Lavoisier Documentation
Welcome to the comprehensive documentation for the Lavoisier mass spectrometry analysis framework. Lavoisier is a high-performance computing framework that combines numerical and visual processing methods with integrated artificial intelligence modules for automated compound identification and structural elucidation.
π― NEW: Buhera Scripting Language
Lavoisier now includes Buhera, a revolutionary domain-specific scripting language that transforms mass spectrometry analysis by encoding the actual scientific method as executable scripts.
Buhera Documentation
- π Buhera Overview - Complete introduction to the Buhera scripting language
- π Language Reference - Comprehensive syntax and semantics reference
- π§ Integration Guide - Detailed guide to Buhera-Lavoisier integration
- π Tutorials - Step-by-step tutorials from beginner to advanced
- πΌ Script Examples - Practical examples for various applications
Key Buhera Features
- π― Objective-First Analysis: Scripts declare explicit scientific goals before execution
- β Pre-flight Validation: Catch experimental flaws before wasting time and resources
- π§ Goal-Directed AI: Bayesian evidence networks optimized for specific objectives
- π¬ Scientific Rigor: Enforced statistical requirements and biological coherence
Core Lavoisier Framework
System Architecture & Installation
- ποΈ Architecture Overview - System design and component relationships
- βοΈ Installation Guide - Setup instructions and requirements
- π Performance Benchmarks - System performance characteristics
AI Modules & Intelligence
- π€ AI Modules Overview - Comprehensive guide to all AI modules
- π§ Specialized Intelligence - Domain-specific AI capabilities
- π HuggingFace Integration - Machine learning model integration
- π Embodied Understanding - 3D molecular reconstruction validation
Analysis Pipelines
- π’ Numerical Analysis - Mathematical foundations and algorithms
- ποΈ Visual Processing - Computer vision and image analysis
- π Results & Validation - Analysis outputs and validation metrics
Development & Integration
- π§ Implementation Roadmap - Development planning and milestones
- π¦ Rust Integration - High-performance Rust components
- π Python Integration - Python module organization
- π Autobahn Integration - Probabilistic reasoning integration
Benchmarking & Validation
- π Benchmarking - Performance evaluation methodologies
- π Task Specifications - Analytical task definitions and requirements
Quick Start Guide
1. Traditional Lavoisier Analysis
# Install Lavoisier
pip install lavoisier
# Run basic analysis
lavoisier analyze --input sample.mzML --output results/
2. Buhera Script Analysis (NEW!)
# Build Buhera language
cd lavoisier-buhera && cargo build --release
# Create a script
cat > biomarker_discovery.bh << 'EOF'
objective DiabetesBiomarkerDiscovery:
target: "identify metabolites predictive of diabetes progression"
success_criteria: "sensitivity >= 0.85 AND specificity >= 0.85"
validate InstrumentCapability:
check_instrument_capability
if target_concentration < instrument_detection_limit:
abort("Instrument cannot detect target concentrations")
phase EvidenceBuilding:
evidence_network = lavoisier.mzekezeke.build_evidence_network(
objective: "diabetes_biomarker_discovery",
pathway_focus: ["glycolysis", "gluconeogenesis"]
)
EOF
# Validate and execute
buhera validate biomarker_discovery.bh
buhera execute biomarker_discovery.bh
Use Cases
π¬ Scientific Research
- Biomarker Discovery: Identify disease-specific metabolites with clinical utility
- Drug Metabolism: Characterize hepatic metabolism pathways and drug interactions
- Environmental Analysis: Detect contaminants and assess environmental impact
- Food Safety: Monitor pesticide residues and mycotoxin contamination
π€ AI & Machine Learning
- Multi-Domain LLM Systems: Template for combining specialized AI models
- Adversarial ML Research: Framework for testing ML robustness
- Bayesian Network Applications: Probabilistic reasoning in scientific domains
- Context Verification: Novel approaches to AI system integrity
π Quality & Validation
- Method Validation: Comprehensive analytical method validation workflows
- Instrument QC: Continuous performance monitoring and predictive maintenance
- Regulatory Compliance: Automated compliance checking and reporting
- Data Integrity: Cryptographic verification of analysis context
Contributing
We welcome contributions to both the core Lavoisier framework and the Buhera scripting language:
- Core Framework: Python-based AI modules and analysis pipelines
- Buhera Language: Rust-based language implementation and validation
- Documentation: Tutorials, examples, and best practices
- Validation: Test cases and benchmarking datasets
See our implementation roadmap for current development priorities.
Community
- GitHub: lavoisier
- Issues: Report bugs and request features
- Discussions: Share use cases and get help
- Wiki: Community-contributed examples and tutorials
License
Lavoisier is released under the MIT License. See LICENSE file for details.
βOnly the extraordinary can beget the extraordinaryβ - Antoine Lavoisier
Transform your mass spectrometry analysis with surgical precision using Lavoisier and Buhera.