EcoGuard AI is a transformative, AI-augmented software development pipeline solution designed to proactively champion excellence across the entire software lifecycle. It serves as a unified intelligence layer, meticulously analyzing both human-written and AI-generated code for quality, security, and environmental sustainability.
To embed comprehensive oversight directly into developer workflows and CI/CD processes, making best practices intuitive and sustainable outcomes measurable while addressing inefficiencies unique to AI-generated code.
- π§ Modularization: Build distinct, pluggable analysis modules
- π‘ Actionable Feedback: Provide clear, context-sensitive suggestions with quantified impact
- π€ AI-Specificity: Target inefficiencies and risks unique to AI/ML code and AI-driven development
- π± Carbon-Aware: Explicitly link software choices to environmental impact across the stack
- π Open-Source First: Foster community contribution and transparency
- βοΈ Hybrid Deployment: Support local execution, centralized server reporting (Cloud/On-Prem/Air-Gapped)
- π¨βπ» Developer-Centric: Prioritize seamless integration into developer workflows
- π Holistic Scope: Cover application code, infrastructure, and containers
- Static Analysis: AST-based analysis for comprehensive code evaluation
- Green Software (Eco-Linter): Detection of inefficient patterns with carbon impact estimation
- AI-Code Specifics: Identification of AI-generated code anti-patterns and inefficiencies
- Security (SAST): Vulnerability detection and secure coding practice enforcement
- Dependency Analysis: Third-party library vulnerability scanning
- Carbon Quantification: Static estimation and runtime measurement of code's carbon footprint
- Cloud Resource Optimization: Integration with cloud provider sustainability APIs
- Infrastructure as Code Analysis: Scanning for cost, security, and carbon optimization
- Container Image Analysis: Optimizing container images for efficiency and security
- MCP Feedback Loop: Structured findings sent to AI orchestration platforms
- AI-Assisted Refactoring: Complex code improvement suggestions
- Automated Fixes: Automatic corrections for common issues
- Predictive Analysis: Proactive guidance for AI code generation
Stage 1: Project Setup & Architecture Design β
- Create GitHub repository structure
- Define project architecture and module interfaces
- Set up initial documentation framework
- Establish coding standards and contribution guidelines
Stage 2: Core Dependencies & Environment Setup
- Set up Python development environment with pyproject.toml
- Configure development tools (black, flake8, mypy, pytest)
- Create basic CLI entry point structure
- Set up GitHub Actions for CI/CD
Stage 3: AST Analysis Research & Prototyping
- Deep dive into Python AST module capabilities
- Create proof-of-concept AST parser for basic Python constructs
- Research Tree-sitter and ANTLR for multi-language support
- Document AST traversal patterns and node identification strategies
Stage 4: Green Software Principles Research
- Analyze existing green software tools (ec0lint, Creedengo)
- Research CodeCarbon and CarbonTracker integration possibilities
- Identify top 10 Python anti-patterns for energy efficiency
- Create carbon impact estimation methodology
Stage 5: AI Code Pattern Analysis
- Research common AI-generated code inefficiencies
- Analyze LLM output patterns from popular AI coding assistants
- Document "hallucinated" code patterns and redundancies
- Create taxonomy of AI-specific code smells
Stage 6: Security Analysis Framework Research
- Study Bandit and Pysa implementation approaches
- Research OWASP Top 10 mapping to static analysis rules
- Investigate data flow analysis techniques
- Document security rule prioritization methodology
Stage 7: Runtime Profiling Integration Research
- Explore cProfile, memory_profiler, and timeit integration
- Research lightweight profiling techniques for CI/CD
- Investigate correlation methods between static and runtime analysis
- Design profiling data collection framework
Stage 8: MCP Integration Architecture
- Research Model Control Plane APIs and protocols
- Design feedback loop architecture for AI platforms
- Create communication protocol specifications
- Document integration patterns for popular AI orchestration tools
Stage 9: Server Architecture Design
- Design scalable server architecture (FastAPI + PostgreSQL)
- Plan database schema for scan results and historical data
- Design API endpoints and authentication mechanisms
- Create deployment strategies for Cloud/On-Prem/Air-Gapped
Stage 10: IDE Integration Strategy
- Research VS Code extension development
- Investigate JetBrains plugin architecture
- Design Language Server Protocol implementation
- Plan real-time analysis integration approach
Stage 11: Basic AST Engine Implementation
- Implement core AST parsing and traversal engine
- Create visitor pattern framework for rule execution
- Develop standardized Issue reporting class
- Add basic error handling and logging
Stage 12: Rule Engine Framework
- Design pluggable rule architecture
- Implement rule registration and discovery system
- Create rule configuration and severity management
- Add rule execution pipeline with performance monitoring
Stage 13: First Code Quality Rules
- Implement unused variable detection
- Add cyclomatic complexity analysis
- Create function length and parameter count rules
- Add basic naming convention checks
Stage 14: Initial Green Software Rules
- Implement inefficient string concatenation detection
- Add list comprehension optimization suggestions
- Create generator vs list usage recommendations
- Add basic loop optimization rules
Stage 15: First AI-Specific Rules
- Implement redundant import detection
- Add verbose code pattern identification
- Create duplicate function detection within classes
- Add AI-generated boilerplate identification
Stage 16: CLI Interface Development
- Create comprehensive command-line interface
- Add file and directory scanning capabilities
- Implement output formatting options (JSON, text, XML)
- Add configuration file support
Stage 17: JSON Report Structure
- Design comprehensive JSON report schema
- Implement structured output with metadata
- Add severity levels and impact metrics
- Create report validation and schema documentation
Stage 18: Basic Testing Framework
- Set up pytest testing infrastructure
- Create test files with known issues for validation
- Implement rule-specific unit tests
- Add integration tests for CLI functionality
Stage 19: Configuration Management
- Implement YAML/JSON configuration file support
- Add rule enabling/disabling mechanisms
- Create severity threshold configuration
- Add custom rule parameter support
Stage 20: Performance Optimization
- Profile AST parsing and rule execution performance
- Implement caching mechanisms for repeated scans
- Add parallel processing for multiple files
- Optimize memory usage for large codebases
Stage 21: Security Rule Framework
- Implement security-focused AST analysis patterns
- Create vulnerability severity classification system
- Add CWE (Common Weakness Enumeration) mapping
- Implement basic data flow analysis
Stage 22: Core Security Rules
- Add SQL injection vulnerability detection
- Implement hardcoded secrets detection
- Create insecure file handling rules
- Add dangerous function usage detection (exec, eval)
Stage 23: Dependency Vulnerability Scanner
- Integrate with OSV.dev vulnerability database
- Implement requirements.txt and pyproject.toml parsing
- Add CVE severity mapping and reporting
- Create dependency update recommendations
Stage 24: Enhanced Green Software Rules
- Add memory-efficient data structure recommendations
- Implement file I/O optimization suggestions
- Create database query efficiency rules
- Add cloud resource usage optimization patterns
Stage 25: Advanced AI Code Analysis
- Implement tensor operation efficiency analysis (PyTorch/TensorFlow)
- Add model loading optimization detection
- Create data pipeline efficiency rules
- Add GPU utilization pattern analysis
Stage 26: Secrets Detection Enhancement
- Implement entropy-based secret detection
- Add API key pattern recognition
- Create credential scanning with context awareness
- Add false positive reduction mechanisms
Stage 27: Code Complexity Analysis
- Implement advanced complexity metrics (Halstead, maintainability index)
- Add cognitive complexity analysis
- Create technical debt estimation
- Add refactoring priority suggestions
Stage 28: Pre-commit Hook Integration
- Create pre-commit framework integration
- Implement selective scanning for changed files
- Add commit blocking based on severity thresholds
- Create developer-friendly error messages
Stage 29: Git Integration
- Implement Git blame integration for issue attribution
- Add commit history analysis for recurring patterns
- Create branch-specific configuration support
- Add pull request comment automation
Stage 30: Error Handling & Resilience
- Implement comprehensive error handling and recovery
- Add graceful degradation for partial scan failures
- Create detailed logging and debugging capabilities
- Add scan result integrity validation
Stage 31: Runtime Profiling Integration
- Implement cProfile integration for CPU analysis
- Add memory_profiler for memory usage tracking
- Create execution time measurement framework
- Add resource consumption correlation with static analysis
Stage 32: Carbon Footprint Measurement
- Integrate CodeCarbon for runtime emissions tracking
- Implement static-to-runtime carbon impact correlation
- Add cloud provider carbon intensity data integration
- Create carbon savings estimation algorithms
Stage 33: Server Foundation
- Implement FastAPI server with PostgreSQL backend
- Create database schema for scan results and metadata
- Add authentication and authorization framework
- Implement basic API endpoints for data ingestion
Stage 34: Results Storage & Retrieval
- Implement scan result storage with indexing
- Add historical data management and archiving
- Create efficient querying mechanisms
- Add data migration and backup strategies
Stage 35: Dashboard Backend APIs
- Create REST APIs for dashboard data
- Implement aggregation and analytics endpoints
- Add filtering and search capabilities
- Create trend analysis and reporting APIs
Stage 36: MCP Feedback Implementation
- Implement structured feedback formatting for AI platforms
- Add webhook system for real-time feedback delivery
- Create feedback effectiveness tracking
- Add integration with popular AI orchestration platforms
Stage 37: Server-Client Communication
- Implement secure client-server communication protocol
- Add result synchronization mechanisms
- Create offline mode support with later sync
- Add conflict resolution for concurrent scans
Stage 38: Basic Web Dashboard
- Create React-based web dashboard
- Implement project overview and scan history views
- Add issue browsing and filtering capabilities
- Create basic reporting and export features
Stage 39: Multi-tenant Architecture
- Implement organization and project isolation
- Add user management and role-based access control
- Create resource usage tracking and limits
- Add tenant-specific configuration management
Stage 40: Server Deployment Options
- Create Docker containerization for easy deployment
- Add Kubernetes deployment configurations
- Implement air-gapped deployment support
- Create cloud provider specific deployment guides
Stage 41: Automated Fix Engine
- Implement automatic code fix generation
- Add safe transformation verification
- Create fix preview and approval mechanisms
- Add rollback capabilities for automated changes
Stage 42: AI-Powered Refactoring
- Integrate LLM for complex refactoring suggestions
- Implement context-aware code improvement recommendations
- Add refactoring impact analysis
- Create human-in-the-loop approval workflows
Stage 43: IDE Extension Development
- Create VS Code extension with real-time analysis
- Implement JetBrains plugin for IntelliJ/PyCharm
- Add Language Server Protocol support
- Create inline fix suggestions and quick actions
Stage 44: Infrastructure as Code Analysis
- Add Terraform configuration analysis
- Implement CloudFormation template scanning
- Create Kubernetes manifest security and efficiency rules
- Add Docker image optimization suggestions
Stage 45: Container Security & Optimization
- Implement Dockerfile best practice analysis
- Add container image vulnerability scanning
- Create container resource optimization suggestions
- Add multi-stage build efficiency analysis
Stage 46: Multi-Language Support
- Add JavaScript/TypeScript analysis capabilities
- Implement Java basic analysis rules
- Create language-agnostic rule framework
- Add support for additional popular languages
Stage 47: Enterprise Features
- Implement SSO integration (SAML, OAuth2, LDAP)
- Add comprehensive audit logging
- Create compliance reporting (SOC2, ISO27001)
- Add advanced policy management and enforcement
Stage 48: Custom Rule Development Platform
- Create web-based rule development interface
- Implement rule testing and validation framework
- Add rule sharing and marketplace capabilities
- Create SDK for external rule development
Stage 49: Advanced Analytics & ML
- Implement machine learning for pattern detection
- Add predictive analysis for code quality trends
- Create anomaly detection for security and performance
- Add intelligent prioritization of issues
Stage 50: Community & Ecosystem
- Launch open-source community platform
- Create plugin marketplace and ecosystem
- Implement community rule sharing
- Add integration with major development platforms and tools
We welcome contributions from the community! Please read our Contributing Guidelines for details on how to get started.
This project is licensed under the MIT License - see the LICENSE file for details.
- CodeCarbon project for carbon footprint measurement inspiration
- Bandit project for security analysis patterns
- The broader green software and sustainable computing community
EcoGuard AI - Building a sustainable future, one line of code at a time π±