In-Depth Notes on Quantum Information Science Panel

Introduction to Quantum Information Science

  • Discussion on the future of quantum information science at R&D and commercialization levels, focusing on national labs.
  • Importance of human resources and operations in supporting scientific advancement.

Panelists & Their Roles

  • Anna Grasolino: Senior Scientist, SQMS, DOE National Quantum Information Science Research Center.
  • Bert DeJong: Director, Quantum Systems Accelerator, Lawrence Berkeley National Laboratory.
  • Kimberly Maguire: COO, Brookhaven National Lab in Quantum Division.

Anna Grasolino's Contributions

  • Leads the SQMS, focusing on superconducting quantum materials and systems.
  • Significant experience since 2016 in quantum technologies and accelerator intersections.
  • Innovations in superconducting devices are utilized for quantum information science:
    • Superconducting radiofrequency cavities: High-quality oscillators used for particle acceleration, now being utilized to store and manipulate photons for quantum applications.
  • Groundbreaking developments include high-fidelity gates using large superconducting cavities, enhancing the performance of quantum devices.
  • New partnerships with industry:
    • IBM: Collaborating on scalability, focusing on large data centers and connectivity.
    • Maybell Quantum: Joining efforts in the cryogenics space for large-scale quantum computing.

Kimberly Maguire's Focus

  • Operations and workforce development supporting scientific work.
  • Importance of adapting policies in response to external factors affecting the scientific community.
  • Recent achievements in workforce development:
    • Successful virtual career fairs with high participation from job seekers and hiring managers.
    • Efforts geared towards creating a cohesive ecosystem to attract and retain talent in the quantum sector.

Bert DeJong's Insights

  • Emphasis on multidisciplinary approaches in labs, focusing on scaling quantum technologies.
  • Working with varied qubit platforms, aiming for cross-disciplinary innovations:
    • Atomic, ionic, and superconducting qubit technologies to improve scalability and system integration.
    • The urgent need for robust partnerships between national labs and industry to advance practical applications.

Scalability Challenges in Quantum Computing

  • Discussion on required infrastructure for growth in quantum computing:
    • Need for advanced engineering solutions to create larger quantum systems.
    • Exploration of multi-layer qubit technologies and photonic connections to facilitate greater scalability.
  • Systems at national labs already exploring these challenges, aiming for innovative solutions to encourage industry partnerships.

Collaboration and Communication Strategies

  • Advice for private sector companies seeking collaboration with national labs:
    • Importance in highlighting mutual value in partnership proposals.
    • Engagement through established channels to access quantum technologies and expertise.
  • Call for improving communication regarding advancements in quantum research:
    • Highlight need for effective outreach and information dissemination among stakeholders.

Final Thoughts

  • Encouragement for networking and fostering relationships at the event to explore collaborative opportunities in quantum science.