Synchronized magnetic field pulses and shielding steer secondary electrons away from normal tissue while cutting heat, energy use, and leakage.
Ferromagnetic core and reflector plates focus magnetic pulses into tissue while cooling limits heat, cuts losses, and improves handling.
Pulsed, frequency-modulated weak magnetic fields help simplify treatment settings while improving mitophagy and mitochondrial function.
Individually charged EMMC modules shape electromagnetic pulse waveforms precisely while cutting power demand, waste heat, and hardware size.
Dual DACs, differential amplification, and attenuation correct gain and offset errors to deliver precise low-level magnetic fields.
Correction factors, DACs, and a differential amplifier compensate gain and offset errors to deliver precise low-level magnetic fields.
External magnetic fields drive embedded particles to create complex, real-time strain patterns in cultured biological materials without invasive contact.
Multiple coil groups superimpose magnetic fields to reach deep brain regions non-invasively while enabling adjustable targeting and safety monitoring.
Magnetic spinal cord stimulation induces neural currents to restore locomotion and voluntary bladder or bowel control without invasive implants.
A glasses-like frame combines photobiomodulation and pulsed electromagnetic therapy to bring frequent macular degeneration treatment home.
A time-varying magnetic field induces tissue-independent charge in muscle to improve toning while reducing nerve stimulation and discomfort.
Reverse-polarity disconnection in a capacitor-bank LC coil circuit cuts resistor and diode losses, enabling faster charging and higher pulse rates.
Local high-power generation in each PEMF applicator reduces leakage from the base housing while preserving treatment power at the coil.
Real-time cell monitoring adjusts field frequency and intensity, addressing fixed-parameter treatment limits for tumor samples.
A gateway and cloud AI model monitor biosignals and regenerate stimulation signals for personalized, non-surgical vagus nerve treatment.
This PEMF applicator architecture converts low-power control signals locally, using shielding to limit leakage and reduce transmission loss.
A non-invasive stimulator uses remote electrodes and a conducting medium to shape electric fields for vagus nerve activation.
A controllable pulse parameter transcranial magnetic stimulation system generates rectangular electric field pulses using dynamic RC circuit switching.