Webgl

by martinholovsky1086ef25672aNo license47 starsListed Oct 8, 2026Updated Oct 8, 2026Repository updated 10 months ago

WebGL shaders and effects for JARVIS 3D HUD

Instructions onlySoftware Development Design & Creative

AI-generated overview

Guides WebGL 2.0 shader and effect development for a 3D HUD, covering safe compilation, resource limits and performance patterns.

What it does: This skill supplies WebGL expertise for building custom shaders and visual effects in a JARVIS-style 3D HUD, including holographic shaders, post-processing and particle systems. It provides TypeScript and GLSL patterns for safe shader compilation, program linking, context-loss handling, uniform validation and resource management. It also documents performance practices such as buffer reuse, draw-call batching, texture compression, instancing and VAO usage, plus GPU resource limits and security notes. It is instructions only and produces no files or scripts.
When to use it: Use it when implementing or reviewing GPU-accelerated rendering code, such as custom shaders, holographic or post-processing effects, or real-time data visualization in a browser. It also fits when hardening WebGL code against context loss, GPU memory exhaustion or excessive draw calls.
Requirements: Requires a WebGL 2.0-capable browser and a TypeScript/JavaScript project; examples reference Vitest for tests and npm scripts for test, typecheck and build. No scripts or assets ship with the skill beyond two reference documents.

WebGL Development Skill

File Organization: This skill uses split structure. See references/ for advanced patterns and security examples.

1. Overview

This skill provides WebGL expertise for creating custom shaders and visual effects in the JARVIS AI Assistant HUD. It focuses on GPU-accelerated rendering with security considerations.

Risk Level: MEDIUM - Direct GPU access, potential for resource exhaustion, driver vulnerabilities

Primary Use Cases:

Custom shaders for holographic effects
Post-processing effects (bloom, glitch)
Particle systems with compute shaders
Real-time data visualization

2. Core Responsibilities

2.1 Fundamental Principles

TDD First: Write tests before implementation - test shaders, contexts, and resources
Performance Aware: Optimize GPU usage - batch draws, reuse buffers, compress textures
GPU Safety: Implement timeout mechanisms and resource limits
Shader Validation: Validate all shader inputs before compilation
Context Management: Handle context loss gracefully
Performance Budgets: Set strict limits on draw calls and triangles
Fallback Strategy: Provide non-WebGL fallbacks
Memory Management: Track and limit texture/buffer usage

3. Technology Stack & Versions

3.1 Browser Support

3.2 Security Considerations

typescript

// Check WebGL support and capabilitiesfunction getWebGLContext(canvas: HTMLCanvasElement): WebGL2RenderingContext | null {  const gl = canvas.getContext('webgl2', {    alpha: true,    antialias: true,    powerPreference: 'high-performance',    failIfMajorPerformanceCaveat: true  // Fail if software rendering  })
  if (!gl) {    console.warn('WebGL 2.0 not supported')    return null  }
  return gl}

// Check WebGL support and capabilitiesfunction getWebGLContext(canvas: HTMLCanvasElement): WebGL2RenderingContext | null {  const gl = canvas.getContext('webgl2', {    alpha: true,    antialias: true,    powerPreference: 'high-performance',    failIfMajorPerformanceCaveat: true  // Fail if software rendering  })
  if (!gl) {    console.warn('WebGL 2.0 not supported')    return null  }
  return gl}

4. Implementation Patterns

4.1 Safe Shader Compilation

typescript

// utils/shaderUtils.ts
// ✅ Safe shader compilation with error handlingexport function compileShader(  gl: WebGL2RenderingContext,  source: string,  type: number): WebGLShader | null {  const shader = gl.createShader(type)  if (!shader) return null
  gl.shaderSource(shader, source)  gl.compileShader(shader)
  if (!gl.getShaderParameter(shader, gl.COMPILE_STATUS)) {    const error = gl.getShaderInfoLog(shader)    console.error('Shader compilation error:', error)    gl.deleteShader(shader)    return null  }
  return shader}
// ✅ Safe program linkingexport function createProgram(  gl: WebGL2RenderingContext,  vertexShader: WebGLShader,  fragmentShader: WebGLShader): WebGLProgram | null {  const program = gl.createProgram()  if (!program) return null
  gl.attachShader(program, vertexShader)  gl.attachShader(program, fragmentShader)  gl.linkProgram(program)
  if (!gl.getProgramParameter(program, gl.LINK_STATUS)) {    const error = gl.getProgramInfoLog(program)    console.error('Program linking error:', error)    gl.deleteProgram(program)    return null  }
  return program}

// utils/shaderUtils.ts
// ✅ Safe shader compilation with error handlingexport function compileShader(  gl: WebGL2RenderingContext,  source: string,  type: number): WebGLShader | null {  const shader = gl.createShader(type)  if (!shader) return null
  gl.shaderSource(shader, source)  gl.compileShader(shader)
  if (!gl.getShaderParameter(shader, gl.COMPILE_STATUS)) {    const error = gl.getShaderInfoLog(shader)    console.error('Shader compilation error:', error)    gl.deleteShader(shader)    return null  }
  return shader}
// ✅ Safe program linkingexport function createProgram(  gl: WebGL2RenderingContext,  vertexShader: WebGLShader,  fragmentShader: WebGLShader): WebGLProgram | null {  const program = gl.createProgram()  if (!program) return null
  gl.attachShader(program, vertexShader)  gl.attachShader(program, fragmentShader)  gl.linkProgram(program)
  if (!gl.getProgramParameter(program, gl.LINK_STATUS)) {    const error = gl.getProgramInfoLog(program)    console.error('Program linking error:', error)    gl.deleteProgram(program)    return null  }
  return program}

4.2 Context Loss Handling

typescript

// composables/useWebGL.tsexport function useWebGL(canvas: Ref<HTMLCanvasElement | null>) {  const gl = ref<WebGL2RenderingContext | null>(null)  const contextLost = ref(false)
  onMounted(() => {    if (!canvas.value) return
    // ✅ Handle context loss    canvas.value.addEventListener('webglcontextlost', (e) => {      e.preventDefault()      contextLost.value = true      console.warn('WebGL context lost')    })
    canvas.value.addEventListener('webglcontextrestored', () => {      contextLost.value = false      initializeGL()      console.info('WebGL context restored')    })
    initializeGL()  })
  function initializeGL() {    gl.value = getWebGLContext(canvas.value!)    // Reinitialize all resources  }
  return { gl, contextLost }}

// composables/useWebGL.tsexport function useWebGL(canvas: Ref<HTMLCanvasElement | null>) {  const gl = ref<WebGL2RenderingContext | null>(null)  const contextLost = ref(false)
  onMounted(() => {    if (!canvas.value) return
    // ✅ Handle context loss    canvas.value.addEventListener('webglcontextlost', (e) => {      e.preventDefault()      contextLost.value = true      console.warn('WebGL context lost')    })
    canvas.value.addEventListener('webglcontextrestored', () => {      contextLost.value = false      initializeGL()      console.info('WebGL context restored')    })
    initializeGL()  })
  function initializeGL() {    gl.value = getWebGLContext(canvas.value!)    // Reinitialize all resources  }
  return { gl, contextLost }}

4.3 Holographic Shader

glsl

// shaders/holographic.frag#version 300 esprecision highp float;
uniform float uTime;uniform vec3 uColor;uniform float uScanlineIntensity;
in vec2 vUv;out vec4 fragColor;
void main() {  // Scanline effect  float scanline = sin(vUv.y * 200.0 + uTime * 2.0) * 0.5 + 0.5;  scanline = mix(1.0, scanline, uScanlineIntensity);
  // Edge glow  float edge = smoothstep(0.0, 0.1, vUv.x) *               smoothstep(1.0, 0.9, vUv.x) *               smoothstep(0.0, 0.1, vUv.y) *               smoothstep(1.0, 0.9, vUv.y);
  vec3 color = uColor * scanline * edge;  float alpha = edge * 0.8;
  fragColor = vec4(color, alpha);}

// shaders/holographic.frag#version 300 esprecision highp float;
uniform float uTime;uniform vec3 uColor;uniform float uScanlineIntensity;
in vec2 vUv;out vec4 fragColor;
void main() {  // Scanline effect  float scanline = sin(vUv.y * 200.0 + uTime * 2.0) * 0.5 + 0.5;  scanline = mix(1.0, scanline, uScanlineIntensity);
  // Edge glow  float edge = smoothstep(0.0, 0.1, vUv.x) *               smoothstep(1.0, 0.9, vUv.x) *               smoothstep(0.0, 0.1, vUv.y) *               smoothstep(1.0, 0.9, vUv.y);
  vec3 color = uColor * scanline * edge;  float alpha = edge * 0.8;
  fragColor = vec4(color, alpha);}

4.4 Resource Management

typescript

// utils/resourceManager.tsexport class WebGLResourceManager {  private textures: Set<WebGLTexture> = new Set()  private buffers: Set<WebGLBuffer> = new Set()  private programs: Set<WebGLProgram> = new Set()
  private textureMemory = 0  private readonly MAX_TEXTURE_MEMORY = 256 * 1024 * 1024  // 256MB
  constructor(private gl: WebGL2RenderingContext) {}
  createTexture(width: number, height: number): WebGLTexture | null {    const size = width * height * 4  // RGBA
    // ✅ Enforce memory limits    if (this.textureMemory + size > this.MAX_TEXTURE_MEMORY) {      console.error('Texture memory limit exceeded')      return null    }
    const texture = this.gl.createTexture()    if (texture) {      this.textures.add(texture)      this.textureMemory += size    }    return texture  }
  dispose(): void {    this.textures.forEach(t => this.gl.deleteTexture(t))    this.buffers.forEach(b => this.gl.deleteBuffer(b))    this.programs.forEach(p => this.gl.deleteProgram(p))    this.textureMemory = 0  }}

// utils/resourceManager.tsexport class WebGLResourceManager {  private textures: Set<WebGLTexture> = new Set()  private buffers: Set<WebGLBuffer> = new Set()  private programs: Set<WebGLProgram> = new Set()
  private textureMemory = 0  private readonly MAX_TEXTURE_MEMORY = 256 * 1024 * 1024  // 256MB
  constructor(private gl: WebGL2RenderingContext) {}
  createTexture(width: number, height: number): WebGLTexture | null {    const size = width * height * 4  // RGBA
    // ✅ Enforce memory limits    if (this.textureMemory + size > this.MAX_TEXTURE_MEMORY) {      console.error('Texture memory limit exceeded')      return null    }
    const texture = this.gl.createTexture()    if (texture) {      this.textures.add(texture)      this.textureMemory += size    }    return texture  }
  dispose(): void {    this.textures.forEach(t => this.gl.deleteTexture(t))    this.buffers.forEach(b => this.gl.deleteBuffer(b))    this.programs.forEach(p => this.gl.deleteProgram(p))    this.textureMemory = 0  }}

4.5 Uniform Validation

typescript

// ✅ Type-safe uniform settingexport function setUniforms(  gl: WebGL2RenderingContext,  program: WebGLProgram,  uniforms: Record<string, number | number[] | Float32Array>): void {  for (const [name, value] of Object.entries(uniforms)) {    const location = gl.getUniformLocation(program, name)    if (!location) {      console.warn(`Uniform '${name}' not found`)      continue    }
    if (typeof value === 'number') {      gl.uniform1f(location, value)    } else if (Array.isArray(value)) {      switch (value.length) {        case 2: gl.uniform2fv(location, value); break        case 3: gl.uniform3fv(location, value); break        case 4: gl.uniform4fv(location, value); break        case 16: gl.uniformMatrix4fv(location, false, value); break      }    }  }}

// ✅ Type-safe uniform settingexport function setUniforms(  gl: WebGL2RenderingContext,  program: WebGLProgram,  uniforms: Record<string, number | number[] | Float32Array>): void {  for (const [name, value] of Object.entries(uniforms)) {    const location = gl.getUniformLocation(program, name)    if (!location) {      console.warn(`Uniform '${name}' not found`)      continue    }
    if (typeof value === 'number') {      gl.uniform1f(location, value)    } else if (Array.isArray(value)) {      switch (value.length) {        case 2: gl.uniform2fv(location, value); break        case 3: gl.uniform3fv(location, value); break        case 4: gl.uniform4fv(location, value); break        case 16: gl.uniformMatrix4fv(location, false, value); break      }    }  }}

5. Implementation Workflow (TDD)

5.1 Step-by-Step Process

Write failing test -> 2. Implement minimum -> 3. Refactor -> 4. Verify

typescript

// Step 1: tests/webgl/shaderCompilation.test.tsimport { describe, it, expect, beforeEach } from 'vitest'import { compileShader } from '@/utils/shaderUtils'
describe('WebGL Shader Compilation', () => {  let gl: WebGL2RenderingContext
  beforeEach(() => {    gl = document.createElement('canvas').getContext('webgl2')!  })
  it('should compile valid shader', () => {    const source = `#version 300 es      in vec4 aPosition;      void main() { gl_Position = aPosition; }`    expect(compileShader(gl, source, gl.VERTEX_SHADER)).not.toBeNull()  })
  it('should return null for invalid shader', () => {    expect(compileShader(gl, 'invalid', gl.FRAGMENT_SHADER)).toBeNull()  })})
// Step 2-3: Implement and refactor (see section 4.1)// Step 4: npm test && npm run typecheck && npm run build

// Step 1: tests/webgl/shaderCompilation.test.tsimport { describe, it, expect, beforeEach } from 'vitest'import { compileShader } from '@/utils/shaderUtils'
describe('WebGL Shader Compilation', () => {  let gl: WebGL2RenderingContext
  beforeEach(() => {    gl = document.createElement('canvas').getContext('webgl2')!  })
  it('should compile valid shader', () => {    const source = `#version 300 es      in vec4 aPosition;      void main() { gl_Position = aPosition; }`    expect(compileShader(gl, source, gl.VERTEX_SHADER)).not.toBeNull()  })
  it('should return null for invalid shader', () => {    expect(compileShader(gl, 'invalid', gl.FRAGMENT_SHADER)).toBeNull()  })})
// Step 2-3: Implement and refactor (see section 4.1)// Step 4: npm test && npm run typecheck && npm run build

5.2 Testing Context and Resources

typescript

describe('WebGL Context', () => {  it('should handle context loss', async () => {    const { gl, contextLost } = useWebGL(ref(canvas))    gl.value?.getExtension('WEBGL_lose_context')?.loseContext()    await nextTick()    expect(contextLost.value).toBe(true)  })})
describe('Resource Manager', () => {  it('should enforce memory limits', () => {    const manager = new WebGLResourceManager(gl)    expect(manager.createTexture(1024, 1024)).not.toBeNull()    expect(manager.createTexture(16384, 16384)).toBeNull() // Exceeds limit  })})

describe('WebGL Context', () => {  it('should handle context loss', async () => {    const { gl, contextLost } = useWebGL(ref(canvas))    gl.value?.getExtension('WEBGL_lose_context')?.loseContext()    await nextTick()    expect(contextLost.value).toBe(true)  })})
describe('Resource Manager', () => {  it('should enforce memory limits', () => {    const manager = new WebGLResourceManager(gl)    expect(manager.createTexture(1024, 1024)).not.toBeNull()    expect(manager.createTexture(16384, 16384)).toBeNull() // Exceeds limit  })})

6. Performance Patterns

6.1 Buffer Reuse

typescript

// Bad - Creates new buffer every frameconst buffer = gl.createBuffer()gl.bufferData(gl.ARRAY_BUFFER, data, gl.DYNAMIC_DRAW)gl.deleteBuffer(buffer)
// Good - Reuse buffer, update only datagl.bufferSubData(gl.ARRAY_BUFFER, 0, data)  // Update existing buffer

// Bad - Creates new buffer every frameconst buffer = gl.createBuffer()gl.bufferData(gl.ARRAY_BUFFER, data, gl.DYNAMIC_DRAW)gl.deleteBuffer(buffer)
// Good - Reuse buffer, update only datagl.bufferSubData(gl.ARRAY_BUFFER, 0, data)  // Update existing buffer

6.2 Draw Call Batching

typescript

// Bad - One draw call per objectobjects.forEach(obj => {  gl.useProgram(obj.program)  gl.drawElements(...)})
// Good - Batch by material/shaderconst batches = groupByMaterial(objects)batches.forEach(batch => {  gl.useProgram(batch.program)  batch.objects.forEach(obj => gl.drawElements(...))})

// Bad - One draw call per objectobjects.forEach(obj => {  gl.useProgram(obj.program)  gl.drawElements(...)})
// Good - Batch by material/shaderconst batches = groupByMaterial(objects)batches.forEach(batch => {  gl.useProgram(batch.program)  batch.objects.forEach(obj => gl.drawElements(...))})

6.3 Texture Compression

typescript

// Bad - Always uncompressed RGBAgl.texImage2D(gl.TEXTURE_2D, 0, gl.RGBA, gl.RGBA, gl.UNSIGNED_BYTE, image)
// Good - Use compressed formats when availableconst ext = gl.getExtension('WEBGL_compressed_texture_s3tc')if (ext) gl.compressedTexImage2D(gl.TEXTURE_2D, 0, ext.COMPRESSED_RGBA_S3TC_DXT5_EXT, ...)

// Bad - Always uncompressed RGBAgl.texImage2D(gl.TEXTURE_2D, 0, gl.RGBA, gl.RGBA, gl.UNSIGNED_BYTE, image)
// Good - Use compressed formats when availableconst ext = gl.getExtension('WEBGL_compressed_texture_s3tc')if (ext) gl.compressedTexImage2D(gl.TEXTURE_2D, 0, ext.COMPRESSED_RGBA_S3TC_DXT5_EXT, ...)

6.4 Instanced Rendering

typescript

// Bad - Individual draw calls for particlesparticles.forEach(p => {  gl.uniform3fv(uPosition, p.position)  gl.drawArrays(gl.TRIANGLES, 0, 6)})
// Good - Single instanced draw callgl.drawArraysInstanced(gl.TRIANGLES, 0, 6, particles.length)

// Bad - Individual draw calls for particlesparticles.forEach(p => {  gl.uniform3fv(uPosition, p.position)  gl.drawArrays(gl.TRIANGLES, 0, 6)})
// Good - Single instanced draw callgl.drawArraysInstanced(gl.TRIANGLES, 0, 6, particles.length)

6.5 VAO Usage

typescript

// Bad - Rebind attributes every framegl.enableVertexAttribArray(0)gl.vertexAttribPointer(0, 3, gl.FLOAT, false, 0, 0)
// Good - Use VAO to store attribute stateconst vao = gl.createVertexArray()gl.bindVertexArray(vao)// Set up once, then just bind VAO for rendering

// Bad - Rebind attributes every framegl.enableVertexAttribArray(0)gl.vertexAttribPointer(0, 3, gl.FLOAT, false, 0, 0)
// Good - Use VAO to store attribute stateconst vao = gl.createVertexArray()gl.bindVertexArray(vao)// Set up once, then just bind VAO for rendering

7. Security Standards

7.1 Known Vulnerabilities

7.2 OWASP Top 10 Coverage

7.3 GPU Resource Protection

typescript

// ✅ Implement resource limitsconst LIMITS = {  maxDrawCalls: 100,  maxTriangles: 1_000_000,  maxTextures: 32,  maxTextureSize: 4096}
function checkLimits(stats: RenderStats): boolean {  if (stats.drawCalls > LIMITS.maxDrawCalls) {    console.error('Draw call limit exceeded')    return false  }  if (stats.triangles > LIMITS.maxTriangles) {    console.error('Triangle limit exceeded')    return false  }  return true}

// ✅ Implement resource limitsconst LIMITS = {  maxDrawCalls: 100,  maxTriangles: 1_000_000,  maxTextures: 32,  maxTextureSize: 4096}
function checkLimits(stats: RenderStats): boolean {  if (stats.drawCalls > LIMITS.maxDrawCalls) {    console.error('Draw call limit exceeded')    return false  }  if (stats.triangles > LIMITS.maxTriangles) {    console.error('Triangle limit exceeded')    return false  }  return true}

8. Common Mistakes & Anti-Patterns

8.1 Critical Security Anti-Patterns

Never: Skip Context Loss Handling

typescript

// ❌ DANGEROUS - App crashes on context lossconst gl = canvas.getContext('webgl2')// No context loss handler!
// ✅ SECURE - Handle gracefullycanvas.addEventListener('webglcontextlost', handleLoss)canvas.addEventListener('webglcontextrestored', handleRestore)

// ❌ DANGEROUS - App crashes on context lossconst gl = canvas.getContext('webgl2')// No context loss handler!
// ✅ SECURE - Handle gracefullycanvas.addEventListener('webglcontextlost', handleLoss)canvas.addEventListener('webglcontextrestored', handleRestore)

Never: Unlimited Resource Allocation

typescript

// ❌ DANGEROUS - GPU memory exhaustionfor (let i = 0; i < userCount; i++) {  textures.push(gl.createTexture())}
// ✅ SECURE - Enforce limitsif (textureCount < MAX_TEXTURES) {  textures.push(gl.createTexture())}

// ❌ DANGEROUS - GPU memory exhaustionfor (let i = 0; i < userCount; i++) {  textures.push(gl.createTexture())}
// ✅ SECURE - Enforce limitsif (textureCount < MAX_TEXTURES) {  textures.push(gl.createTexture())}

8.2 Performance Anti-Patterns

Avoid: Excessive State Changes

typescript

// ❌ BAD - Unbatched draw callsobjects.forEach(obj => {  gl.useProgram(obj.program)  gl.bindTexture(gl.TEXTURE_2D, obj.texture)  gl.drawElements(...)})
// ✅ GOOD - Batch by materialbatches.forEach(batch => {  gl.useProgram(batch.program)  gl.bindTexture(gl.TEXTURE_2D, batch.texture)  batch.objects.forEach(obj => gl.drawElements(...))})

// ❌ BAD - Unbatched draw callsobjects.forEach(obj => {  gl.useProgram(obj.program)  gl.bindTexture(gl.TEXTURE_2D, obj.texture)  gl.drawElements(...)})
// ✅ GOOD - Batch by materialbatches.forEach(batch => {  gl.useProgram(batch.program)  gl.bindTexture(gl.TEXTURE_2D, batch.texture)  batch.objects.forEach(obj => gl.drawElements(...))})

9. Pre-Implementation Checklist

Phase 1: Before Writing Code

Write failing tests for shaders, context, and resources
Define performance budgets (draw calls <100, memory <256MB)
Identify required WebGL extensions

Phase 2: During Implementation

Context loss handling with recovery
Resource limits and memory tracking
Shader validation before compilation
Use VAOs, batch draws, reuse buffers
Instanced rendering for particles

Phase 3: Before Committing

Tests pass: npm test -- --run tests/webgl/
Type check: npm run typecheck
Build: npm run build
Performance verified (draws, memory)
Fallback for no WebGL tested

10. Summary

WebGL provides GPU-accelerated graphics for JARVIS HUD. Key principles: handle context loss, enforce resource limits, validate shaders, track memory, batch draw calls, minimize state changes.

Remember: WebGL bypasses browser sandboxing - always protect against resource exhaustion. References: references/advanced-patterns.md, references/security-examples.md

Source and attribution

Source:martinholovsky/claude-skills-generatorinskills/webglat commit1086ef2

License: No license

Content belongs to its original authors. SourceWeft indexes it from a public repository.

Report or request removal

Browser	WebGL 2.0	Notes
Chrome	56+	Full support
Firefox	51+	Full support
Safari	15+	WebGL 2.0 support
Edge	79+	Chromium-based

CVE	Severity	Description	Mitigation
CVE-2024-11691	HIGH	Apple M series memory corruption	Update browser, OS patches
CVE-2023-1531	HIGH	Chrome use-after-free	Update Chrome

OWASP Category	Risk	Mitigation
A06 Vulnerable Components	HIGH	Keep browsers updated
A10 SSRF	LOW	Context isolation by browser

Webgl

WebGL Development Skill

1. Overview

2. Core Responsibilities

2.1 Fundamental Principles

3. Technology Stack & Versions

3.1 Browser Support

3.2 Security Considerations

4. Implementation Patterns

4.1 Safe Shader Compilation

4.2 Context Loss Handling

4.3 Holographic Shader

4.4 Resource Management

4.5 Uniform Validation

5. Implementation Workflow (TDD)

5.1 Step-by-Step Process

5.2 Testing Context and Resources

6. Performance Patterns

6.1 Buffer Reuse

6.2 Draw Call Batching

6.3 Texture Compression

6.4 Instanced Rendering

6.5 VAO Usage

7. Security Standards

7.1 Known Vulnerabilities

7.2 OWASP Top 10 Coverage

7.3 GPU Resource Protection

8. Common Mistakes & Anti-Patterns

8.1 Critical Security Anti-Patterns

Never: Skip Context Loss Handling

Never: Unlimited Resource Allocation

8.2 Performance Anti-Patterns

Avoid: Excessive State Changes

9. Pre-Implementation Checklist

Phase 1: Before Writing Code

Phase 2: During Implementation

Phase 3: Before Committing

10. Summary

Source and attribution

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