Healthcare
A body is sealed too — the same trick that reads a pipeline from the outside turns out to read, and reach, tissue no scalpel needs to touch.
A tumour hidden behind bone and tissue. A dividing cell no scalpel can be aimed at without damaging everything around it. Medicine has always paid a price to look inside the body — ionising radiation, contrast dye, a biopsy needle — and paid a second price to treat what it found there, since chemotherapy and radiotherapy can't tell a cancer cell from a healthy one nearly as well as anyone would like.
The same electric-field trick that reads a sealed vessel from the outside turns out to work on the body too: biological tissue holds and bends a capacitive field in patterns that encode what's inside it, the same way gas, liquid, and solid do inside a pipe. Applied to the brain and the breast, that gave a radiation-free way to see structure. A second, unplanned finding followed from watching how these fields behave in living cells at low frequency — a selective effect on cells caught in the act of dividing. Cancer cells divide relentlessly, which makes them more exposed to that field than the healthy tissue around them. One physics, two very different uses: seeing, and now treating.
ECVT Healthcare System — Reading tissue by its electrical activity
An MRI shows you shape. A PET scan shows you metabolism, at the cost of a radioactive tracer. Neither reads a simpler signal that's been sitting there the whole time: healthy cells, cysts, benign tumours, and malignant cancers each carry distinct dielectric properties and electrical polarities, and a capacitive field passing through tells them apart by how they behave, not just how they look. The same 32-channel measurement core used for industrial process imaging is retuned here for biological tissue, powering two clinical instruments.
The first is the world's first ECVT brain scanner — a 4D read on cortical and intracranial electrical activity, localising charge accumulation linked to tumours in either hemisphere and rendering volumetric reconstructions frame by frame, supporting detection of tumours, epilepsy, and Alzheimer's-related dysfunction. The second differentiates malignant cancer, benign tumour, cyst, and normal breast tissue by the same dielectric read — its electrical activity correlates with FDG uptake from PET-CT and tracks disease against MRI, without the radiation dose either comparison usually costs.
ECCT — Disrupting division from outside the body
Once you can see a tumour this way, the next question is whether the same field can do more than look. During cell division, a splitting cell is highly polarised — more exposed to an electric field than the resting tissue around it. Capacitance electrodes embedded in wearable apparel generate a modulated sub-300 kHz field around the tumour, no incision, no current passing into the body; the field interferes with the charged protein structures forming the mitotic spindle, preferentially disrupting the faster-dividing, differently-polarised cancer cells while normal tissue is largely unaffected. Ethical clearance was granted in 2012, and clinically, Akayama's Japan-based programme and Kaplan's oncology research together cover more than 5,000 patients across glioblastoma, breast, liver, and cervical cancers — including advanced lung cancer cases where ECCT improved survival by 600–800% alongside standard therapy in a study presented at GLOBEHEAL 2026.
Delivering that therapy safely is its own operation: the Cancer Therapy Lab runs ECCT under direct physician oversight for the roughly 37% of patients combining it with ongoing chemotherapy or radiotherapy, and Wearables Manufacture builds the electrode garments in-house, audited against ISO 13485.
Clinical use is reported through physician-supervised programmes; independent, large-scale trials confirming these outcomes are still ongoing.
ECBS — From disrupting cells to supporting them
If a low-frequency field can interrupt a dividing cancer cell, the natural next question is what the same physics does to a healthy one.
Recalibrated in frequency and intensity — ⅛ Hz to 2.5 kHz, under 50 Vpp, against ECCT's sub-300 kHz range — the field stops disrupting division and starts interacting with ordinary membrane behaviour and cellular signalling instead, supporting recovery and exertion rather than working against them. ECBS puts that principle to work through capacitive coupling rather than direct electrical stimulation: pulses induce polarisation at body and organ surfaces, straining muscle gently and pulling blood cells toward the body's farthest reaches without raising blood pressure.
Where EMS passes current directly into the body through skin-contact electrodes above 70V, ECBS couples capacitively through regular clothes at under 50V, with no current entering the body at all — trading faster muscle building for comfortable, longer daily wear. Worn 8–12 hours a day, five days a week, roughly 1% body fat converts every 1–2 weeks in the first three months, then every 1–2 months after, net of what the body takes back in.
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