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Welcome to NSF NQVL Quantum Computing Applications of Photonics (QCAP)

Welcome to the NSF NQVL Quantum Computing Applications of Photonics (QCAP), where we promote the further development of facilities and centers available for quantum information science and technology research, testing, and education. We are dedicated to advancing the field of quantum science and technology through our innovative programs and initiatives.

About

About QCAP

At NSF NQVL Quantum Computing Applications of

Photonics, we are committed to fostering a collaborative environment for quantum information science and technology. Our mission is to advance the understanding and application of quantum principles through cutting-edge research, education, and outreach. Join us in shaping the future of quantum technology.

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Features

Key Initiatives

Discover the key initiatives and programs at NSF NQVL Quantum Computing Applications of Photonics that drive advancements in quantum information science and technology. Our dedicated teams work on groundbreaking projects to push the boundaries of quantum research and innovation.

1

Advanced Research

Explore the forefront of quantum research and development, where our experts collaborate on pioneering projects to unlock the potential of quantum technologies.

2

Educational Outreach

Engage with our educational initiatives designed to inspire the next generation of quantum scientists and engineers, fostering a passion for quantum exploration and discovery.

3

Strategic Partnerships

Learn about our strategic partnerships with leading institutions and organizations, driving interdisciplinary collaborations to accelerate quantum technology advancements.

Monday, February 17, 2025

Registration

Keynote Address

Introduction to Morning Topics

Session #1 - Platforms for Photonics Quantum Computing

BREAK

Session #2 - Photonics Quantum Computing
 
Architectures

LUNCH

Introduction to Afternoon Topics

Session #3 - Photonics Quantum Computing Components

Photonic quantum technologies have achieved significant milestones over the past 20 years, including recent demonstrations of quantum advantage and space-to-ground quantum communications. However, scalability and integration of critical components remains a major challenge across all platforms. Photonic quantum technologies stand to benefit from advancements in classical photonic integration, offering pathways to address these challenges.

BREAK

Session #4 - Algorithms for Photonics Quantum Computing

Recent advances in quantum photonics algorithms have centered on exploiting the unique properties of photonic systems for computational tasks such as Gaussian Boson Sampling (GBS), used for solving graph problems and complex sampling challenges, and quantum machine learning, which leverages high-dimensional photonic states for efficient data encoding and transformation. Similarly, algorithms for measurement-based quantum computing (MBQC) have progressed, utilizing photonic cluster states and adaptive measurements to implement universal gates toward optimization, generative modeling, and fault-tolerant computing. In this session we will discuss challenges and opportunities for quantum photonic algorithms.

 

Tuesday, February 18, 2025
 

Registration

Introduction to Morning Topics

Session #5 - Quantum Simulations

Photonic quantum simulations leverage the unique properties of light—such as coherence, entanglement, and high-dimensional encoding—to model complex quantum systems efficiently. Using platforms like integrated photonics and frequency-multiplexed architectures, these simulations can represent quantum many-body systems and dynamic processes in continuous-variable or discrete-variable frameworks. Advances in Gaussian Boson Sampling (GBS) have enabled simulations of vibrational spectra and graph-based systems, while hybrid approaches incorporating non-Gaussian elements increase computing flexibility and utility. Scalable photonic platforms, powered by squeezed light, cluster states, and adaptive measurements, are driving progress toward simulating phenomena that are intractable for classical methods. In this session we will discuss challenges and opportunities for quantum photonic simulations.

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Session #6 - Photonics in Non-Photonic Implementations

Beyond the potential for an all-optical quantum processor, photonic devices play critical roles in many other QC implementations, including quantum gates based on ionic and neutral atoms. How can the photonic quantum computing community support and enhance the efforts of other QC implementations? What challenges currently exist related to the implementation of photonics for non-photonic quantum computing? 

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Session #7 - Quantum Computing Education & Workforce
                      Development

Career opportunities in quantum computing is increasing and we need to prepare our students to meet this demand and for success in Quantum Computing careers. What does a quantum computing education curriculum look like? What is needed to build successful programs in this area, allowing students from all backgrounds to enroll and succeed? Where do we start to build student interest in quantum computing careers?
 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

Registration

Keynote Speaker: Alex Greeenberg (Economic Development Advisor for NM Gov. Michelle Lujan Grisham)

Keynote presentation on the value of quantum commercialization and the National Quantum Virtual Laboratory effort for our region.


Panel #1: State of Quantum Commercialization

Examine how the future of quantum computing, quantum internet, and industry segment and their suppliers contributes to the US quantum effort.  The panel will emphasize the mountain west region. Focus on how the national labs, Elevate Quantum, NM Moonshot, and the NM’s NQVL effort contribute to the US quantum effort.

Moderator: Dr. Inder Thukral (Espalier - AI for Quantum Technology)

Panelists: Daniel Kane (Mesa Photonics); Jake Douglas (Sandia National Labs, NM Moonshot, Elevate Quantum); Kathleen McDonald (Los Alamos National Lab); Dr. Boris Kiefer (New Mexico State University)

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Panel #2: How does NQVL Impact the Western Region and the United States

Quantum computing and internet are important both commercially and US security. The NQVL provides low-risk interaction for firms and researchers around the US and particularly in the western region. NQVL and its partners – universities and firms – will understand the many industry segments that firms can explore the quantum space.

Moderators: Zachary Yerushalimi (Elevate Quantum)

Panelists: John Gariano (Mesa Quantum); Jennifer Sensibaugh (New Mexico MEP); Dale Decker (Dekker/Perich/Sabatini); Andrew Clark (Hoonify)

LUNCH (PROVIDED)

Panel #3:  Investor Panel

Well over 600 venture firms, government organizations, private capital, and firm strategic investors have invested in quantum efforts. Many of our panelists (and the NSF) have invested in early-stage quantum research and start-ups.

 

Moderator: Yeri Lopez (J2 Ventures)

Panelists: Chuck Call (Cottonwood Technology); Leif Danielsen (Acequia Capital); Caitlin Lohrenz (Crosslink Capital); Dr. Inder Thukral
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CHTM TOUR
Closing Remarks: 
Dr. Marek Osinski (University of New Mexico, NQVL QCAP PI);
Dr. Steve Walsh (UNM Anderson School of Management)

Wednesday, February 19, 2025

QCAP Town Hall Interest Form

Please take a moment to fill out the form.

Thanks for submitting!

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Our Team

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