Introduction to my Quantum Biology Blueprint
- Rachel Jessey
- Mar 30
- 5 min read
What Quantum Biology Actually Is and What It Isn't and Why We Need To Care
Welcome to the introdction section of the Quantum Biology Blueprint. Starting this coming Good Friday I will be releasing the first section of my interactive Substack posts that will guide you through some of the tools that I use in clinical practice to support my clients. Every week for the next 10 weeks I will be releasing further sections and you will end up with a clear and workable frame work that you can apply in clinic or to your everyday life.
The Core idea: To demystify quantum biology (beyond influencer lore) and position it as “sub‑cellular physics that complements biochemistry,” with clear definitions that apply to superposition, tunnelling, coherence, entanglement.
Angle: Why every clinician working with complex clients should care about electrons, deuterium, charge, water, and magnetic fields.
Take away: Every reader should be able to understand the science and the reasoning behind why the most simple of interventions can be the most effective in the long term.
That we will cover
Week 1 - Circadian retraining
Week 2 – Quantum Mitochondria and Electron Tunnelling
Week 3 – Biophotons as Cellular Information Carriers
Week 4 – Water, Fields and the Cellular Matrix
Week 5 – Quantum Chronobiology, Chrononutrition and the Body Clock
Week 6 – Light Spectrums and Connection To Natural Light
Week 7 – Quantum Biology of the Gut–Brain Axis
Week 8 – Microtubules, Information Processing and Controversies
Week 9 – Towards Quantum‑Informed Clinical Assessment
Week 10 – Future of Quantum Medicine and Research Gaps
Introduction: From pathways to particles
Most of us were trained to see the body through pathways and protocols, metabolic syndrome here, gut health there, inflammation everywhere, and mitochondria over in the “energy” corner. Behind all of that familiar biochemistry sits a deeper layer of sub atomic rules that govern how electrons and protons. Those rules are the domain of quantum physics.
When I first discovered Quantum biology I asked a simple question, do those rules matter for the way living systems actually function, adapt and break down especially in complex, chronic illness? I have come to the conclusion that the answer is YES!
A clear, grounded definition
One concise way researchers now describe the field is this:
Quantum biology is the study of quantum‑related physics in living systems and how specifically quantum phenomena (like superposition, tunnelling, coherence and entanglement) show up inside real cells and tissues.
This is different from the more trivial statement that influencers in the quantum biology space use such as labelling “everything they cannot explain is quantum.”
Quantum biology focuses on cases where non‑classical behaviour seems to give biology an advantage in speed, sensitivity or efficiency.
The core quantum ideas
You do not need a physics degree to get the gist here. Four ideas are enough to orient you:
Superposition:
A particle can occupy more than one possible state at once (for example, multiple paths or energy levels), only “choosing” when it interacts with its environment.
Tunnelling:
Tiny particles can pass through energy barriers they should not cross classically, effectively taking a shortcut that speeds up key reactions.
Coherence:
a group of particles behaves in a coordinated, wave‑like way, maintaining a shared phase that allows extremely efficient energy or information transfer.
Entanglement:
Two or more particles become linked so that a change in one correlates with a change in the other, even when separated – a phenomenon being seriously explored in some biological models.
In quantum biology, the question is can any of these fragile behaviours survive in the “warm, wet and noisy” environment of living cells long enough to actually change outcomes?
Where quantum effects already look relevant
The field of Quantum Biology is still young, but several areas have accumulated enough evidence to be taken seriously by mainstream physicists and biophysicists:
Enzyme catalysis: isotope‑sensitive experiments suggest that proton tunnelling can dramatically accelerate some enzymatic reactions, beyond what classical transition‑state theory predicts.
Photosynthesis: in certain light‑harvesting complexes, energy seems to move via quantum coherence, exploring multiple paths in parallel and reaching reaction centres with near‑perfect efficiency.
Spin‑dependent reactions and magnetoreception: models of how some birds sense the Earth’s magnetic field rely on spin‑sensitive chemical reactions that may use quantum coherence and entanglement.
DNA and ion channels: there are growing theoretical and experimental hints that tunnelling and coherence might influence DNA stability, mutation processes and ion channel behaviour, though this area is still highly debated.
These examples are important because they demonstrate that life can, in principle, harness quantum rules in messy, biological conditions, not just in physics labs.
What this means for medicine
For clinicians working with chronic, multi‑system conditions, quantum biology offers a way to think about the body that goes beyond “more or less of molecule X.”
It invites questions like:
How might mitochondrial electron tunnelling and coherence shape fatigue, energy variability and PEM, rather than just “ATP up, ATP down”?
Could biophoton emission and spin‑dependent signalling contribute to how tissues coordinate inflammatory responses, tissue repair or circadian timing?
How do light environment, EMFs, temperature, redox status and water structure affect the quantum landscape in which biochemistry is happening, not just the concentrations of substrates?
At this stage, quantum biology is not about offering plug‑and‑play protocols, it is a framework that encourages you to see patients as light‑and EMF-sensitive systems, not just collections of pathways and lab markers.
Avoiding the hype: what quantum biology is not
Because the word “quantum” sells books, it is worth drawing some hard lines:
It is not a licence to attach “quantum” to every supplement, gadget or practice. Claims must be anchored in specific, testable mechanisms (for example, proton tunnelling in enzyme X, or spin‑dependent reaction Y), or they remain marketing.
It does not replace classical physiology or biochemistry. Every credible review emphasises that quantum biology adds a layer beneath, rather than throwing away what we already know.
It is not yet a finished clinical discipline. Leading researchers stress that the field is in its infancy, with real promise but also major unknowns and plenty of over‑interpretation in the popular space.
A good rule of thumb to follow is this - if a “quantum” claim does not name a specific effect and a plausible biological structure, treat it with caution.
How to read quantum biology papers without getting lost
When you come across research in this field please follow my simple three‑step filter:
Level of evidence: Is this a theoretical model, an in‑vitro experiment, an in‑vivo study, or a human outcome trial? Many quantum biology papers are still at the theory or biophysics‑experiment stage.
Specific quantum phenomenon: Does the paper clearly state which quantum effect is involved and how it was measured or inferred (for example, coherence times, tunnelling probabilities, spin‑correlated radical pairs)?
Clinical plausibility: Can you map the proposed mechanism to anything you see in real patients – such as altered fatigue thresholds, circadian disruption, autonomic instability or sensitivity to light?
Common sense: Is what you are reading making sense? Is it dangerous and would an intervention cause harm? For instance the use of blue light screen protectors on phones is unlikely to have a randomised controlled trail for efficacy, but this intervention is unlikely to cause harm.
This keeps quantum biology anchored to your daily reality, rather than floating off into pure speculation.
A simple metaphor that you can reuse in clinic
Classical biology is like reading the musical score of a symphony, the notes, bars and instruments. Quantum biology is how the orchestra actually plays in the concert hall with tuning, acoustics, harmonics, and how sound waves interact in real time. Both views describe the same piece of music, but they answer different questions.
For people working in clinical practice, the invitation is not to abandon learned pathways, but to add this deeper layer as a way of understanding why some interventions work, why some patients are so exquisitely sensitive, and why environment (light, fields, timing) matters more than we were taught.
Over the coming weeks, I’ll unpack how these ideas show up in mitochondria, biophotons, circadian timing and the gut–brain axis, with clinical tools you can actually use.
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