A surgical forceps comprising: a first working arm and a second working arm configured to move towards and away from each other; and an electromagnetic latching system; wherein the electromagnetic latching system is configured to create a force that is in a direction aligned with closing of the forceps or opposite to the closing of the forceps when an electromagnetic activation button is depressed.

The present invention relates to an RF treatment apparatus including micro needles, a method of controlling the same, and a treatment method using the same according to the present invention have effects in that they can prevent damage to a tissue and perform optimized treatment because RF energy can be adjusted and applied based on a current-carrying area that belongs to a portion of the micro needles and that has been inserted into a tissue.

An electrosurgical system including an electrosurgical generator and an adapter connected to the electrosurgical generator. The adapter is configured to selectively transmit one or more energy outputs from the electrosurgical generator to an end effect device. At least one of the electrosurgical generator and the adapter are configured to be controlled by one or more control device. An electrosurgical system can include a control device connected to an electrosurgical generator. The control device can be configured to selectively transmit control instructions to the electrosurgical generator. The control device can be configured to receive a control signal from a user. An electrosurgical apparatus can include a pair of blades configured to deliver at least mechanical and electrical energy to tissue. Each blade can include a portion configured to protrude to the other side of a central plane. An electrosurgical apparatus can include a first tip comprising a first tip central plane and a second tip comprising a second tip central plane, wherein the electrosurgical apparatus has a first configuration wherein the first and second tips operate as forceps, and wherein the electrosurgical apparatus has a second configuration wherein the first and second tips operate as scissors. The electrosurgical apparatus can have restricted movement in the forceps configuration and limited shearing movement in the scissors configuration.

Disclosed herein is a system for treating skin and/or nails with cold plasma. The system includes a discharge device, which includes a handle and an applicator mounted thereon, and control infrastructure, which includes a waveform generator. The applicator includes an elongated tube housing therein a cathode. The handle includes a flyback amplifier. The waveform generator is configured to induce the flyback amplifier to establish a voltage at the cathode. The voltage produced by the flyback amplifier is configured to generate a self-sustaining Townsend avalanche when a distal end of the tube is positioned sufficiently near a target site on a skin surface or a nail of a subject, such that a cold plasma discharge is produced and directed at the target site and having an average power between about 0.1 .Math.W and about 10 .Math.W, so that the target site is not heated.

A surgical instrument comprising a waveguide, an end effector, and an electrical switch is disclosed. The waveguide comprises a proximal end and a distal end, wherein the proximal end is configured to couple to an ultrasonic transducer and one output of a radio frequency (RF) generator. The end effector may comprise an ultrasonic blade and a clamp arm. The ultrasonic blade is mechanically coupled to the distal end of the waveguide and electrically coupled to the waveguide. The clamp arm comprises a movable jaw member electrically coupled to another output of the RF generator. The electrical switch is operable to cause the surgical instrument to deliver electrical current from the RF generator to the movable jaw member for a first period, and to cause the surgical instrument to deliver ultrasonic energy to the ultrasonic blade for a second period.

The present teachings provide for a device with a membrane and an underlying switch, an underlying switch actuator, or both that has a unique tactile pattern that is felt through the membrane when the membrane is aligned with the switch, switch actuator, or both, corresponding to the electrical state of the device. The membrane, the switch, the switch actuator or a combination thereof can be repositioned from a first position to a second position so that a different tactile feel is present through the membrane corresponding to a second electrical state.

The present invention provides an electrosurgical generator and an electrosurgical system with variable frequency output. The electrosurgical system with variable frequency output comprises: high frequency electrosurgical instruments and an ultrasonic surgical instrument and the electrosurgical generator, wherein the high frequency electrosurgical instruments and the ultrasonic surgical instrument share one energy output interface or respectively use different energy output interfaces. An energy switching system is further arranged in the electrosurgical generator, can switch an output energy type at any time according to needs, so as to avoid frequent changes of the surgical instruments.

A method of treating tissue of a patient uses a device including a mother case, a belt, at least one treatment unit and at least two applicators. The treatment method may include attaching first and second applicators to the belt at a working distance to the patient's surface, and providing different treatment energy to the first applicator and the second applicator. A treatment pattern is created by the applicators providing the different treatment energies. The hardware pattern or positions of the applicators on the belt may be changed before and/or during the treatment. The hardware pattern may be based on selected treatment effect and body part.

A forceps includes an end effector assembly having first and second jaw members. One (or both) of the jaw members is moveable relative to the other between a spaced-apart position and an approximated position for grasping tissue therebetween. One (or both) of the jaw members includes an opposed jaw surface having an electrically-conductive tissue sealing plate disposed thereon. The electrically-conductive tissue sealing plate includes a first portion configured to conduct energy through tissue grasped between the jaw members to create a main tissue seal and a second portion including a plurality of spaced-apart fingers extending from the first portion. The second portion is configured to conduct energy through tissue grasped between the jaw members to create an auxiliary tissue seal extending from the main tissue seal for reducing stress concentrations adjacent the main tissue seal.

A surgical instrument comprises a shaft assembly comprising a shaft and an end effector coupled to a distal end of the shaft; a handle assembly coupled to a proximal end of the shaft; a battery assembly coupled to the handle assembly; a radio frequency (RF) energy output powered by the battery assembly and configured to apply RF energy to a tissue; an ultrasonic energy output powered by the battery assembly and configured to apply ultrasonic energy to the tissue; and a controller configured to, based at least in part on a measured tissue characteristic, start application of RF energy by the RF energy output or application of ultrasonic energy by the ultrasonic energy output at a first time.