Quantum Effects at the Biology and Innovation Interface.
Optical Control in Living Systems
QBI² brings together quantum physicists, chemical biologists, biomedical researchers, and industry expertise to investigate whether and how quantum engineering can advance the life sciences, and quantum phenomena control biological systems.
Our annual workshop anchors on a specific focal topic the community is ready to move forward on, examining where quantum phenomena may be utilized to transform our capabilities to study and control biological systems, and where quantum phenomena may genuinely shape biological function, and where evidence falls short.
The goal is not consensus but clarity: to map what is known, identify what remains contested, and figure out where the real scientific and translational opportunities lie.
QBI² is as much about building community as advancing ideas. We connect researchers across disciplines, sparking collaborations and creating space for the kinds of conversations and ideas that demand an in-depth, focused discussion, and inspire exchange between academia and industry.
For 2026, protein science is the lens. The workshop focuses on protein spin qubits and related spin effects: genetically encoded and chemically targeted spin systems that can be initialized, manipulated, and read out within living systems.
From fluorescent protein spin qubits to radical-pair systems and the translational opportunities in quantum biology - a focused, single-track program.
Welcome & framing
Songi Han & Peter Maurer
Opening Keynote — David Awschalom
University of Chicago
Peter Maurer
University of Chicago
Encoding a Spin Qubit in a Fluorescent Protein
Robert Dickson
Georgia Institute of Technology
Laura Gagliardi
University of Chicago
Roel Tempelaar
Northwestern University
How Molecular Structure Governs Intersystem Crossing in Firefly Oxyluciferin and Beyond
Subhajyoti Chaudhuri
Northwestern University
From Spin to Signal: The Quantum Chemistry of LOV Photoreceptors
Emmanuel Flurin
Quantronics, CEA
Vahid Sandoghdar
Max Planck Institute for the Science of Light
Rama Ranganathan
University of Chicago
Max Wilson
UC Santa Barbara
Massively Multiplexed Engineering of Photo-Switchable Proteins
Yun Chen
Johns Hopkins University
Leveraging Spin Dynamics of Radical Pairs to Control Cell Behaviors and Cell Fates
Alex Jones
National Physical Laboratory (NPL), UK
Magnetic Modulation of Neuronal Activity
Dominik Bucher
Technical University of Munich
Optically Detected and Radio Wave-Controlled Spin Chemistry in Flavoproteins
Shaun Burd
Stanford University
Gabriel Abrahams
University of Oxford
Brian Crane
Cornell University
Josh Straub
Han Lab, Northwestern University
Magnetic Field Controls Covalent Photoproduct Formation in a Wild-Type Photoreceptor
Kevin Gardner
CUNY Advanced Science Research Center
John Anderson
University of Chicago
NIR-II Addressable Spins for In-Vivo Sensing and Imaging
Clarice Aiello
Quantum Biology Institute
Program is subject to change.
Registration closes September 30, or earlier if we reach capacity.
Registration closes September 30, or sooner if we reach our 150-attendee capacity — whichever comes first. The registration fee is $150.
Register now →QBI² is supported by leading institutions, foundations, and industry partners committed to advancing quantum bioscience.