EPR-pair consumption—standard optimization metric in distributed quantum compilation—doesn't reliably predict execution time. Equal EPR costs yield vastly different runtimes; reliability depends on circuit structure and communication architecture.

EPR-pair consumption—standard optimization metric in distributed quantum compilation—doesn't reliably predict execution time. Equal EPR costs yield vastly different runtimes; reliability depends on circuit structure and communication architecture.
Cisco's compiler now models network physical limitations, entanglement constraints, and distributed error correction directly into quantum circuit compilation, enabling proactive optimization for multi-QPU systems at scale.
memQ releases open-source Distributed Quantum Compiler enabling multi-vendor quantum processor networks via optical channels. Framework converts standard circuits to network-optimized execution graphs, supporting scale-out quantum computing deployment.
memQ and Argonne researchers identified that a 10-fold reduction in microwave-optical transducer noise would make remote gate teleportation superior to circuit cutting for linking quantum processors—offering new pathways to scaled quantum systems.