| name | circuit-optimizer |
| description | Quantum circuit optimization skill for gate reduction, depth minimization, and hardware-aware compilation |
| allowed-tools | ["Bash","Read","Write","Edit","Glob","Grep"] |
| metadata | {"specialization":"quantum-computing","domain":"science","category":"circuit-design","phase":6} |
| graph | {"domains":["domain:quantum-computing"],"specializations":["specialization:quantum-computing"],"skillAreas":["skill-area:compiler-implementation","skill-area:graph-algorithms","skill-area:mathematical-reasoning"],"workflows":["workflow:experiment-design"],"roles":["role:research-engineer","role:computational-scientist"]} |
Circuit Optimizer
Purpose
Provides expert guidance on quantum circuit optimization techniques for reducing gate count, minimizing depth, and adapting circuits to hardware constraints.
Capabilities
- Circuit depth reduction algorithms
- Gate cancellation and merging
- Peephole optimization
- Template matching optimization
- Commutation analysis
- Hardware topology-aware routing
- Two-qubit gate minimization
- Compilation pass orchestration
Usage Guidelines
- Analysis: Profile circuit for optimization opportunities (gate counts, depth, connectivity)
- Gate Reduction: Apply cancellation and merging rules for equivalent gates
- Depth Optimization: Parallelize independent operations where topology allows
- Hardware Mapping: Route circuits to respect hardware connectivity constraints
- Verification: Validate circuit equivalence after optimization
Tools/Libraries
- Qiskit transpiler
- pytket (t|ket>)
- PyZX
- Cirq optimizers
- BQSKit