Abstract: A medical device sterile barrier system that is easier for surgical personnel to use by allowing easier opening and removal of the medical device from the sterile packaging, includes a sterile bag within which a medical device is held secure via a removable holster, the holster being fashioned with a hinge feature such that the holster has a clamshell arrangement and folds in half along the hinge feature to clamp the medical device parts in place between the two halves of the clamshell. To remove the medical device the holster is simply unfolded about the hinge feature to reveal the parts of the device, which can then be lifted out of the holster and assembled in the usual way. There are thus no polymer tab features forming part of the holster and interacting with the device to secure it in place that need removal before the device can be used.

Abstract: An electrosurgery device can include a return electrode, an active electrode including a hydrophobic or superhydrophobic surface configured to retain a portion of gas from a vapor pocket hereon when the active electrode is in a conductive liquid solution and the active electrode has transitioned into an inactive state, and an electrically insulating material situated between the active and return electrodes.

Abstract: A system for imaging and treating tissue can include or use an imaging sensor adapted to receive imaging information from a location internal to a human or animal subject, a tissue therapy output for applying a tissue therapy to tissue at the location internal to the subject, and controller circuitry, comprising signal-processing circuitry configured for image-processing the imaging information to determine a structure or other characteristic at or near the location internal to the subject, and to tailor a parameter or algorithm, controlling the tissue therapy output, at least in part based on the imaging information.

Abstract: An electrosurgical instrument includes a jaw member having an electrically conductive tissue sealing plate configured to operably couple to a source of electrosurgical energy for treating tissue. A liquidphobic structure is added to at least a portion of the electrically conductive sealing plate to reduce tissue adherence during application of electrical energy to tissue.

Abstract: A laser system, laser fibers, and associated methods are disclosed. In one example, the devices include a hydrophobic coating with a hydrophobic nanoscale physical structure.

Abstract: A medical device and associated methods are disclosed. In one example, the medical device includes a hydrophobic coating with a hydrophobic nanoscale physical structure.

Abstract: A surgical instrument is configured to consist of two separable parts. The first part includes a disposable end effector unit, including an electrosurgical end effector and mechanical drive componentry. The second part includes a reusable electronics unit, containing the RF electronic circuitry of the instrument. A user-releasable complementary interface is provided on each part, allowing the parts to be connected in use. Providing a division of components in this manner improves the sterility of the device, providing easier cleaning of the reusable part of the instrument.

Abstract: This document describes an end effector assembly of a medical device. The end effector assembly can include a jaw assembly including a first jaw member and an opposing second jaw member that can be pivotably coupled to the first jaw member at a fulcrum. The jaw assembly can be movable between a first position and a second position. An electrode can be arranged on an inner surface of the first jaw member or the second jaw member. The electrode can include a plurality of segments, such as can be arranged to be sequentially extending outward in a row away from the fulcrum. The segments can be spaced-apart from each other and individually deformable.

Abstract: Electrosurgical devices are shown with a coated electrode. Electrosurgical devices and methods of use are shown to provide a higher concentration of energy at different resistance regions within a coating. Electrosurgical devices and methods of use are also shown to utilize heat in an electrode contained by a thermally insulative coating to provide a second tissue modification.

Abstract: An electrosurgical generator configured to generate electrical energy to be applied to biological tissue via electrical communication with an electrosurgical instrument, the electrosurgical generator including a power source configured to activate to output the electrical energy to the electrosurgical instrument, a measurement circuit configured to measure a resistive value associated with an erodible coating deposited on a portion of the electrosurgical instrument, and a control circuit configured to compare a measured resistive value of the erodible coating to a threshold resistive value of the coating, and control activation of the power source based on the comparison between the measured resistive value and the threshold resistive value.

Abstract: Electrosurgical devices are shown with a coated electrode. Electrosurgical devices and methods of use are shown to apply a consistent delta of energy to a tissue, in contrast to merely applying energy until an ending value is reached. Electrosurgical devices and methods of use are shown to meet the challenges of applying a consistent delta of energy by adjusting a baseline value.

Abstract: Various embodiments disclosed relate to a non-stick layer for insulative elements on electrosurgical cutting tools. The present disclosure includes systems, devices, and methods of making and using a non-stick layer on insulative element. The non-stick layer can include coatings, surface structures, or combinations thereof.

Abstract: Various embodiments disclosed relate to a non-stick layer for cutting elements on electrosurgical cutting tools. The present disclosure includes systems, devices, and methods of making and using a non-stick layer on cutting elements. The non-stick layer can include coatings, surface structures, or combinations thereof. In one example, the medical device includes a hydrophobic coating with a hydrophobic nanoscale physical structure. In one example, the medical device includes a heated cutting assembly, such as a resistive heated cutting assembly.

Abstract: Various aspects of the present disclosure provide a medical device. The medical device includes a substrate. The medical device further includes a substantially transparent or translucent anti-stick coating disposed on a surface of the substrate. The anti-stick coating includes one or more fluorophores internally distributed in the anti-stick coating.

Abstract: A medical device and associated methods are disclosed. In one example, the medical device includes an endoscope lens. In one example, the medical device includes a regular periodic physical structure. Examples of regular periodic physical structure may be formed from a bulk material of a component such as a lens, or a regular periodic physical structure may be formed as a coating.

Abstract: An electrosurgical instrument includes a jaw member having an electrically conductive tissue sealing plate configured to operably couple to a source of electrosurgical energy for treating tissue. A non-stick coating formed front a liquidphobic structure is deposited to at least a portion of the electrically conductive sealing plate to reduce tissue adherence during application of electrical energy to tissue.

Abstract: A surgical device and associated methods are disclosed. In one example, the surgical device includes tungsten disulfide covering all or a portion of a component.

Abstract: A method of removing an appendix (9) includes the steps of accessing the abdomen of a patient, insufflating the abdominal cavity, and sealing and cutting the appendicular artery and vein. A sheath is introduced into the abdominal cavity and placed over the appendix, while the appendix is still attached to the colon. The sheath is secured the sheath in place over the appendix using a securing device to secure the sheath with respect to the proximal end of the appendix, and then the proximal end of the appendix is ligated. The appendix is dissected from the colon, and the sheath containing the appendix is removed from the abdomen of the patient. The procedure can be a NOTES procedure, using a natural orifice, or laparoscopic using one or more incisions created in the abdomen. The ligation and dissection can be performed within the abdomen, or after the appendix is pulled through one of the incisions, such that the ligation and/or dissection is carried out outside the abdomen.

Abstract: A method of removing an appendix (9) includes the steps of accessing the abdomen of a patient, insufflating the abdominal cavity, and sealing and cutting the appendicular artery and vein. A sheath is introduced into the abdominal cavity and placed over the appendix, while the appendix is still attached to the colon. The sheath is secured the sheath in place over the appendix using a securing device to secure the sheath with respect to the proximal end of the appendix, and then the proximal end of the appendix is ligated. The appendix is dissected from the colon, and the sheath containing the appendix is removed from the abdomen of the patient. The procedure can be a NOTES procedure, using a natural orifice, or laparoscopic using one or more incisions created in the abdomen. The ligation and dissection can be performed within the abdomen, or after the appendix is pulled through one of the incisions, such that the ligation and/or dissection is carried out outside the abdomen.

Abstract: An electrosurgical system includes an electrosurgical generator and an electrosurgical instrument with opposing first and second jaw members movable relative to one another between open and closed positions. The first and second jaw member include, respectively, a cutting electrode and at least a first sealing electrode separated therefrom by an insulating member, and at least a second sealing electrode. The generator includes an energy source for producing at least a cutting RF waveform, first, second and third output connections connected to the cutting electrode, first sealing electrode and second sealing electrode, respectively, and a switching circuit rapidly alternating between a first condition to direct the cutting RF waveform between the first and second output connections and hence the cutting and first sealing electrodes, and a second condition to direct the cutting RF waveform between the first and third output connections, and hence the cutting and second sealing electrodes.