High-frequency magnetic field therapy that reaches where other treatments can't — deep into joints, tendons, and tissue to reduce pain, accelerate healing, and restore function. No contact. No drugs. No downtime.
Extracorporeal Magnetotransduction Therapy — EMTT — is an advanced, non-invasive treatment that delivers high-energy magnetic pulses deep into damaged tissue. Originally developed in Germany and now used across leading orthopedic, sports medicine, and regenerative clinics worldwide, it represents a significant leap beyond conventional magnetic therapies.
Where standard PEMF therapy operates at low frequencies and shallow depths, EMTT works at up to 300 kHz and 150 millitesla — enabling it to reach structures like the hip joint, spine, deep tendon attachments, and cartilage that other electromagnetic devices simply cannot access.
At the cellular level, EMTT enhances ion exchange, boosts ATP production (cellular energy), improves microcirculation, and triggers the body's own tissue repair pathways — all without heat, needles, or contact with the skin.
EMTT sessions at SoliVana are unhurried, comfortable, and fully clothed. There is nothing to prepare, no gel or skin contact involved, and no recovery time required afterward.
Most clients report little to no sensation during treatment — occasionally a mild warmth or gentle pulsing at the treatment site. Some notice immediate relief; for deeper or chronic conditions, results typically build over a series of sessions.
For optimal outcomes, a protocol of 4–8 sessions is generally recommended, spaced 1–3 days apart. EMTT pairs exceptionally well with float therapy (for systemic nervous system recovery) and Fire & Ice contrast therapy (for circulation enhancement).
EMTT is an emerging field with a growing body of peer-reviewed research. Below are representative findings from published clinical studies.
Most of our EMTT clients have tried everything else. No contact. No needles. No recovery time. Just deep magnetic energy working at the cellular level — where healing actually starts.