Electric Immunity

“Not all electromagnetic energy is the same. The kind we study is low-frequency and non-ionizing — a gentle nudge, not radiation.”

— Nev Zubcevik, DO, Co-founder & Chief Medical Officer

Whenever I talk about electromagnetic fields in medicine, the first job is to clear up a confusion that the word “radiation” invites. There is a crucial difference between low-frequency, non-ionizing pulsed electromagnetic fields and the ionizing sources people rightly worry about, such as X-rays. Ionizing energy carries enough force to damage DNA directly. The low-frequency fields studied in bioelectric medicine do not; they operate in a gentler regime, interacting with the body's signaling rather than tearing at its molecules.

With that distinction in place, the more interesting ideas become approachable.

An electrical lens on cancer and infection

One line of thinking holds that cancer cells can be electrically disordered — often sitting at a lower membrane potential than healthy cells. If a cell's electrical state is part of what keeps it behaving, then disordered electrical states may be part of the story of disordered growth. Proposed mechanisms point to voltage-gated ion channels and to the broader notion of restoring healthier electrical signaling. I present these as hypotheses under study, because that is what they are.

An immune white blood cell. A parallel line concerns infection. Early research suggests PEMF may help disrupt bacterial biofilms — the protective communities that make bacteria so hard to clear. That is directly relevant to antibiotic resistance and to stubborn conditions such as Lyme disease, where biofilms are part of why treatment can be so difficult.

“Immunity is orchestration, not brute force. Studying its electrical cues helps us appreciate how finely tuned that orchestra really is.”

— Samir Awad, MD, Medical Director

Immunity as orchestration

The framing I find most clarifying is to think of immunity as orchestration rather than brute force. Health depends on countless cellular processes staying in time with one another, and fields, voltage, and rhythm are part of how that coordination happens. A bioelectric paradigm asks whether supporting that rhythm can support health.

None of this replaces the questions science still has to answer about how restoring electrical signaling actually influences tumor microenvironments or bacterial biofilms. But it broadens how we think about disease — and at Electrome, exploring fields-as-medicine is exactly the kind of long-horizon work we believe is worth doing carefully.

Inside an immunology research laboratory.