LQL: The Language of AI Composition
Express complex AI operations as mathematical compositions. Category theory meets practical execution.
Mathematical Foundations
Functors
F: C → D
Transform between categories while preserving structure. Map objects and morphisms consistently.
Natural Transformations
η: F ⇒ G
Systematic ways to transform one functor into another, ensuring coherence across operations.
Monadic Composition
M(M(a)) → M(a)
Chain operations safely with built-in error handling and state management.
LQL in Action
Query Structure
LQL queries compose operations declaratively, focusing on what to achieve rather than how to achieve it.
Key Features:
- Declarative syntax
- Type-safe composition
- Automatic parallelization
- Built-in proof generation
- Reversible operations
query AnalyzeUserBehavior { source: Dataset("user_events") pipeline: [ Filter(timestamp > "2024-01-01"), Map(event -> { user: event.user_id, action: event.type, value: event.revenue }), GroupBy(user), Aggregate({ total: sum(value), count: count(), avg: mean(value) }), Sort(total, desc), Limit(100) ] output: Table("top_users") proof: required }
Compositional Power
Category Theory in Practice
Composition Laws
Associativity ensures operations can be grouped flexibly without changing results.
Identity Preservation
Identity operations ensure clean composition without side effects.
Functor Laws
Functors preserve compositional structure across transformations.
Natural Coherence
Natural transformations maintain consistency across different paths.
Real-World Applications
Data Processing
Build complex ETL pipelines with guaranteed correctness and automatic optimization.
AI Workflows
Compose multiple models and processing steps with mathematical guarantees.
System Integration
Connect disparate systems through categorical interfaces with type safety.
Express AI Intent Mathematically
LQL transforms how we think about AI operations. From imperative commands to mathematical compositions.