Combating Pain and Inflammation Utilizing Bioelectric Mechanisms
“Chronic pain often becomes a loop that keeps re-triggering itself. If you can see the loop, you can think about interrupting it.”
— Nev Zubcevik, DO, Co-founder & Chief Medical Officer
Pain is usually described in the language of chemistry — receptors, transmitters, inflammatory mediators. All true. But underneath the chemistry is an electrical reality: pain is an event in a circuit. It rides on altered membrane potentials and the behavior of ion channels, and in chronic states it can settle into self-perpetuating loops that keep firing long after the original injury has healed. Once you see pain as a circuit problem, a different class of intervention becomes thinkable.
Bioelectric modulation works on that circuit directly. The basic move is to deliver measured electrical pulses that can be tuned to a person's physiology rather than applied as a fixed recipe. The more sophisticated move is closed-loop control: sensors read the body's real-time response, and the device adjusts its output to match — the difference between playing a recording and playing along with a live musician.
Out of the clinic, into daily life
One of the most consequential shifts is where this happens. Wearable and wireless devices are increasingly used for conditions like back pain, arthritis, migraine, sciatica, neuropathies, and fibromyalgia. That portability supports something patients consistently ask for: the ability to self-manage at home, on their own schedule, without organizing life around clinic appointments. For a chronic condition, convenience is not a frill — it is often what determines whether a therapy is actually used.
A close-up view of nerve fibers. Inflammation as an electrical system
Inflammation, the frequent companion of chronic pain, is also electrically governed. The body has built-in anti-inflammatory circuitry, and approaches such as vagus nerve stimulation are being studied as ways to engage those endogenous pathways. The engineering goal is not to override the system but to coax it toward its own regulatory setpoint.
“What excites me clinically is precision: targeting the signal at its source rather than blanketing the whole system.”
— Samir Awad, MD, Medical Director
I will not pretend this is purely a technical story. Adoption is shaped by economics and society — by the search for alternatives to opioids and by the stubborn gap in access between urban centers and rural communities. A device that is effective but unreachable solves nothing.
Electrome's contribution is the adaptive, cloud-connected layer that ties these pieces together — an ecosystem where clinical insight, engineering, and AI-driven discovery reinforce one another, so that a therapy can keep getting better the more it is used.
An electrode placed on the skin during therapy.