QBi2

Quantum Effects at the Biology and Innovation Intersection
2026 Edition

Protein Spin Qubits

Optical Control in Living Systems

About QBI²

Do living systems exploit quantum effects to perform biological function, and could that reshape the frontier of bioscience and technology?

QBI² brings together quantum physicists, chemical biologists, biomedical researchers, and industry to interrogate this question rigorously. Each year the workshop anchors on a specific focal topic the community is ready to move forward on, examining where quantum phenomena may genuinely shape biological function, and where the evidence falls short.

The goal is not consensus but clarity: to map what is known, identify what remains contested, and surface where the real scientific and translational opportunities lie. QBI² is as much about building community as advancing ideas, connecting researchers across disciplines, sparking collaborations that would not otherwise happen, and creating space for the kinds of conversations that don't fit into a conference talk.

Working meeting Rotating annual focus Academia · Industry · Funding

For 2026, protein science is the lens. The workshop focuses on protein spin qubits: genetically encoded and chemically targeted spin systems that can be initialized, manipulated, and read out by light within living systems. We examine how phenomena such as spin coherence, radical pair mechanisms, spin-dependent electron transfer, and energy transduction at the spin-optics interface may function as active drivers or sensitive reporters of biological function.

Spin dynamics sits at the heart of many proposed quantum biological mechanisms. Electron and nuclear spin magnetic resonance based approaches, coupled with hyperpolarization, optical excitation and readout, provide some of the most direct experimental windows into these phenomena, offering spin state manipulation, spin dynamics and coherence, spin correlated radical pair mechanism, and read out of exchange, dipolar and hyperfine coupling that optical methods alone cannot access. QBI² recognizes these tools as central to rigorously testing quantum biological hypotheses.

This is a field still defining itself. QBI² exists to help do that, rigorously and with an open mind.

  • Map genuine opportunities and pitfalls at the quantum-biology interface
  • Connect thought leaders across academia, industry, and funding agencies
  • Build quantum literacy among biologists and chemists entering this space
  • Catalyze collaborations toward real biomedical and biotech impact
  • Shape the emerging workforce and funding landscape for quantum biology

Day 1 · October 19

Academic talks

Keynote lectures
Invited speaker sessions
Poster & discussion session
Evening networking

Day 2 · October 20

Innovation & workforce

Investors · R&D · Idea generation
Academics + industry investigators
Transferable skills workshop
Connecting students with industry talent needs
WM

Opening keynote

W.E. Moerner

Stanford University

VS

Vahid Sandoghdar

Max Planck Institute for the Science of Light

DA

David Awschalom

University of Chicago

GA

Gabriel Abrahams

University of Oxford

DB

Dominik Bucher

Technical University of Munich

MW

Max Wilson

UC Santa Barbara

CA

Clarice Aiello

Quantum Biology Institute

BC

Brian Crane

Cornell University

SB

Shaun Burd

Stanford University

YC

Yun Chen

Johns Hopkins University

RT

Roel Tempelaar

Northwestern University

KG

Kevin Gardner

The City College of New York

SC

Subhajyoti Chaudhuri

Northwestern University

Register now

Applications open soon · Limited capacity

Quantum bioscience career network

Are you a student or postdoc with skills in magnetic resonance, spin chemistry, biochemistry, biophysics, spin quantum mechanics, or instrumentation, and looking for your next opportunity? We are building an AI-powered career tool designed specifically for the quantum bioscience workforce. Register your CV and interest area now. We will match emerging talent with opportunities in academia, industry, and funding, and update you at least quarterly as the network grows.