Discover Quantum Events Across the Northwest

The Northwest Quantum Nexus organizes and promotes events that connect researchers, educators, industry leaders, and students. From weekly seminars to international conferences, our events create opportunities to share knowledge, build collaborations, and grow the regional quantum ecosystem.

Discover Quantum Events Across the Northwest

The Northwest Quantum Nexus organizes and promotes events that connect researchers, educators, industry leaders, and students. From weekly seminars to international conferences, our events create opportunities to share knowledge, build collaborations, and grow the regional quantum ecosystem.

Upcoming Events

KIMES Medical Exhibition

March 19, 2026 - March 22, 2026

Visit the official trade show page The largest business network

NQN Northwest Quantum Day

April 14, 2026

​Date: April 14. Doors open 8am, Sessions from 9-3pm ​Target

Cybersecurity for Energy Resilience Summit (CyFERS) 2026

April 28, 2026 - April 30, 2026

Overview Mark your calendars for April 28 to 30 as

Past Events

Krysta Svore (NVIDIA): UW Public Lecture in Quantum Science and Engineering
February 10, 2026

Dr. Krysta Svore
Vice President of Applied Research for Quantum Computing at NVIDIA

February 10 | 7:30 p.m. – 8:30 p.m.
UW Seattle Campus
Kane Hall Auditorium – Room 130

Designing the Accelerated Quantum Supercomputer: AI‑First, Real‑Time Required

Abstract: Quantum computing is often framed as a hardware challenge, but the next breakthroughs will come from the fusion of AI, advanced systems software, and real‑time quantum–classical integration. As quantum processors scale, the bottlenecks shift: calibration becomes a data problem, decoding becomes an AI problem, and system performance becomes a real‑time orchestration problem. This talk will explore how accelerated emulation, AI‑driven calibration and decoding, and ultra‑low‑latency quantum–classical links are redefining what a quantum computer is. These capabilities enable rapid iteration, higher‑quality qubits, and system‑level designs that were previously out of reach, opening the door to architectures that can genuinely scale. By examining the emerging blueprint of an accelerated quantum supercomputer, we will look at the key requirements for building such systems—from real‑time control to heterogeneous acceleration—and how advances across the ecosystem are bringing this future closer, faster, and with far greater impact than qubits alone could achieve.

Bio: Dr. Krysta Svore is Vice President of Applied Research for Quantum Computing at NVIDIA, joining the company after 19 years at Microsoft, where she served as Technical Fellow and VP of Advanced Quantum Development and pioneered reliable quantum computing through the co‑design of hardware, software, and error correction. She began her career developing machine learning methods for web search before founding Microsoft’s quantum computing software, algorithms, and architecture program.  She led efforts that brought the first quantum computers to Azure, advanced state‑of‑the‑art quantum software and algorithms, created an open‑source quantum software stack, developed a scalable quantum architecture, and in collaboration with Quantinuum and Atom Computing demonstrated the first logical qubits with better‑than‑physical error rates in 2024. She has published more than 70 refereed articles, filed over 30 patents, and is a fellow of the AAAS, APS, and WSAS, as well as a Kavli Fellow of the National Academy of Sciences, one of UNESCO’s Quantum100 leaders. Dr. Svore has advised the National Quantum Initiative, the U.S. Department of Energy, and DARPA, and is internationally recognized for transforming foundational research into breakthrough technologies and for building and empowering high‑performing teams. She now brings her visionary leadership to NVIDIA to accelerate the future of quantum computing.

PNAA Advance 2026
February 9, 2026 - February 11, 2026

Visit the official 2025 show wrap-up page

Pacific Northwest Aerospace Alliance (PNAA) is a coalition of aerospace companies serving North America’s largest commercial aerospace manufacturing cluster which centers round growing segments in the Pacific Northwest.

For more information, contact
Shannon McCarty

A Fault-Tolerant Neutral-Atom Architecture for Universal Quantum Computation
February 3, 2026

Sasha Geim, Harvard University

Quantum error correction enables coherent computation on encoded logical qubits while simultaneously removing errors from the underlying physical qubits. Here we utilize reconfigurable arrays of up to 448 neutral atoms to experimentally explore the key elements of a fault-tolerant quantum processing architecture, including below-threshold correction, fault-tolerant gate operations, universality, and physical error removal during deep-circuit computation. We first demonstrate performance of 2.14(13)x below-threshold in a four-round characterization circuit on individual surface codes, leveraging loss detection and machine learning decoding. We further explore the physics of repeated error correction in logical entanglement based on transversal gates and lattice surgery and extend to universal logic using transversal teleportation with 3D color codes for analog-angle synthesis. Finally, we demonstrate a method for mid-circuit qubit re-use, increasing the experimental cycle rate by two orders of magnitude and implementing deep-circuit protocols involving hundreds of logical teleportations while maintaining constant internal entropy. These results establish foundations for scalable, universal error-corrected processing and its practical implementation with neutral atom systems.

Host an Event with NQN

Want to collaborate on a seminar, workshop, or conference? Contact us to explore opportunities for partnership.