Chronological feed of everything captured from Jerry Chow.
QCSC proposes a transition from isolated quantum and classical systems to a fully integrated heterogeneous architecture combining QPUs, GPUs, and CPUs. This evolution aims to eliminate manual workload orchestration and data transfer bottlenecks, enabling scalable hybrid quantum-classical algorithms for chemistry and materials science.
Achieving fault-tolerant quantum computing requires moving beyond improvements in qubits, algorithms, and software. Fine-tuned, device-level quantum control at the physical layer is a critical and often overlooked aspect. This report summarizes a workshop that brought together experts from academia, national labs, and industry to address the importance and challenges of pulse-level quantum control, highlighting it as a crucial area for innovation.
Traditional quantum circuits are limited to time-ordered unitary operations. This work explores dynamic quantum circuits on a superconducting quantum system, which incorporate mid-circuit measurements and real-time classical processing. This approach significantly improves quantum algorithm performance, particularly for adaptive quantum phase estimation, provided noise and latency are sufficiently low.