A two-pass optimization framework with polynomial-based simulation discovers heralded ballistic circuits for 3-5 qubit graph states achieving up to 7.5x higher success probabilities than fusion baselines, including first known circuits for some 5-qubit states.
Title resolution pending
6 Pith papers cite this work, alongside 18 external citations. Polarity classification is still indexing.
6
Pith papers citing it
18
external citations · external index
citation-role summary
background 2
citation-polarity summary
fields
quant-ph 6roles
background 2polarities
background 2representative citing papers
A type-I fusion gate, boosted with four single-photon ancillas and passive linear optics, reaches 3/4 success probability via a distillation protocol.
Logically encoded 24-photon FBQC resource states can be deterministically produced from 3 quantum emitters and 11 CNOT gates by using symmetries to reduce the search over photon emission orderings.
Authors propose a low-optical-depth fusion-based photonic quantum computing architecture using quantum-dot emitters, adaptive repeat-until-success fusions, and time-bin qubits, with resource estimates and error-threshold simulations for fault tolerance.
Blueprint for a cavity-QED photon-atom platform that generates large-scale cluster states via atomic reuse and achieves a simulated 2.6% photon-loss threshold on the RHG lattice for fault-tolerant Clifford operations.
Time-optimal control produces Fock and Schrödinger cat states in light-matter systems at unit fidelity with lower energetic cost and noise robustness than adiabatic methods.
citing papers explorer
-
Automated discovery of heralded ballistic graph state generators for fusion-based photonic quantum computation
A two-pass optimization framework with polynomial-based simulation discovers heralded ballistic circuits for 3-5 qubit graph states achieving up to 7.5x higher success probabilities than fusion baselines, including first known circuits for some 5-qubit states.
-
Single-photon-boosted type-I fusion gates
A type-I fusion gate, boosted with four single-photon ancillas and passive linear optics, reaches 3/4 success probability via a distillation protocol.
-
Protocol for Efficient Generation of Fusion-Based Quantum Computing Resource States from Quantum Emitters
Logically encoded 24-photon FBQC resource states can be deterministically produced from 3 quantum emitters and 11 CNOT gates by using symmetries to reduce the search over photon emission orderings.
-
Practical blueprint for low-depth photonic quantum computing with quantum dots
Authors propose a low-optical-depth fusion-based photonic quantum computing architecture using quantum-dot emitters, adaptive repeat-until-success fusions, and time-bin qubits, with resource estimates and error-threshold simulations for fault tolerance.
-
Blueprint for a fault-tolerant compound photon-atom quantum architecture
Blueprint for a cavity-QED photon-atom platform that generates large-scale cluster states via atomic reuse and achieves a simulated 2.6% photon-loss threshold on the RHG lattice for fault-tolerant Clifford operations.
-
Time optimal quantum state engineering
Time-optimal control produces Fock and Schrödinger cat states in light-matter systems at unit fidelity with lower energetic cost and noise robustness than adiabatic methods.