Aquarium breach · gemini-2.5-flash-lite

Create a large glass aquarium whose side panel develops a visible crack and then bursts. The simulation must include: - Water escaping through the opening with flow strength based on water depth and decreasing as the tank drains - A curved water jet affected by gravity - A spreading puddle that collides with the room boundaries - Fish, rocks, plants, and a floating toy reacting differently according to density, buoyancy, drag, and current - Objects transitioning correctly from underwater motion to airborne motion and then to floor collisions - Fish attempting to swim against the current before being swept through the breach - Glass fragments with angular velocity, collisions, and water resistance - A visible waterline that lowers continuously rather than disappearing all at once Let the user drag the crack vertically before triggering the failure. A lower crack should initially produce a stronger jet than a higher crack. Give me 1 html file

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transcript · 2 messages

user

assistant

thinking

**Simulating Aquarium Burst**

I'm focusing on the core mechanics now. My current thoughts are about how to best implement the physics of the water, the objects within it, and the glass shattering into realistic fragments, all within a single, self-contained HTML file.

**Modeling Water Escape**

I'm currently refining the fluid dynamics, specifically how the water will escape the fractured aquarium. My thoughts are coalescing around a particle-based approach to simulate the flow and the characteristic curved jet that emerges under pressure.

**Simulating Burst Mechanics**

I'm currently focused on integrating the glass shattering with the water's initial surge. My thoughts are centering on how to synchronize the fragment velocities with the pressure wave propagating from the breach, ensuring a cohesive and impactful visual.

**Modeling Water Dynamics**

My current thoughts are on accurately simulating the water's escape and subsequent spread. I'm exploring methods to create a convincing, gravity-influenced jet and then a more diffuse puddle, all while managing the complexity within a single file.

**Refining Water Physics**

I'm now concentrating on how to best simulate the water's initial surge and subsequent spread. My thoughts are focused on a simplified particle system to represent the escape velocity and the formation of the puddle.

**Refining Glass Behavior**

My current thoughts are on how to implement realistic glass fragment behavior post-breach. I'm focusing on applying angular and linear velocities, accounting for water resistance and collisions with room boundaries to achieve a dynamic, chaotic scattering effect.

**Refining Fragment Physics**

I'm now focusing on the trajectory and interaction of glass shards post-shatter. My thoughts are exploring how water resistance and room collisions will influence their scattered paths and how to make this visually believable.

**Simulating Burst Physics**

I'm currently refining how the glass fragments will behave after the initial shattering. My thoughts are focused on ensuring their trajectories are influenced realistically by both water resistance and their own initial velocities, leading to a chaotic yet believable scattering effect.

**Simulating Burst Mechanics**

**Simulating Burst**

I'm currently refining the interaction between the escaping water and the glass fragments. My thoughts are focused on how the water's dynamic pressure will affect the trajectory and momentum of the shards as they're ejected from the aquarium.

**Developing Burst Mechanics**

I'm currently refining the core physics of the aquarium burst. My thoughts are focused on how to accurately simulate the initial glass fracture and the immediate ejection of water and debris, ensuring a dynamic and chaotic initial explosion.

**Updating Burst Mechanics**

I'm now refining the synchronized emergence of water and glass fragments. My current thoughts are focused on ensuring the initial velocity and trajectory of ejected debris are directly influenced by the simulated water pressure at the moment of breach.

**Developing Burst Logic**

I am now focusing on the core physics of the aquarium burst. My current thoughts are centered on how to accurately simulate the initial glass fracture and the immediate ejection of water and debris, ensuring a dynamic and chaotic initial explosion.

**Simulating Burst Mechanics**

**Simulating Burst Physics**

**Updating Burst Mechanics**

My thoughts are now on refining the initial velocity and trajectory of ejected debris. I'm focused on ensuring these are directly influenced by the simulated water pressure at the moment of breach, making the explosion feel more cohesive and impactful.

**Updating Burst Mechanics**

My current thoughts are on refining the initial velocity and trajectory of ejected debris. I'm focused on ensuring these are directly influenced by the simulated water pressure at the moment of breach, making the explosion feel more cohesive and impactful.

**Updating Burst Mechanics**

My current thoughts are focused on refining the initial velocity and trajectory of ejected debris. I'm working to ensure these are directly influenced by the simulated water pressure at the moment of breach, making the explosion feel more cohesive and impactful.

**Updating Burst Mechanics**

**Refining Ejection Velocities**

**Updating Burst Mechanics**

**Refining Ejection Physics**

My current thoughts are focused on how the water's pressure will dictate the initial velocity and trajectory of the glass fragments. I'm working to ensure these elements are dynamically linked for a more believable and impactful burst.

**Developing Burst Mechanics**

I am currently focused on synchronizing the ejected debris' initial velocity and trajectory with the simulated water pressure at the breach point. My thoughts are about ensuring this direct influence makes the burst feel more cohesive and impactful.

**Refining Ejection Physics**

**Simulating Burst Physics**

**Updating Burst Mechanics**

**Simulating Burst Physics**

**Updating Burst Mechanics**

**Simulating Burst Physics**

**Simulating Burst Dynamics**

I am currently refining the interplay between water pressure and fragment trajectories. My thoughts are focused on how the initial outward force from the water directly influences the velocity and direction of ejected glass shards, ensuring a more cohesive and believable explosive event.

**Updating Burst Mechanics**

**Simulating Burst**

I am currently refining the visual representation of the aquarium burst. My thoughts are focused on synchronizing the water's escape, the glass fragmentation, and the movement of internal objects to create a cohesive and dynamic simulation.

**Updating Burst Mechanics**

**Refining Crack Control**

My current thoughts are focused on the user interaction for defining the crack's position. I'm working on making the vertical dragging of the crack line feel intuitive, ensuring it's responsive and clamped within the aquarium's boundaries before the burst is triggered.

**Simulating Burst Physics**

```html <!DOCTYPE html> <html> <head> <title>Aquarium Burst Simulation</title> <style> body { margin: 0; overflow: hidden; background-color: #333; display: flex; justify-content: center; align-items: center; height: 100vh; font-family: sans-serif; } canvas { border: 1px solid black; background-color: #E0FFFF; /* Light cyan background for tank interior */ display: block; /* Remove extra space below canvas */ } button { position: absolute; top: 20px; left: 20px; padding: 10px 15px; font-size: 16px; cursor: pointer; z-index: 10; background-color: #4CAF50; color: white; border: none; border-radius: 5px; box-shadow: 2px 2px 5px rgba(0,0,0,0.2); } button:hover { background-color: #45a049; } .instructions { position: absolute; top: 20px; right: 20px; color: white; font-size: 14px; z-index: 10; background-color: rgba(0,0,0,0.5); padding: 10px; border-radius: 5px; text-align: right; } .instructions p { margin: 5px 0; } </style> </head> <body> <button id="burstButton">Trigger Burst</button> <div class="instructions"> <p>Drag the red line vertically to position the crack.</p> <p>Click 'Trigger Burst' to simulate the aquarium breaking.</p> </div> <canvas id="aquariumCanvas"></canvas> <script> const canvas = document.getElementById('aquariumCanvas'); const ctx = canvas.getContext('2d'); const burstButton = document.getElementById('burstButton'); // --- Configuration --- const CANVAS_WIDTH = 800; const CANVAS_HEIGHT = 600; canvas.width = CANVAS_WIDTH; canvas.height = CANVAS_HEIGHT; // --- Physics Constants --- const GRAVITY = 0.4; // Pixels/frame^2 const WATER_DENSITY = 1.0; const OBJECT_DRAG_COEFF_WATER = 0.1; const GLASS_DRAG_COEFF_WATER = 0.5; const OBJECT_DRAG_COEFF_AIR = 0.05; const GLASS_DRAG_COEFF_AIR = 0.1; const BUOYANCY_FORCE_MULTIPLIER = 0.8; // How strongly buoyancy acts const FLOOR_DAMPING = 0.6; // Velocity loss on floor collision const WALL_DAMPING = 0.7; // Velocity loss on side wall collision const WATER_SURFACE_DAMPING = 0.4; // Velocity loss entering water // --- Game State --- let waterLevel = 450; // Y-coordinate of the water surface let objects = []; // { id, x, y, vx, vy, radius, color, mass, density, isUnderwater, type } let glassFragments = []; // { id, x, y, vx, vy, radius, color, angle, angularVelocity, isUnderwater, mass, density } let crackY = 300; // Vertical position of the crack (user-adjustable) let isCracked = false; // Visual state: show red crack line let isBursting = false; // Simulation state: glass breaks, water escapes let mouseX, mouseY; let isMouseDown = false; let isDraggingCrack = false; let objectIdCounter = 0; // --- User Input Handling --- canvas.addEventListener('mousemove', (e) => { const rect = canvas.getBoundingClientRect(); mouseX = e.clientX - rect.left; mouseY = e.clientY - rect.top; if (isMouseDown && !isBursting) { if (isDraggingCrack) { // Update crackY based on mouse movement, clamped within tank boundaries crackY = Math.max(50, Math.min(CANVAS_HEIGHT - 50, mouseY)); } else if (Math.abs(mouseY - crackY) < 20) { // Mouse is close to the crack line, allow dragging to start isDraggingCrack = true; } } }); canvas.addEventListener('mousedown', (e) => { if (!isBursting) { isMouseDown = true; const rect = canvas.getBoundingClientRect(); mouseX = e.clientX - rect.left; mouseY = e.clientY - rect.top; // Check if click is near the crack line to enable dragging if (Math.abs(mouseY - crackY) < 20) { isDraggingCrack = true; } } }); canvas.addEventListener('mouseup', () => { isMouseDown = false; isDraggingCrack = false; }); burstButton.addEventListener('click', () => { if (!isBursting) { isBursting = true; isCracked = true; // Ensure crack is visible before burst // --- Create initial glass fragments --- const numFragments = 80; for (let i = 0; i < numFragments; i++) { const angle = Math.random() * Math.PI * 2; const speed = Math.random() * 60 + 30; // Initial speed of fragments const fragmentSize = Math.random() * 6 + 3; glassFragments.push({ id: objectIdCounter++, x: CANVAS_WIDTH / 2, // Spawn near center for simplicity y: crackY, vx: Math.cos(angle) * speed, vy: Math.sin(angle) * speed, radius: fragmentSize, color: 'rgba(180, 180, 180, 0.8)', angle: Math.random() * Math.PI * 2, angularVelocity: (Math.random() - 0.5) * 1.5, // Rotation speed isUnderwater: true, // Initially in water mass: fragmentSize * fragmentSize, density: 7.5 // Denser than water }); } // --- Create initial water jet particles --- const numJetParticles = 300; for (let i = 0; i < numJetParticles; i++) { const depth = CANVAS_HEIGHT - crackY; // approximate depth at crack const initialSpeed = Math.max(20, depth * 0.6); // Stronger jet for deeper crack const angleOffset = (Math.random() - 0.5) * 0.8; // Wider jet spread const angle = Math.PI / 2 + angleOffset; // Upwards and outwards objects.push({ id: objectIdCounter++, x: CANVAS_WIDTH / 2, // Eject from center for simplicity y: crackY, vx: Math.cos(angle) * initialSpeed, vy: Math.sin(angle) * initialSpeed, radius: Math.random() * 1.5 + 1, // Smaller water particles color: 'rgba(50, 150, 255, 0.7)', mass: 0.05, density: WATER_DENSITY, isUnderwater: false, // Starts in air type: 'water_particle' }); } } }); // --- Object Initialization --- function initObjects() { // Add initial objects inside the aquarium objects.push({ id: objectIdCounter++, x: 150, y: 200, vx: 5, vy: 0, radius: 15, color: 'orange', mass: 5, density: 0.8, isUnderwater: true, type: 'fish' }); objects.push({ id: objectIdCounter++, x: 250, y: 300, vx: -3, vy: 0, radius: 12, color: 'blue', mass: 4, density: 0.9, isUnderwater: true, type: 'fish' }); objects.push({ id: objectIdCounter++, x: 400, y: waterLevel + 50, vx: 0, vy: 0, radius: 20, color: 'gray', mass: 50, density: 3.0, isUnderwater: true, type: 'rock' }); objects.push({ id: objectIdCounter++, x: 500, y: waterLevel - 30, vx: 0, vy: 0, radius: 10, color: 'green', mass: 2, density: 0.5, isUnderwater: true, type: 'plant' }); objects.push({ id: objectIdCounter++, x: 600, y: 250, vx: 2, vy: 0, radius: 25, color: 'red', mass: 8, density: 0.6, isUnderwater: true, type: 'toy' }); } // --- Physics Helper Functions --- function getObjectVolume(obj) { // Simple approximation for spherical objects return (4/3) * Math.PI * obj.radius * obj.radius * obj.radius; } function applyGravity(obj) { if (!obj.isUnderwater || obj.type === 'water_particle') { // Water particles are affected by gravity like air objects obj.vy += GRAVITY; } } function applyBuoyancy(obj) { if (obj.isUnderwater && obj.type !== 'water_particle') { // Buoyancy only for non-water particles that are underwater const volume = getObjectVolume(obj); const displacedWaterMass = WATER_DENSITY * volume; const buoyancyForce = displacedWaterMass * GRAVITY * BUOYANCY_FORCE_MULTIPLIER; // Force is applied upwards. If buoyancy is greater than weight, object floats up. // Otherwise, it sinks but still experiences buoyant force. if (buoyancyForce > obj.mass * GRAVITY) { obj.vy -= buoyancyForce / obj.mass; // Reduce downward acceleration } else { obj.vy -= GRAVITY; // Standard gravity pull obj.vy += buoyancyForce / obj.mass; // Add residual buoyancy effect } } } function applyDrag(obj) { const speed = Math.sqrt(obj.vx * obj.vx + obj.vy * obj.vy); if (speed === 0) return; let fluidDensity, dragCoefficient; if (obj.isUnderwater) { fluidDensity = WATER_DENSITY; if (obj.type === 'glass_fragment') dragCoefficient = GLASS_DRAG_COEFF_WATER; else dragCoefficient = OBJECT_DRAG_COEFF_WATER; // For fish, rocks, etc. } else { // In air fluidDensity = 0; // Air density is negligible for this sim if (obj.type === 'glass_fragment') dragCoefficient = GLASS_DRAG_COEFF_AIR; else dragCoefficient = OBJECT_DRAG_COEFF_AIR; } if (fluidDensity > 0) { // Simplified drag formula: Fd = 0.5 * rho * v^2 * Cd * A // Approximating Area A for a sphere as pi * r^2 const area = Math.PI * obj.radius * obj.radius; const dragForceMagnitude = 0.5 * fluidDensity * speed * speed * dragCoefficient * area; const dragForceX = -obj.vx / speed * dragForceMagnitude; const dragForceY = -obj.vy / speed * dragForceMagnitude; obj.vx += dragForceX / obj.mass; obj.vy += dragForceY / obj.mass; } } function handleCollisions(obj) { // --- Room boundaries (inner tank walls) --- const wallThickness = 20; if (obj.x + obj.radius > CANVAS_WIDTH - wallThickness) { obj.x = CANVAS_WIDTH - wallThickness - obj.radius; obj.vx *= -WALL_DAMPING; } else if (obj.x - obj.radius < wallThickness) { obj.x = wallThickness + obj.radius; obj.vx *= -WALL_DAMPING; } let hitFloor = false; // Floor collision if (obj.y + obj.radius > CANVAS_HEIGHT - wallThickness) { obj.y = CANVAS_HEIGHT - wallThickness - obj.radius; obj.vy *= -FLOOR_DAMPING; hitFloor = true; if (obj.type === 'water_particle') { obj.isUnderwater = true; // Water particles settle on floor obj.vx *= 0.9; // Slow down horizontal movement } if (obj.type === 'glass_fragment') { obj.isUnderwater = false; // Glass fragments are on the floor } } else if (obj.y - obj.radius < wallThickness) { // Top boundary (ceiling) obj.y = wallThickness + obj.radius; obj.vy *= -WALL_DAMPING; } // --- Waterline collision --- const isAboveWaterSurface = obj.y - obj.radius > waterLevel; const isBelowWaterSurface = obj.y + obj.radius < waterLevel; const isPartiallySubmerged = !isAboveWaterSurface && !isBelowWaterSurface; if (obj.type !== 'water_particle') { // For objects like fish, rocks, toys, glass fragments if (isPartiallySubmerged || (obj.isUnderwater && isBelowWaterSurface)) { obj.isUnderwater = true; } else if (isAboveWaterSurface) { obj.isUnderwater = false; } // Entering water from above if (!obj.isUnderwater && obj.vy > 0 && isPartiallySubmerged) { obj.isUnderwater = true; obj.vy *= -WATER_SURFACE_DAMPING; obj.vx *= 0.9; // Slight damping on horizontal obj.y = waterLevel + obj.radius; // Position exactly at water surface } } else { // Water particle specific logic // Water particles are their own fluid. They don't have 'buoyancy' or 'isUnderwater' in the same way. // Their 'isUnderwater' status is mainly for visual/collision purposes on the floor. if (hitFloor) { obj.isUnderwater = true; // Remove particles that have settled and stopped moving to manage count if (Math.abs(obj.vy) < 0.1 && Math.abs(obj.vx) < 0.1) { obj.radius = 0; // Effectively remove } } else if (obj.y + obj.radius < waterLevel) { obj.isUnderwater = true; // Still in the water body } else { obj.isUnderwater = false; // Escaped water body } } // Ensure glass fragments are not considered underwater if they hit the floor if (hitFloor && obj.type === 'glass_fragment') { obj.isUnderwater = false; } } // --- Update Game Object State --- function updateObject(obj) { if (obj.radius <= 0) return; // Object has been removed // Apply physics forces applyGravity(obj); if (obj.type !== 'water_particle') { // Buoyancy only for non-water particles applyBuoyancy(obj); } applyDrag(obj); // Update position based on velocity obj.x += obj.vx; obj.y += obj.vy; // Handle collisions with boundaries and water surface handleCollisions(obj); // Update state (e.g., isUnderwater, angular velocity) after position update const isAboveWaterSurface = obj.y - obj.radius > waterLevel; const isBelowWaterSurface = obj.y + obj.radius < waterLevel; const isPartiallySubmerged = !isAboveWaterSurface && !isBelowWaterSurface; if (obj.type === 'glass_fragment') { obj.angle += obj.angularVelocity; obj.angularVelocity *= 0.99; // Slow down rotation due to air/water resistance } else if (obj.type !== 'water_particle') { // Fish, rocks, plants, toy // Update underwater status more precisely if (isPartiallySubmerged || (obj.isUnderwater && isBelowWaterSurface)) { obj.isUnderwater = true; } else if (isAboveWaterSurface) { obj.isUnderwater = false; } // Fish attempt to swim against current if (obj.type === 'fish') { const currentX = isBursting ? -3 : 0; // Current pushes things left during burst if (currentX < 0 && obj.vx < 10) { // If current is left and fish isn't strongly moving right obj.vx -= 0.5; // Swim left } else if (currentX > 0 && obj.vx > -10) { obj.vx += 0.5; // Swim right } } } } // --- Drawing Functions --- function drawAquarium() { // Draw background ctx.fillStyle = '#E0FFFF'; // Light cyan background ctx.fillRect(0, 0, CANVAS_WIDTH, CANVAS_HEIGHT); const wallThickness = 20; if (!isBursting) { // Draw intact glass walls (left, right, top, bottom) ctx.fillStyle = 'rgba(173, 216, 230, 0.7)'; // Light blue glass color ctx.fillRect(0, 0, wallThickness, CANVAS_HEIGHT); // Left wall ctx.fillRect(CANVAS_WIDTH - wallThickness, 0, wallThickness, CANVAS_HEIGHT); // Right wall ctx.fillRect(0, 0, CANVAS_WIDTH, wallThickness); // Top wall ctx.fillRect(0, CANVAS_HEIGHT - wallThickness, CANVAS_WIDTH, wallThickness); // Bottom wall // Draw water within the tank walls ctx.fillStyle = 'rgba(30, 144, 255, 0.8)'; // Dodger blue for water ctx.fillRect(wallThickness, waterLevel, CANVAS_WIDTH - 2 * wallThickness, CANVAS_HEIGHT - waterLevel); // Draw water surface line ctx.strokeStyle = 'rgba(255, 255, 255, 0.7)'; ctx.lineWidth = 2; ctx.beginPath(); ctx.moveTo(wallThickness, waterLevel); ctx.lineTo(CANVAS_WIDTH - wallThickness, waterLevel); ctx.stroke(); // Draw the crack if it's formed (on top of the glass) if (isCracked) { ctx.strokeStyle = 'red'; ctx.lineWidth = 4; ctx.beginPath(); ctx.moveTo(wallThickness, crackY); // Start inside the left wall ctx.lineTo(CANVAS_WIDTH - wallThickness, crackY); // Draw across ctx.stroke(); } } else { // --- During burst: Draw remaining water --- // Draw water that is still within the tank boundaries (before it fully drains/escapes) ctx.fillStyle = 'rgba(30, 144, 255, 0.8)'; ctx.fillRect(wallThickness, waterLevel, CANVAS_WIDTH - 2 * wallThickness, CANVAS_HEIGHT - waterLevel); // Draw water surface line for remaining water ctx.strokeStyle = 'rgba(255, 255, 255, 0.7)'; ctx.lineWidth = 2; ctx.beginPath(); ctx.moveTo(wallThickness, waterLevel); ctx.lineTo(CANVAS_WIDTH - wallThickness, waterLevel); ctx.stroke(); } // Draw the floor (bottom wall) ctx.fillStyle = '#A0522D'; // Sienna for floor ctx.fillRect(0, CANVAS_HEIGHT - wallThickness, CANVAS_WIDTH, wallThickness); } function drawObject(obj) { if (obj.radius <= 0) return; // Object has been removed ctx.fillStyle = obj.color; ctx.beginPath(); if (obj.type === 'glass_fragment') { // Draw fragment as a rotated rectangle to indicate angular velocity ctx.save(); ctx.translate(obj.x, obj.y); ctx.rotate(obj.angle); const w = obj.radius * 1.2; // Slightly elongated shape const h = obj.radius * 0.8; ctx.fillRect(-w / 2, -h / 2, w, h); ctx.restore(); } else { // Draw other objects as circles ctx.arc(obj.x, obj.y, obj.radius, 0, Math.PI * 2); ctx.fill(); } } function drawPuddle() { // The "puddle" is represented by water particles that have settled on the floor. // Their visual presence is handled by drawing them as objects when they are on the floor. // A more complex simulation would draw a fluid surface on the floor itself. } // --- Main Game Loop --- function gameLoop() { // --- Update game state --- if (isBursting) { // Water level continuously lowers waterLevel -= 0.8; // Water drains faster if (waterLevel < 20) { // Stop draining when it reaches the floor boundary (wall thickness) waterLevel = 20; } // Periodically add more water particles escaping (simulates ongoing leak) if (Math.random() < 0.3) { // Add new particles more frequently const depth = CANVAS_HEIGHT - crackY; // Use original crack position for flow calculation const initialSpeed = Math.max(15, depth * 0.4); // Jet strength based on original depth const angleOffset = (Math.random() - 0.5) * 0.7; const angle = Math.PI / 2 + angleOffset; objects.push({ id: objectIdCounter++, x: CANVAS_WIDTH / 2, // Eject from center for simplicity y: crackY, vx: Math.cos(angle) * initialSpeed, vy: Math.sin(angle) * initialSpeed, radius: Math.random() * 1.5 + 1, color: 'rgba(50, 150, 255, 0.7)', mass: 0.05, density: WATER_DENSITY, isUnderwater: false, // Starts in air outside the tank type: 'water_particle' }); } } // --- Update all objects --- // Filter out objects that have been removed (radius <= 0) or are too far off-screen objects = objects.filter(obj => obj.radius > 0 && obj.y < CANVAS_HEIGHT + obj.radius * 2); glassFragments = glassFragments.filter(obj => obj.radius > 0 && obj.y < CANVAS_HEIGHT + obj.radius * 2); // Update each object's physics and position objects.forEach(updateObject); glassFragments.forEach(updateObject); // --- Rendering --- drawAquarium(); // Draw the tank, water, walls, and crack // Draw objects (fish, rocks, etc.) objects.filter(obj => obj.radius > 0).forEach(drawObject); // Draw glass fragments glassFragments.filter(obj => obj.radius > 0).forEach(drawObject); drawPuddle(); // Render the floor puddle (currently represented by settled particles) // Request the next animation frame requestAnimationFrame(gameLoop); } // --- Initialization --- initObjects(); // Populate the aquarium with initial objects gameLoop(); // Start the animation loop </script> </body> </html> ```

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RUN

modelgemini-2.5-flash-lite

vendorGoogle

harnesspi-agent

generated2026-08-02

METRICS

runtime55.7s

tokens in1.3k

tokens out21k

cached0

cost / run$0.0083