Highly multimode UV laser pulses raise fiber damage threshold, enabling efficient tissue ablation with less thermal injury.
355 nm picosecond pulses and a hybrid fiber catheter raise ablation energy while limiting fiber damage and vessel wall injury.
Multiple short UV laser pulses and beam homogenization raise fiber energy density for selective tissue ablation while limiting vessel wall damage.
Angled tool heads at 60° and 150° improve skull base access while reducing instrument changes, surgery time, and error risk.
A folded porous wire electrode is injected in compact form, then assimilates with tissue to reduce irritation, scarring, and loss of efficacy.
Ultra-thin coated wire electrodes inject precisely, avoid particle dispersion, and integrate with tissue to reduce irritation and support chronic energy delivery.
Elastic engagement members deployed by catheter lift tissue to clear obstruction, improve visualization, and shorten lesion dissection time.
Tactile feedback guides carpal tunnel release without a camera or tourniquet, enabling precise office-based treatment under local anesthesia.
A hinged conductive instrument keeps the handle insulated and the tip conductive to avoid insulation wear while preserving precise monopolar nerve signals.