={E:0,S:1,P:2,O:3,C:4,B:5,ET:6,EB:7}; const ST={TITLE:0,PLAY:1,DYING:2,COMP:3,OVER:4}; const cvs=document.getElementById('world'); const cx=cvs.getContext('2d'); cvs.width=cvs.height=VP; function resize(){ const s=Math.min(Math.floor((window.innerWidth-16)/VP),Math.floor((window.innerHeight-56)/VP),6); const sc=Math.max(s,2); cvs.style.width=(VP*sc)+'px';cvs.style.height=(VP*sc)+'px'; } window.addEventListener('resize',resize);resize();outputSuccessfully wrote 743 bytes to game.js -
7,161 out-tok · length hit token limit
reasoning Now I need to append the level data and the rest of the game logic. Let me continue building the file in chunks.…113 chars
Now I need to append the level data and the rest of the game logic. Let me continue building the file in chunks.±editgame.jserror
pathgame.jsedits[ { "oldText": "window.addEventListener('resize',resize);resize();", "newText": "window.addEventListener('resize',resize);resize();\n\n// Level: 16 rows x 95 cols .=empty #=solid ^=spike O=hoop C=checkpoint B=crystal E=exit-top e=exit-bot\nconst LM=[\n'...................................................................................................',\n'...................................................................................................',\n'...................................................................................................',\n</parameter> levelMap[y][x];\n}\nfunction isSolid(x,y){return tileAt(x,y)===T.S;}\n\n// Game state\nlet state=ST.TITLE,score=0,lives=STL,hoopsLeft=HOOPS;\nlet hCollected=new Set(),crystalGot=false,cpScores=new Set();\nlet checkpoints=[],activeCP=null;\nlet ball={x:0,y:0,vx:0,vy:0},sq=1,st=1;\nlet dTimer=0,dFx=[],cTimer=0,oTimer=0,camX=0;\nlet keys={left:false,right:false,bounce:false};\n\n// Input\nconst LK=new Set(['ArrowLeft','KeyA','Numpad4']);\nconst RK=new Set(['ArrowRight','KeyD','Numpad6']);\nconst BK=new Set(['ArrowUp','KeyW','Space','Numpad2']);\nconst GK=new Set([...LK,...RK,...BK]);\n\ndocument.addEventListener('keydown',e=>{\n if(GK.has(e.code))e.preventDefault();\n if(LK.has(e.code))keys.left=true;\n if(RK.has(e.code))keys.right=true;\n if(BK.has(e.code))keys.bounce=true;\n if(state===ST.TITLE&&(e.code==='Space'||e.code==='ArrowUp'||e.code==='KeyW')){e.preventDefault();startGame();}\n});\ndocument.addEventListener('keyup',e=>{\n if(GK.has(e.code))e.preventDefault();\n if(LK.has(e.code))keys.left=false;\n if(RK.has(e.code))keys.right=false;\n if(BK.has(e.code))keys.bounce=false;\n});\n\nfunction startGame(){\n state=ST.PLAY;score=0;lives=STL;hoopsLeft=HOOPS;\n hCollected=new Set();crystalGot=false;cpScores=new Set();activeCP=null;\n parseLevel();respawn();\n}\nfunction respawn(){\n if(activeCP){ball.x=activeCP.x+0.5;ball.y=activeCP.y-0.5;}\n else{ball.x=2.5;ball.y=13.0;}\n ball.vx=ball.vy=0;sq=st=1;\n}\nfunction killBall(){\n if(state!==ST.PLAY)return;\n state=ST.DYING;dTimer=DDEL;dFx=[];\n for(let i=0;i<16;i++){\n const a=Math.PI*2*i/16+Math.random()*0.3,sp=3+Math.random()*5;\n dFx.push({x:ball.x,y:ball.y,vx:Math.cos(a)*sp,vy:Math.sin(a)*sp,life:1,sz:0.15+Math.random()*0.15});\n }\n}\nfunction loseLife(){\n lives--;\n if(lives<=0){state=ST.OVER;oTimer=ODEL;}\n else{state=ST.PLAY;respawn();}\n}\nfunction completeLevel(){\n if(state!==ST.PLAY)return;\n state=ST.COMP;cTimer=CDEL;\n score+=CLS+lives*LBS;\n}\n\n// Physics\nfunction physics(dt){\n if(state!==ST.PLAY)return;\n const r=0.5,grounded=isGrounded();\n let ax=0;\n if(keys.left)ax-=1;if(keys.right)ax+=1;\n if(ax!==0){ball.vx+=ax*(grounded?GAC:AIRT)*dt;}\n ball.vx=Math.max(-MSPD,Math.min(MSPD,ball.vx));\n if(ax===0&&grounded){\n const f=FRI*dt;\n if(Math.abs(ball.vx)<f+0.01)ball.vx=0;\n else{ball.vx-=Math.sign(ball.vx)*f;if(ball.vx===0||Math.sign(ball.vx)!==Math.sign(ball.vx+Math.sign(ball.vx)*f))ball.vx=0;}\n }\n ball.vy+=GRAV*dt;if(ball.vy>TERM)ball.vy=TERM;\n ball.x+=ball.vx*dt;colX(r);\n const landed=colY(r);\n if(landed&&ball.vy>0){\n if(keys.bounce){ball.vy=-BV;sq=0.6;st=1.4;}\n else{ball.vy*=-REST;if(Math.abs(ball.vy)<0.5){ball.vy=0;ball.y=restY(r);}sq=0.7;st=1.3;}\n }\n if(ball.y-r<0){ball.y=r;ball.vy=Math.max(0,ball.vy);}\n if(ball.x-r<0){ball.x=r;ball.vx=0;}\n if(ball.x+r>LEVEL_W){ball.x=LEVEL_W-r;ball.vx=0;}\n sq+=(1-sq)*12*dt;st+=(1-st)*12*dt;\n pickups();\n}\n\nfunction isGrounded(){\n const r=0.5,bx=ball.x,by=ball.y+r;\n const t1=Math.floor(bx-r+0.001),t2=Math.floor(bx+r-0.001),ty=Math.floor(by);\n for(let tx=t1;tx<=t2;tx++)if(isSolid(tx,ty))return true;\n return false;\n}\nfunction restY(r){\n const bx=ball.x,t1=Math.floor(bx-r+0.01),t2=Math.floor(bx+r-0.01);\n let lo=ball.y;\n for(let tx=t1;tx<=t2;tx++)for(let ty=Math.floor(ball.y-r);ty<=Math.floor(ball.y+r)+1;ty++)\n if(isSolid(tx,ty)){const ry=ty-r;if(ry<lo)lo=ry;}\n return lo;\n}\nfunction colX(r){\n const bx=ball.x,by=ball.y;\n const y1=Math.floor(by-r+0.001),y2=Math.floor(by+r-0.001);\n const x1=Math.floor(bx-r+0.001),x2=Math.floor(bx+r-0.001);\n for(let ty=y1;ty<=y2;ty++)for(let tx=x1;tx<=x2;tx++){\n if(!isSolid(tx,ty))continue;\n if(bx+r>tx&&bx-r<tx+1&&by+r>ty&&by-r<ty+1){\n const ol=(bx+r)-tx,or2=(tx+1)-(bx-r);\n if(ol<or2)ball.x=tx-r;else ball.x=tx+1+r;\n ball.vx=0;\n }\n }\n}\nfunction colY(r){\n let landed=false;\n const bx=ball.x,by=ball.y;\n const y1=Math.floor(by-r+0.001),y2=Math.floor(by+r-0.001);\n const x1=Math.floor(bx-r+0.001),x2=Math.floor(bx+r-0.001);\n for(let ty=y1;ty<=y2;ty++)for(let tx=x1;tx<=x2;tx++){\n if(!isSolid(tx,ty))continue;\n if(bx+r>tx&&bx-r< tx+1&&by+r>ty&&by-r< ty+1){\n const ot=(by+r)-ty,ob=(ty+1)-(by-r);\n if(ot<ob){ball.y=ty-r;if(ball.vy>0)landed=true;ball.vy=0;}\n else{ball.y=ty+1+r;ball.vy=0;}\n }\n }\n return landed;\n}\n\nfunction pickups(){\n const r=0.5,bx=ball.x,by=ball.y;\n for(let i=0;i<hoopPos.length;i++){\n if(hCollected.has(i))continue;\n const h=hoopPos[i],dx=bx-(h.x+0.5),dy=by-(h.y+0.5);\n if(dx*dx+dy*dy<1){hCollected.add(i);hoopsLeft--;score+=HSC;}\n }\n for(let i=0;i<checkpoints.length;i++){\n const cp=checkpoints[i],dx=bx-(cp.x+0.5),dy=by-(cp.y+0.5);\n if(dx*dx+dy*dy<1){\n if(!cpScores.has(i)){score+=CPS;cpScores.add(i);}\n checkpoints.forEach(c=>c.active=false);cp.active=true;activeCP={x:cp.x,y:cp.y};\n }\n }\n if(cPos&&!crystalGot){\n const dx=bx-(cPos.x+0.5),dy=by-(cPos.y+0.5);\n if(dx*dx+dy*dy<1){crystalGot=true;score+=CRY;if(lives<MXL)lives++;}\n }\n if(ePos&&hoopsLeft<=0){\n const ex=ePos.x+0.5,ey=ePos.y+0.5,dx=bx-ex,dy=by-ey;\n if(dx*dx<0.64&&dy*dy<1.44)completeLevel();\n }\n for(let y=0;y<LEVEL_H;y++)for(let x=0;x<LEVEL_W;x++){\n if(lmap[y][x]!==T.P)continue;\n const dx=bx-(x+0.5),dy=by-(y+0.5);\n if(dx*dx+dy*dy<(r+0.35)*(r+0.35)){killBall();return;}\n }\n}\n\nfunction updateDeath(dt){\n if(state!==ST.DYING)return;\n dTimer-=dt;\n for(const p of dFx){p.x+=p.vx*dt;p.y+=p.vy*dt;p.vy+=GRAV*0.3*dt;p.life-=dt/DDEL;}\n if(dTimer<=0)loseLife();\n}\n\nfunction updateCam(){\n const tx=ball.x-VP_T/2;camX+=(tx-camX)*0.1;\n camX=Math.max(0,Math.min(LEVEL_W-VP_T,camX));\n}\n\n// Render\nfunction render(){\n cx.clearRect(0,0,VP,VP);\n cx.fillStyle='#0e0e1a';cx.fillRect(0,0,VP,VP);\n cx.fillStyle='#1a1a2a';\n for(let y=0;y<VP_T;y++)for(let x=0;x<VP_T;x++)\n if((x+y)%4===0)cx.fillRect((x*TILE-camX*TILE/VP)%1,y*TILE,1,1);\n\n const sTX=Math.max(0,Math.floor(camX)),eTX=Math.min(LEVEL_W,Math.ceil(camX+VP_T));\n for(let ty=0;ty<LEVEL_H;ty++)for(let tx=sTX;tx<eTX;tx++){\n const t=lmap[ty][tx];if(t===T.E)continue;\n drawT(tx,ty,t,tx*TILE-camX,ty*TILE);\n }\n // dim collected hoops\n for(let i=0;i<hoopPos.length;i++){\n if(hCollected.has(i)){const h=hoopPos[i];\n cx.strokeStyle='rgba(85,204,255,0.2)';cx.lineWidth=1;\n cx.beginPath();cx.arc(h.x*TILE-camX+TILE/2,h.y*TILE+TILE/2,TILE/2-1,0,Math.PI*2);cx.stroke();\n }\n }\n // active CP glow\n for(const cp of checkpoints){\n if(cp.active){cx.fillStyle='rgba(85,255,85,0.15)';cx.fillRect(cp.x*TILE-camX-2,cp.y*TILE-2,TILE+4,TILE+4);}\n }\n // ball\n if(state===ST.PLAY||state===ST.COMP){\n const bx=ball.x*TILE-camX,by=ball.y*TILE,r=TILE/2;\n cx.save();cx.translate(bx,by);cx.scale(st,sq);\n cx.fillStyle='rgba(0,0,0,0.3)';cx.beginPath();cx.arc(1,1,r,0,Math.PI*2);cx.fill();\n cx.fillStyle='#e33';cx.beginPath();cx.arc(0,0,r,0,Math.PI*2);cx.fill();\n cx.fillStyle='#f66';cx.beginPath();cx.arc(-1,-1,r*0.6,0,Math.PI*2);cx.fill();\n cx.strokeStyle='#a22';cx.lineWidth=1;cx.beginPath();cx.arc(0,0,r-0.5,0,Math.PI*2);cx.stroke();\n cx.restore();\n }\n // death fx\n if(state===ST.DYING){\n for(const p of dFx){if(p.life<=0)continue;\n cx.globalAlpha=p.life;cx.fillStyle='#e33';\n cx.fillRect(p.x*TILE-camX-p.sz*TILE*p.life/2,p.y*TILE-p.sz*TILE*p.life/2,p.sz*TILE*p.life,p.sz*TILE*p.life);\n }\n cx.globalAlpha=1;\n }\n if(state===ST.TITLE)drawTitle();\n else if(state===ST.COMP)drawComp();\n else if(state===ST.OVER)drawOver();\n}\n\nfunction drawT(tx,ty,type,sx,sy){\n const s=Math.floor(sx),y=Math.floor(sy);\n switch(type){\n case T.S:\n cx.fillStyle='#4a4a5a';cx.fillRect(s,y,TILE,TILE);\n cx.fillStyle='#5a5a6a';cx.fillRect(s,y,TILE-1,TILE-1);\n cx.fillStyle='#3a3a4a';cx.fillRect(s+TILE-1,y,1,TILE);cx.fillRect(s,y+TILE-1,TILE,1);\n break;\n case T.P:\n cx.fillStyle='#c44';cx.beginPath();cx.moveTo(s+TILE/2,y);cx.lineTo(s+TILE,y+TILE);cx.lineTo(s,y+TILE);cx.closePath();cx.fill();\n cx.fillStyle='#e66';cx.beginPath();cx.moveTo(s+TILE/2,y+2);cx.lineTo(s+TILE-2,y+TILE);cx.lineTo(s+TILE/2,y+TILE);cx.closePath();cx.fill();\n break;\n case T.O:\n cx.strokeStyle='#5cf';cx.lineWidth=2;cx.beginPath();cx.arc(s+TILE/2,y+TILE/2,TILE/2-1,0,Math.PI*2);cx.stroke();\n break;\n case T.C:\n cx.fillStyle='#5f5';cx.fillRect(s+3,y+1,2,TILE-1);\n cx.fillStyle='#8f8';cx.fillRect(s+5,y+1,3,3);\n break;\n case T.B:\n cx.fillStyle='#f0f';cx.beginPath();cx.moveTo(s+TILE/2,y+1);cx.lineTo(s+TILE-1,y+TILE/2);cx.lineTo(s+TILE/2,y+TILE-1);cx.lineTo(s+1,y+TILE/2);cx.closePath();cx.fill();\n cx.fillStyle='#faf';cx.beginPath();cx.moveTo(s+TILE/2,y+2);cx.lineTo(s+TILE-3,y+TILE/2);cx.lineTo(s+TILE/2,y+TILE/2);cx.closePath();cx.fill();\n break;\n case T.ET:case T.EB:\n if(hoopsLeft<=0){cx.fillStyle='#2a4';cx.fillRect(s,y,TILE,TILE);cx.fillStyle='#4f6';cx.fillRect(s+1,y+1,TILE-2,TILE-2);}\n else{cx.fillStyle='#666';cx.fillRect(s,y,TILE,TILE);cx.fillStyle='#888';cx.fillRect(s+1,y+2,TILE-2,TILE-4);cx.fillStyle='#fd0';cx.fillRect(s+3,y+TILE/2-1,2,2);}\n break;\n }\n}\n\nfunction drawTitle(){\n cx.fillStyle='rgba(10,10,18,0.85)';cx.fillRect(0,0,VP,VP);\n cx.textAlign='center';cx.textBaseline='middle';\n cx.fillStyle='#e33';cx.font='bold 16px monospace';cx.fillText('BOUNCE',VP/2,VP/2-20);\n cx.fillStyle='#5cf';cx.font='8px monospace';cx.fillText('Level 1',VP/2,VP/2-6);\n if(Math.floor(Date.now()/500)%2===0){cx.fillStyle='#fd0';cx.font='7px monospace';cx.fillText('Press SPACE to Start',VP/2,VP/2+14);}\n cx.fillStyle='#888';cx.font='5px monospace';cx.fillText('← → or A/D to roll | ↑ W SPACE to bounce',VP/2,VP/2+30);\n}\nfunction drawComp(){\n cx.textAlign='center';cx.textBaseline='middle';\n cx.fillStyle='rgba(10,10,18, 0.6)';cx.fillRect(0,VP/2-24,VP,56);\n cx.fillStyle='#4f6';cx.font='bold 12px monospace';cx.fillText('LEVEL COMPLETE',VP/2,VP/2-16);\n cx.fillStyle='#fd0';cx.font='bold 10px monospace';cx.fillText(score.toString().padStart(8,'0'),VP/2,VP/2+2);\n cx.fillStyle='#aaa';cx.font='6px monospace';cx.fillText('+'+CLS+' clear +'+(lives*LBS)+' lives',VP/2,VP/2+14);\n}\nfunction drawOver(){\n cx.fillStyle='rgba(10,10,18,0)';cx.fillRect(0,0,VP,VP);\n cx.textAlign='center';cx.textBaseline='middle';\n cx.fillStyle='#e33';cx.font='bold 14px monospace';cx.fillText('GAME OVER',VP/2,VP/2-8);\n cx.fillStyle='#888';cx.font='7px monospace';cx.fillText('Returning to title...',VP/2,VP/2+10);\n}\n\n// HUD\nfunction updateHUD(){\n const le=document.getElementById('hud-lives');le.innerHTML='';\n for(let i=0;i<lives;i++){const ic=document.createElement('span');ic.className='life-icon';le.appendChild(ic);}\n document.getElementById('hud-hoops').textContent='HOOPS '+hoopsLeft;\n document.getElementById('hud-score').textContent=score.toString().padStart(8,'0');\n}\n\n// Main loop\nlet lastT=0,acc=0;\nfunction loop(ts){\n const dt=Math.min((ts-lastT)/1000,0.1);lastT=ts;\n if(state===ST.PLAY)acc+=dt;\n while(acc>=FDT){physics(FDT);acc-=FDT;}\n if(state===ST.DYING){updateDeath(dt);}\n else if(state===ST.COMP){cTimer-=dt;if(cTimer<=0){state=ST.TITLE;}}\n else if(state===ST.OVER){oTimer-=dt;if(oTimer<=0){state=ST.TITLE;}}\n if(state===ST.PLAY||state===ST.DYING)updateCam();\n render();updateHUD();\n requestAnimationFrame(loop);\n}\n\n// Init\nparseLevel();requestAnimationFrame(loop);\n</parameter> levelMap[y][x];\n}\nfunction isSolid(x,y){return tileAt(x,y)===T.S;}\n\n// Game state\nlet state=ST.TITLE,score=0,lives=STL,hoopsLeft=HOOPS;\nlet hCollected=new Set(),crystalGot=false,cpScores=new Set();\nlet checkpoints=[],activeCP=null;\nlet ball={x:0,y:0,vx:0,vy:0},sq=1,st=1;\nlet dTimer=0,dFx=[],cTimer=0,oTimer=0,camX=0;\nlet keys={left:false,right:false,bounce:false};\n\n// Input\nconst LK=new Set(['ArrowLeft','KeyA','Numpad4']);\nconst RK=new Set(['ArrowRight','KeyD','Numpad6']);\nconst BK=new Set(['ArrowUp','KeyW','Space','Numpad2']);\nconst GK=new Set([...LK,...RK,...BK]);\n\ndocument.addEventListener('keydown',e=>{\n if(GK.has(e.code))e.preventDefault();\n if(LK.has(e.code))keys.left=true;\n if(RK.has(e.code))keys.right=true;\n if(BK.has(e.code))keys.bounce=true;\n if(state===ST.TITLE&&(e.code==='Space'||e.code==='ArrowUp'||e.code==='KeyW')){e.preventDefault();startGame();}\n});\ndocument.addEventListener('keyup',e=>{\n if(GK.has(e.code))e.preventDefault();\n if(LK.has(e.code))keys.left=false;\n if(RK.has(e.code))keys.right=false;\n if(BK.has(e.code))keys.bounce=false;\n});\n\nfunction startGame(){\n state=ST.PLAY;score=0;lives=STL;hoopsLeft=HOOPS;\n hCollected=new Set();crystalGot=false;cpScores=new Set();activeCP=null;\n parseLevel();respawn();\n}\nfunction respawn(){\n if(activeCP){ball.x=activeCP.x+0.5;ball.y=activeCP.y-0.5;}\n else{ball.x=2.5;ball.y=13.0;}\n ball.vx=ball.vy=0;sq=st=1;\n}\nfunction killBall(){\n if(state!==ST.PLAY)return;\n state=ST.DYING;dTimer=DDEL;dFx=[];\n for(let i=0;i<16;i++){\n const a=Math.PI*2*i/16+Math.random()*0.3,sp=3+Math.random()*5;\n dFx.push({x:ball.x,y:ball.y,vx:Math.cos(a)*sp,vy:Math.sin(a)*sp,life:1,sz:0.15+Math.random()*0.15});\n }\n}\nfunction loseLife(){\n lives--;\n if(lives<=0){state=ST.OVER;oTimer=ODEL;}\n else{state=ST.PLAY;respawn();}\n}\nfunction completeLevel(){\n if(state!==ST.PLAY)return;\n state=ST.COMP;cTimer=CDEL;\n score+=CLS+lives*LBS;\n}\n\n// Physics\nfunction physics(dt){\n if(state!==ST.PLAY)return;\n const r=0.5,grounded=isGrounded();\n let ax=0;\n if(keys.left)ax-=1;if(keys.right)ax+=1;\n if(ax!==0){ball.vx+=ax*(grounded?GAC:AIRT)*dt;}\n ball.vx=Math.max(-MSPD,Math.min(MSPD,ball.vx));\n if(ax===0&&grounded){\n const f=FRI*dt;\n if(Math.abs(ball.vx)<f+0.01)ball.vx=0;\n else{ball.vx-=Math.sign(ball.vx)*f;if(ball.vx===0||Math.sign(ball.vx)!==Math.sign(ball.vx+Math.sign(ball.vx)*f))ball.vx=0;}\n }\n ball.vy+=GRAV*dt;if(ball.vy>TERM)ball.vy=TERM;\n ball.x+=ball.vx*dt;colX(r);\n const landed=colY(r);\n if(landed&&ball.vy>0){\n if(keys.bounce){ball.vy=-BV;sq=0.6;st=1.4;}\n else{ball.vy*=-REST;if(Math.abs(ball.vy)<0.5){ball.vy=0;ball.y=restY(r);}sq=0.7;st=1.3;}\n }\n if(ball.y-r<0){ball.y=r;ball.vy=Math.max(0,ball.vy);}\n if(ball.x-r<0){ball.x=r;ball.vx=0;}\n if(ball.x+r>LEVEL_W){ball.x=LEVEL_W-r;ball.vx=0;}\n sq+=(1-sq)*12*dt;st+=(1-st)*12*dt;\n pickups();\n}\n\nfunction isGrounded(){\n const r=0.5,bx=ball.x,by=ball.y+r;\n const t1=Math.floor(bx-r+0.001),t2=Math.floor(bx+r-0.001),ty=Math.floor(by);\n for(let tx=t1;tx<=t2;tx++)if(isSolid(tx,ty))return true;\n return false;\n}\nfunction restY(r){\n const bx=ball.x,t1=Math.floor(bx-r+0.01),t2=Math.floor(bx+r-0.01);\n let lo=ball.y;\n for(let tx=t1;tx<=t2;tx++)for(let ty=Math.floor(ball.y-r);ty<=Math.floor(ball.y+r)+1;ty++)\n if(isSolid(tx,ty)){const ry=ty-r;if(ry<lo)lo=ry;}\n return lo;\n}\nfunction colX(r){\n const bx=ball.x,by=ball.y;\n const y1=Math.floor(by-r+0.001),y2=Math.floor(by+r-0.001);\n const x1=Math.floor(bx-r+0.001),x2=Math.floor(bx+r-0.001);\n for(let ty=y1;ty<=y2;ty++)for(let tx=x1;tx<=x2;tx++){\n if(!isSolid(tx,ty))continue;\n if(bx+r>tx&&bx-r<tx+1&&by+r>ty&&by-r<ty+1){\n const ol=(bx+r)-tx,or2=(tx+1)-(bx-r);\n if(ol<or2)ball.x=tx-r;else ball.x=tx+1+r;\n ball.vx=0;\n }\n }\n}\nfunction colY(r){\n let landed=false;\n const bx=ball.x,by=ball.y;\n const y1=Math.floor(by-r+0.001),y2=Math.floor(by+r-0.001);\n const x1=Math.floor(bx-r+0.001),x2=Math.floor(bx+r-0.001);\n for(let ty=y1;ty<=y2;ty++)for(let tx=x1;tx<=x2;tx++){\n if(!isSolid(tx,ty))continue;\n if(bx+r>tx&&bx-r< tx+1&&by+r>ty&&by-r< ty+1){\n const ot=(by+r)-ty,ob=(ty+1)-(by-r);\n if(ot<ob){ball.y=ty-r;if(ball.vy>0)landed=true;ball.vy=0;}\n else{ball.y=ty+1+r;ball.vy=0;}\n }\n }\n return landed;\n}\n\nfunction pickups(){\n const r=0.5,bx=ball.x,by=ball.y;\n for(let i=0;i<hoopPos.length;i++){\n if(hCollected.has(i))continue;\n const h=hoopPos[i],dx=bx-(h.x+0.5),dy=by-(h.y+0.5);\n if(dx*dx+dy*dy<1){hCollected.add(i);hoopsLeft--;score+=HSC;}\n }\n for(let i=0;i<checkpoints.length;i++){\n const cp=checkpoints[i],dx=bx-(cp.x+0.5),dy=by-(cp.y+0.5);\n if(dx*dx+dy*dy<1){\n if(!cpScores.has(i)){score+=CPS;cpScores.add(i);}\n checkpoints.forEach(c=>c.active=false);cp.active=true;activeCP={x:cp.x,y:cp.y};\n }\n }\n if(cPos&&!crystalGot){\n const dx=bx-(cPos.x+0.5),dy=by-(cPos.y+0.5);\n if(dx*dx+dy*dy<1){crystalGot=true;score+=CRY;if(lives<MXL)lives++;}\n }\n if(ePos&&hoopsLeft<=0){\n const ex=ePos.x+0.5,ey=ePos.y+0.5,dx=bx-ex,dy=by-ey;\n if(dx*dx<0.64&&dy*dy<1.44)completeLevel();\n }\n for(let y=0;y<LEVEL_H;y++)for(let x=0;x<LEVEL_W;x++){\n if(lmap[y][x]!==T.P)continue;\n const dx=bx-(x+0.5),dy=by-(y+0.5);\n if(dx*dx+dy*dy<(r+0.35)*(r+0.35)){killBall();return;}\n }\n}\n\nfunction updateDeath(dt){\n if(state!==ST.DYING)return;\n dTimer-=dt;\n for(const p of dFx){p.x+=p.vx" } ]errorTool call "edit" was not executed: the response hit the output token limit, so its arguments may be truncated. Re-issue the tool call with complete arguments. -
1 out-tok · length hit token limit
reasoning I…1 chars
I
stderr
Warning: No project session found with id 'run'; creating a new session with that id.