Science

The science & the system.

Learn what quantum biology is and how we're building a new, decentralized process to fund its most important experiments.

Foundations

What is quantum biology.

Quantum biology is an emerging scientific field that explores how life depends on quantum phenomena.

At its core, it studies how superposition, electron spin, entanglement, and quantum tunneling can influence the molecules, cells, and systems of living organisms.

Researchers are now finding quantum effects at work in photosynthesis, bird navigation, enzyme catalysis, and possibly the sense of smell — phenomena that classical biology has struggled to fully explain.

History

A brief history.

Soon after the birth of quantum physics in the 1920s and 30s, scientists began searching for ways to apply quantum ideas in biology. Erwin Schrödinger, one of the fathers of quantum theory, wrote "What is Life?" in 1944, postulating the need for quantum mechanics to explain heredity, prior to the discovery of DNA. In the 1960s and 70s, researchers began finding examples of natural phenomena, including tunneling in enzymes and bird navigation, which depended on quantum phenomena. Now, researchers are aiming to construct new instruments to directly probe quantum states and help unlock the quantum secrets of life.

1920's–30's

Quantum physics born

Scientists begin searching for ways to apply quantum ideas in biology.

1944

What is Life?

Schrödinger postulates the need for quantum mechanics to explain heredity, prior to the discovery of DNA.

1960's

First evidence

Researchers find natural phenomena depending on quantum effects — tunneling in enzymes, bird navigation.

Now

Probing quantum states

Researchers aim to construct new instruments to directly probe quantum states and unlock the quantum secrets of life.

Our focus

What kind of quantum biology are we interested in?

There are many "flavors" of quantum biology — from birds navigating magnetic fields, to quantum coherence in photosynthesis, to theories of consciousness in microtubules.

At the Quantum Biology DAO, we're especially focused on experimentally testable quantum effects with real-world relevance and clear theoretical grounding.

So far, we've been particularly interested in two areas: low-field magnetic effects and the radical pair mechanism. These make specific predictions and could explain phenomena from tadpole development to human fertility.

In the wild

Popular examples.

Photosynthesis

Bird navigation

DNA repair

Magnetic sensitivity

Sense of smell

Flagship grant

Quantum Biology Institute

The Quantum Biology Institute.

We made the largest grant ever awarded in quantum biology to the Quantum Biology Institute — a nonprofit lab in Los Angeles funding real scientists doing real experiments.

The Institute is building a quantum microscope to detect electron spin states inside live cells.

Visit the Institute

The Quantum Biology Institute is committed to an open science model of research. To view all their previous and ongoing work, check out this link.

Voices

From the working group.

There is a quantum biology sized hole in biological science that the DAO is needed for - until quantum biology is taught in high school biology classes, it will continue to be needed.

Chris Rourk

Science Working Group Leader

The research we're supporting isn't abstract, it's about unlocking discoveries that impact life itself. Advancing quantum biology through grants ensures ideas with potential don't stay trapped in theory, and the granting process here feels transparent, mission-driven, and built to accelerate breakthroughs.

Zicjoe

DAO Community Member

Funding

The granting process.

We're building a new way to fund quantum biology — one that's community-driven, transparent, and designed to support experiments that matter.

The full granting process is still in development. If you have ideas:

Questions

Still have questions?