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AI-powered CTO with multi-agent orchestration, code summarization, visual testing (web + mobile) for blazing fast development.

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# Code Summarization Research Prompt **Date:** 2025-11-15 **Goal:** Research best practices for code summarization to reduce token usage while maintaining semantic meaning --- ## Research Questions ### 1. Code Summarization Techniques **What are the state-of-the-art techniques for summarizing code?** Research: - Academic papers on code summarization - Industry approaches (GitHub Copilot, Cursor, etc.) - LLM-based vs rule-based approaches - AST-based extraction vs full-text analysis **Key questions:** - What information should be extracted from code? - How to maintain semantic meaning in summaries? - What's the optimal summary length? (tokens vs information density) - How to handle different code types (utilities, components, APIs, etc.)? --- ### 2. AST Extraction for Summarization **What should we extract from the AST?** Research: - TypeScript AST structure (ts-morph, @typescript-eslint/parser) - Key elements to extract: - Functions (name, parameters, return type, JSDoc) - Classes (name, methods, properties, inheritance) - Exports (what's public API) - Imports (dependencies) - Type definitions (interfaces, types) - Comments (JSDoc, inline comments) **Key questions:** - What's the minimal set of information needed? - How to handle large files (>1000 lines)? - How to prioritize information (public API > private helpers)? - How to extract semantic relationships (calls, dependencies)? --- ### 3. LLM Prompts for Code Summarization **What prompts work best for code summarization?** Research: - Prompt engineering for code understanding - Few-shot vs zero-shot approaches - Chain-of-thought for complex code - Structured output formats (JSON, markdown) **Example prompts to test:** ``` Prompt 1 (Brief): "Summarize this code in 2-3 sentences. Focus on what it does, not how." Prompt 2 (Structured): "Analyze this code and provide: 1. Purpose (1 sentence) 2. Key functions/classes (list) 3. Dependencies (list) 4. Public API (list exports)" Prompt 3 (Technical): "Extract the technical summary: - Main responsibility - Input/output contracts - Side effects - Key algorithms/patterns used" ``` **Key questions:** - Which format produces the most useful summaries? - How to balance brevity vs completeness? - How to ensure consistency across different code types? - How to validate summary quality? --- ### 4. Token Efficiency **How much token savings can we achieve?** Research: - Benchmarks: original code tokens vs summary tokens - Target compression ratios (2x? 5x? 10x?) - Trade-offs: compression vs information loss - When to summarize vs when to include full code **Key questions:** - What's the optimal compression ratio? - At what file size does summarization become worth it? (>500 lines? >1000 lines?) - How to measure information retention? - How to handle edge cases (generated code, minified code, etc.)? --- ### 5. Validation & Quality **How to ensure summaries maintain semantic meaning?** Research: - Semantic similarity metrics (cosine similarity, BLEU, ROUGE) - LLM-based validation (can model answer questions from summary?) - Human evaluation criteria - Automated testing approaches **Key questions:** - How to measure summary quality? - What's acceptable information loss? (90% retention? 95%?) - How to detect bad summaries automatically? - How to improve summaries iteratively? --- ### 6. Existing Solutions **What tools/libraries already exist?** Research: - GitHub Copilot's approach - Cursor's context compression - CodeBERT, GraphCodeBERT (code understanding models) - Tree-sitter (universal AST parser) - ts-morph (TypeScript AST manipulation) **Key questions:** - Can we use existing libraries? - What can we learn from commercial tools? - Are there open-source implementations? - What are the licensing considerations? --- ### 7. Implementation Strategy **How should we implement this in Arela?** Research: - Architecture: where does summarization fit in the pipeline? - Caching: should we cache summaries? - Incremental updates: how to handle file changes? - Multi-language support: TypeScript, JavaScript, Python, Go? **Key questions:** - Should summarization be on-demand or pre-computed? - How to invalidate cached summaries? - How to handle different programming languages? - What's the performance target? (<3s per file?) --- ## Success Criteria A successful research outcome should provide: 1. **Clear technique** - Specific approach to code summarization 2. **Concrete prompts** - Tested prompts that produce good summaries 3. **Token benchmarks** - Expected compression ratios with examples 4. **Quality metrics** - How to measure summary quality 5. **Implementation plan** - Step-by-step guide to build it --- ## Deliverables After research, create: 1. **Research report** - `RESEARCH/Code Summarization for Arela.md` 2. **Prompt library** - Collection of tested prompts 3. **Benchmarks** - Token savings on real code samples 4. **Implementation spec** - Technical design for `src/summarization/` --- ## Example Test Cases Test summarization on these real files from Arela: 1. **Small utility** - `src/utils/update-checker.ts` (~140 lines) 2. **Medium component** - `src/meta-rag/classifier.ts` (~200 lines) 3. **Large module** - `src/memory/hexi-memory.ts` (~300 lines) 4. **Complex integration** - `src/context-router.ts` (~164 lines) For each: - Original token count - Summary token count - Compression ratio - Information retention (can you answer questions from summary?) --- ## Research Sources **Academic:** - "A Survey of Automatic Source Code Summarization" (2020) - "Deep Learning for Source Code Modeling and Generation" (2021) - "CodeBERT: A Pre-Trained Model for Programming and Natural Languages" (2020) **Industry:** - GitHub Copilot documentation - Cursor AI blog posts - OpenAI Codex papers - Anthropic Claude code understanding **Tools:** - ts-morph (TypeScript AST) - tree-sitter (universal parser) - @typescript-eslint/parser - babel (JavaScript AST) --- ## Timeline **Research phase:** 2-3 hours **Report writing:** 1 hour **Prompt testing:** 1 hour **Total:** 4-5 hours --- ## Next Steps After Research 1. Review research report 2. Select best approach 3. Create implementation ticket 4. Build prototype 5. Test on real code 6. Integrate into Meta-RAG pipeline --- **Ready to research!** 🔍