π§ Currently in Phase 1: Enhanced Foundation
Building the extensible CLI and AI-powered infrastructure for multi-language, multi-model code generation.
TODO: Add early psuedo-code review step with optional human-in-the-loop refinement
SyntaxLab is a next-generation AI-powered platform for generating, reviewing, and improving software code through natural language prompts. It integrates multiple LLMs, deep semantic analysis, mutation testing, and pattern learning to drive software quality, scalability, and productivity across organizations.
Build a robust foundation to support future intelligent capabilities.
- Plugin-driven CLI with multi-model, multi-language support
- Advanced context analysis: git history, ASTs, semantic RAG
-
90% generation success, 5+ launch languages
Transform into an intelligent development assistant.
- Dual AI test-first mode with mutation score validation
- Pattern library and multi-file orchestration
- AST-based semantic refactoring and migrations
Validate AI-generated code through industry-grade techniques.
- Mutation testing (MuTAP) with 93.57% bug detection
- Real-time vulnerability scanning and hallucination detection
- Multi-layer validation pipeline
Enable self-learning and feedback-driven evolution.
- Interactive improvement engine
- Pattern extraction, prompt optimization
- Centralized knowledge base with confidence metrics
Introduce intelligent, evolving mutation systems.
- Meta-strategy combinators, compositional mutations
- Self-referential evolution in sandboxed runners
- Quality-diversity archive using MAP-Elites
Support large-scale teams, security, and operations.
- Role-based dashboards, CI/CD gates, VSCode extension
- Tiered deployment from single binary to Kubernetes
- Pattern marketplace, audit logs, SSO/RBAC/MFA
Enterprise customization, orchestration, semantic optimization.
- Multi-model router (Claude, GPT, Gemini, Groq)
- Federated learning, predictive quality metrics
- RAG-powered enterprise context and compliance automation
π SyntaxLab Workflow Diagrams
This document contains modular Mermaid diagrams for different layers of the SyntaxLab platform. These are designed for composability and clarity β useful for onboarding, slide decks, CI/CD docs, and compliance reports.
βΈ»
flowchart TD
%% === INPUT & GENERATION ===
subgraph "π§ Prompt + Model Orchestration"
A["π Developer Prompt"] --> B["π§ Model Router (Claude, GPT-4, OSS)"]
B --> C["βοΈ Code Generation per Model"]
C --> D["π Aggregate Candidate Pool"]
end
%% === VALIDATION LAYER ===
subgraph "π Validation Layer"
D --> V1["π Static Analysis (AST, Typecheck, Lint)"]
D --> V2["β οΈ Hallucination Detection"]
D --> V3["π Compliance Enforcement"]
%% Hallucination Breakdown
V2 --> V2a["π Unknown Symbol Check"]
V2 --> V2b["π SDK/API Graph Lookup"]
V2 --> V2c["π§ Self-Critique (LLM Edit Pass)"]
%% Compliance Breakdown
V3 --> V3a["π Redact Logs (GDPR Art. 5)"]
V3 --> V3b["ποΈ Anonymize on Deletion (GDPR Art. 17)"]
V3 --> V3c["π Audit Trail (HIPAA Β§164.312)"]
V3 --> V3d["π Encrypt PHI at Rest/In Transit"]
end
%% === MUTATION TESTING ===
subgraph "π§ͺ Mutation Testing"
V1 --> M1["𧬠Inject Mutants"]
M1 --> M2["π§ͺ Execute Test Suite"]
M2 --> M3{"Mutation Score β₯ Threshold?"}
M3 -- No --> M4["π οΈ Refine Test Cases"] --> C
M3 -- Yes --> S1["π Score Each Candidate U(x)"]
end
%% === SELECTION ===
subgraph "π Scoring & Selection"
S1 --> S2{"Is Pareto Optimal?"}
S2 -- No --> R1["π Refine Prompt/Config"] --> A
S2 -- Yes --> F1["β
Final Validated Output"]
end
%% === DELIVERY ===
subgraph "π¦ Output & Integration"
F1 --> X1["πΎ Cache for Retrieval"]
F1 --> X2["π Send to IDE / CI / GitHub"]
end
π§ Overview Graph (High-Level Flow)
flowchart TD
A["π Developer Prompt"] --> B["π§ Model Orchestration"]
B --> C["βοΈ Code Generation"]
C --> D["π Validation Layer"]
D --> E["π§ͺ Mutation Testing"]
E --> F["π Scoring + Pareto Selection"]
F --> G["β
Validated Solution"]
G --> H["πΎ Cache"]
G --> I["π Deliver to CI / IDE"]
F --> J["π Prompt Refinement"] --> A
βΈ»
π§ LLM Generation Layer
flowchart TD
A["π Developer Prompt"] --> B["π§ Model Orchestration"]
B --> C1["Claude"]
B --> C2["GPT-4"]
B --> C3["OSS Model"]
C1 --> D["βοΈ Generated Code"]
C2 --> D
C3 --> D
D --> E["π Aggregate Candidate Pool"]
βΈ»
π Validation Layer (Static + Semantic Checks)
flowchart TD
A["π Aggregate Candidate Pool"] --> B["π Static Validation"]
A --> C["β οΈ Hallucination Detection"]
A --> D["π Compliance Scan"]
%% Hallucination Details
C --> C1["π Unknown API Check"]
C --> C2["π§ LLM Self-Critique"]
C --> C3["π Symbol Graph Lookup"]
C --> C4["π Confidence Score"]
%% Compliance Rules
D --> D1["π Redact Logs"]
D --> D2["ποΈ Enforce Anonymization"]
D --> D3["π Log PHI Access"]
D --> D4["π Encrypt PHI"]
βΈ»
π§ͺ Mutation Testing Layer
flowchart TD
A["π Static Validation"] --> B["𧬠Inject Mutants"]
B --> C["π§ͺ Execute Tests"]
C --> D{"Mutation Score β₯ Threshold?"}
D -- No --> E["π οΈ Refine Tests"] --> B
D -- Yes --> F["π Score U(x)"]
βΈ»
π Scoring + Decision Layer
flowchart TD
A["π Score Candidates"] --> B{"Pareto Optimal?"}
B -- Yes --> C["β
Final Validated"]
B -- No --> D["π Refine Prompt / Config"] --> E["π Developer Prompt"]
βΈ»
π¦ Output Layer
flowchart TD
A["β
Final Validated"] --> B["πΎ Store in Cache"]
A --> C["π Deliver to IDE / CI"]
g Let me know if you want an animated graph switcher, color themes, or PDF export.
| Category | Stack |
|---|---|
| Programming | TypeScript, Rust, Python |
| CLI Tooling | Node.js, Commander.js, Ink, ESBuild |
| AI Models | Claude, GPT-4, CodeLlama, DeepSeek-Coder, StarCoder |
| Code Analysis | Tree-sitter, Git, LSP |
| Retrieval System | RAG: Dense (Faiss) + Sparse (BM25) + Chunk scoring |
- PromptBreeder β Fernando et al. (2023): Prompt evolution for LLM performance
- DSPy β Khattab et al. (2024): Declarative optimization of LLM pipelines
- EvoPrompt β Guo et al. (2023): Evolutionary algorithms with LLMs
- OpenAI LogProbs β logit-based confidence scoring
- Claude Code Docs β model capabilities and architecture notes
- MuTAP β Meta AI (2024): Mutation testing on AI-generated code
- Mutation Testing Research β Wang et al. (2024): Fault detection improvements from LLMs
- LLM Guard β Prompt injection detection at 99.27% accuracy
- Incremental Validation Systems β Microsoft, GitHub, XenonStack
- Google Research β Context sufficiency scoring in retrieval systems
- AWS RAG Playbook β Dense/sparse hybrid architecture patterns
- Semantic Chunking β OpenAI, Anthropic best practices for code embeddings
- Active Learning for LLMs β NVIDIA/Anyscale batching performance gains
- Continuous Batching β 23x throughput gains with intelligent scheduling
- Knowledge Federation β Flower (federated learning), DP frameworks
- Quality-Diversity Algorithms β MAP-Elites, QDax (Lim et al., 2022)
- Model Context Protocol (MCP) β Anthropic (2024): 25% LLM accuracy lift
- GitHub Copilot ROI β Cost-benefit benchmarks
- Terraform Best Practices β Scalable infrastructure as code
- SOC2 / ISO27001 Controls β Enterprise compliance frameworks
- CodeQL β Semantic security and behavior detection
- Semgrep β Linting and refactoring at semantic level
- Business Logic Extraction β Domain concept mapping from code
SyntaxLab is actively under development and pre-release. APIs, models, and CLI interfaces may change until v1.0. Use in isolated environments.
Coming soon:
- CLI SDK
- Usage guide
- Contribution guidelines
For early access, partnerships, or team onboarding:
π§ team@syntaxlab.ai
SyntaxLabβs architecture is grounded in academic and industry research across prompting, mutation testing, retrieval, compliance, and enterprise infrastructure.
- Prompt evolution techniques improve code quality via strategy mutation and fallback chains123.
- Confidence scoring adapted from OpenAI
logprobsand Claudeβs response ranking45.
- MuTAP mutation testing detects 90%+ faults in LLM code67.
- Prompt injection detection using ONNX achieves 99.27% accuracy8.
- Incremental validation pipelines inspired by GitHub and DevSecOps best practices910.
- Context sufficiency modeling for scalable hybrid RAG1112.
- Semantic chunking and dense/sparse fusion via NVIDIA benchmarks13.
- Active learning batching improves throughput 23x over naive prompts1415.
- Genetic prompt optimization evolves DSLs and templates1316.
- Federated learning with differential privacy enables cross-team sharing1718.
- Model Context Protocol (MCP) boosts accuracy by 25% and throughput by 30%19.
- CI/CD enhancements powered by dynamic quality gates and test prioritization2021.
- Security and compliance enforced with role-based controls and audit trails2223.
- CodeQL and Semgrep for deep pattern matching and security analysis2425.
- Business logic extraction for domain-aligned recommendations26.
MIT License unless otherwise contracted for enterprise deployment.