Heated glow blade cuts tissue at controlled temperatures, eliminating high-voltage hazards and reducing carbon buildup.
Cold plasma probe triggers TRAIL-R1 expression to induce apoptosis, avoiding thermal damage to normal tissue during tumor ablation.
Adjustable electrode spacing in single lumen forceps controls energy delivery to prevent collateral tissue damage during neurosurgery.
An electrosurgical instrument uses a switching mechanism to direct radio frequency energy between distinct return electrodes for tissue modification.
Moveable hook-shaped electrode enables switching between surface ablation and cutting, eliminating tool exchanges during minimally invasive procedures.
Segmented electrodes energized at different potentials disrupt neural function while limiting thermal damage to surrounding tissue.
Flexible return electrode pad doped with positive temperature coefficient thermistor material increases electrical resistance at elevated temperatures.
A heat-shrinkable cover sheath prevents radial expansion of a rotating conductive stranded wire, eliminating flux residue cleaning.
Selective harmonic elimination modulation reduces high-frequency harmonics in electrosurgical generator RF waveforms.
A non-conductive cable housing encloses voltage and current sensors to provide real-time electrical measurement feedback for electrosurgical instruments.
Segmented energy delivery elements create adjustable apertures in cardiac ablation catheters to shape electric fields.
A preservative fluid delivery system sprays cooling fluid onto a harvested blood vessel immediately after cauterization.
Segmented superelastic metal wires enable the flexible shaft to bend freely while maintaining structural strength for minimally invasive procedures.
A dual-mode LLETZ device uses movable arms to switch between wire loop electrocautery and argon plasma coagulation.
Single rotatable actuating element decouples and recouples gripping and cutting devices via a toggle lever, eliminating separate controls.
Cable assembly links general-purpose generators to bipolar devices, enabling efficient tissue vaporization and cutting.
A snap-on mounting system secures a movable jaw arrangement to a receiving frame, reducing assembly complexity and short circuit risks.
Applying radio frequency current increases cross-linking density within vascular blockages, preventing fragmentation during mechanical removal.
A probe with a protruding temperature sensor measures body cavity heat during ablation.
A segmented RF probe shaft combines stiff proximal and flexible distal sections to resolve the trade-off between shaft strength and ease of bending.
A cartilage treatment probe uses a flexible tip to bias an insulated electrode against tissue for precise surface debridement.
Switching assembly short-circuits electrode groups to create combined electrodes, reducing Joule heating while achieving deep tissue penetration.
Active cooling through the balloon wall prevents thermal damage while expanding the radiofrequency energy field for deeper nerve destruction.
Nonconductive ablation device combines resection and coagulation functions to prevent fluid accumulation while maintaining high tissue removal efficiency.
A multi-pole phase-shifted RF generator drives dual-pole circuits to deliver precise electrosurgical energy.
An expandable ablation catheter balloon delivers high-energy RF to cardiac tissue.
Translational jaw motion distributes gripping forces evenly, preventing proximal tissue damage and distal feature displacement.
Parallel pivoting electrodes confine bipolar energy to the inter-electrode space, preventing collateral tissue damage during haemostasis.
Welded seal plates on electrosurgical end effectors enable independent knife blade translation through dedicated slots.
A bipolar endoscopic forceps uses a four-bar linkage to maintain optimal closure pressure during tissue grasping.
A handle-actuated expandable snare captures tissue using insulated filaments, reducing device complexity and short circuit risks.