Chronic pain affects hundreds of millions of people worldwide, and one of the most frustrating questions remains: why do some pain signals fade naturally, while others linger for months or even years? A new neuroscience discovery offers a compelling partial answer — and it's both surprising and encouraging.

A Network of Neurons That Balances Pain Against Survival

Researchers have pinpointed a specific group of brain cells — neurons carrying the Y1 receptor — that act like a neural switchboard. Their job is to weigh pain against other urgent biological needs, such as hunger or fear.

When the body detects a survival threat, these neurons can effectively mute chronic pain signals. The evolutionary logic is straightforward: if you need to flee danger, your brain cannot afford to be paralysed by persistent pain.

This newly discovered mechanism may partly explain why chronic pain often fluctuates with emotional state, stress levels, or perceived safety — something many patients intuitively sense but can rarely articulate.

What This Means for Understanding Chronic Pain

This discovery reinforces something I observe every day in my osteopathic practice: pain is not purely a matter of damaged tissue. The brain actively modulates how strongly it amplifies or dampens pain signals.

Y1 neurons appear to work as an adjustable filter. When the environment feels safe and basic needs are met, these cells can reduce perceived pain intensity. Conversely, chronic stress or a persistent sense of threat may prevent them from performing this protective role.

This aligns with research on the autonomic nervous system: a body locked in a state of constant alert produces more pain, regardless of the physical damage present.

The Connection to Osteopathy and Nervous System Regulation

Osteopathy is not only about joints and muscles. A significant part of my work involves acting on the autonomic nervous system — the system that governs whether your body is in a state of alert or recovery.

Techniques such as craniosacral osteopathy, gentle mobilisations, and fascial work aim precisely to shift the nervous system from a state of tension (activated sympathetic system) toward a state of healing (parasympathetic dominance).

If Y1 neurons truly act as chronic pain modulators, then anything that helps the body feel safe — therapeutic touch, deep breathing, improved postural balance — may actively support this natural pain-extinction process.

Toward Personalised Treatments Targeting the Brain

Research on Y1 neurons opens the door to far more targeted therapies than current pain medications, which typically act broadly and carry significant side effects.

The goal would be to selectively stimulate these neurons — or remove the blocks preventing them from functioning — to deliver lasting relief without dependence or adverse effects.

We are not yet there clinically, but this direction confirms what manual therapies and mind-body approaches have long argued: the brain is a central actor in pain processing, not merely a passive receiver.

What I Take Away for My Practice

Every chronic pain patient I see in Tel Aviv carries a brain that is, in its own way, trying to manage signals that have stopped switching off. My role is not only to treat the painful areas, but to help the global nervous system return to a state in which pain can naturally diminish.

If you are living with chronic pain — in your back, joints, or muscles — and feel like you've tried everything, an osteopathic approach centred on nervous system regulation may make a real difference.

Feel free to reach out and book a consultation in Tel Aviv. Together, we can explore what your body needs to find its balance again.