LEF: Quantum Execution for AI
Break complex operations into quantum-like particles. Parallel execution with deterministic outcomes.
Particle-Based Execution
⚛ Compute
P_c(x) → y
Pure computational units with no side effects. Deterministic transformations.
⚛ IO
P_io ⊗ World
Managed external interactions with rollback capabilities and isolation.
⚛ State
S_t+1 = P_s(S_t)
Immutable state transformations with complete history tracking.
⚛ Control
P_c: Flow → DAG
Orchestration particles managing flow and dependencies.
Quantum-Inspired Mechanics
Superposition
Particles exist in multiple states until observation, enabling parallel exploration of solution spaces.
Entanglement
Correlated particles share state, enabling instant coordination across distributed operations.
Collapse
Measurement collapses superposition to definite states, producing deterministic results.
Execution Model
Parallel Processing
LEF automatically identifies independent particles and executes them in parallel across available resources.
Guarantees:
- Determinism - Same input, same output
- Isolation - No side-effect interference
- Atomicity - All or nothing execution
- Reversibility - Undo any operation
Execution Pipeline
[Intent] ↓ [Decomposition] ↙ ↓ ↘ P₁ P₂ P₃ ↘ ↓ ↙ [Composition] ↓ [Result]
Performance Characteristics
1M+
Particles/Second
O(log n)
Scheduling Complexity
100%
Deterministic
∞
Scalability
Applications
Distributed AI
Execute AI operations across clusters with guaranteed consistency and fault tolerance.
Real-time Systems
Meet strict timing constraints through parallel particle execution and priority scheduling.
Scientific Computing
Complex simulations broken into particles for massive parallelization.
Execute at Quantum Speed
LEF brings quantum computing principles to AI execution. Parallel, deterministic, and infinitely scalable.