Abstract: A surgical instrument is disclosed herein. The surgical instrument can include an end effector that includes jaws configured to transition between an opened condition and a closed condition, a plurality of electrodes positioned within the jaws of the end effector, a control circuit, and a memory configured to store an algorithm configured to cause the control circuit to determine an impedance signal based on signals received from the plurality of electrodes, detect a media positioned between the jaws of the end effector based on the determined impedance signal, determine a position of the detected media based on the received signals, and generate an alert associated with the detected media and the determined position.

Abstract: A surgical instrument is disclosed herein. The surgical instrument can include an end effector comprising a first jaw and a second jaw, a plurality of electrodes positioned within the jaws of the end effector, a flexible circuit comprising a conductive track configured for multiplexed transmission of a plurality of signals to and from the end effector, a control circuit communicably coupled to the plurality of electrodes via the flexible conductor, and a memory configured to store an algorithm configured to cause the control circuit to: receive signals from the plurality of electrodes; determine an impedance based on the signals received from the plurality of electrodes; detect a media positioned between the jaws of the end effector based on the impedance; determine a position of the detected media along the longitudinal axis based on the received signals; and generate an alert associated with the detected media and the determined position.

Abstract: The present disclosure describes endoscope assemblies or catheter assemblies including two or more exits ports and navigation systems associated therewith.

Abstract: The present disclosure describes a sleeve having a helical design on at least a distal end portion thereof. The sleeve configured to be used with an endoscope and/or catheter.

Abstract: The present disclosure describes endoluminal shafts including a tubular body, a finger extending therefrom and an ultrasound transducer, and navigation systems associated therewith.

Abstract: Disclosed herein is an implantable accommodative IOL system for insertion into an eye of a patient, the system comprising: an optical element and a housing including an opaque frame. The optical element comprises an optical lens having variable optical power, and the opaque frame is circumferentially disposed around a periphery of the optical element.

Abstract: A method of assembling an adjustable fluid-filled lens assembly comprising biaxially tensioning an elastomeric membrane to a surface tension of greater than 180 N/m, typically greater than 1000 N/m; thermally conditioning the tensioned membrane, e.g., for one hour at a temperature of about 80° C., to accelerate relaxation of the membrane; mounting the membrane to a peripheral support structure whilst maintaining the tension in the membrane; assembling the mounted membrane with one or more other components to form an enclosure with the membrane forming one wall of the enclosure; and thereafter filling the enclosure with a fluid. The membrane may be formed from an aromatic polyurethane, and the fluid may be a phenylated siloxane. In some embodiments, the membrane is able to hold a substantially constant surface tension of at least 180 N/m for a period of at least 12 months.

Abstract: A method of assembling an adjustable fluid-filled lens assembly comprising biaxially tensioning an elastomeric membrane to a surface tension of greater than 180 N/m, typically greater than 1000 N/m; thermally conditioning the tensioned membrane, e.g., for one hour at a temperature of about 80° C., to accelerate relaxation of the membrane; mounting the membrane to a peripheral support structure whilst maintaining the tension in the membrane; assembling the mounted membrane with one or more other components to form an enclosure with the membrane forming one wall of the enclosure; and thereafter filling the enclosure with a fluid. The membrane may be formed from an aromatic polyurethane, and the fluid may be a phenylated siloxane. In some embodiments, the membrane is able to hold a substantially constant surface tension of at least 180 N/m for a period of at least 12 months.

Abstract: The present invention relates to a method for the deformation and/or fragmentation of a cell, spore or virus, the method comprising: (i) bringing a liquid sample containing the cell, spore or virus into contact with a first surface of a vibratable plate having at least one aperture, and causing the plate to vibrate; and (ii) passing the sample of the cell, spore or virus through the at least one aperture in the vibrating plate so as to cause deformation and/or fragmentation of the cell, spore or virus. It also concerns a device for carrying out the method.

Abstract: A method of assembling an adjustable fluid-filled lens assembly comprising biaxially tensioning an elastomeric membrane to a surface tension of greater than 180 N/m, typically greater than 1000 N/m; thermally conditioning the tensioned membrane, e.g., for one hour at a temperature of about 80° C., to accelerate relaxation of the membrane; mounting the membrane to a peripheral support structure whilst maintaining the tension in the membrane; assembling the mounted membrane with one or more other components to form an enclosure with the membrane forming one wall of the enclosure; and thereafter filling the enclosure with a fluid. The membrane may be formed from an aromatic polyurethane, and the fluid may be a phenylated siloxane. In some embodiments, the membrane is able to hold a substantially constant surface tension of at least 180 N/m for a period of at least 12 months.

Abstract: Disclosed herein is an implantable accommodative IOL system for insertion into an eye of a patient, the system comprising: an optical element and a housing including an opaque frame. The optical element comprises an optical lens having variable optical power, and the opaque frame is circumferentially disposed around a periphery of the optical element.

Abstract: The present invention relates to a method for the deformation and/or fragmentation of a cell, spore or virus, the method comprising: (i) bringing a liquid sample containing the cell, spore or virus into contact with a first surface of a vibratable plate having at least one aperture, and causing the plate to vibrate; and (ii) passing the sample of the cell, spore or virus through the at least one aperture in the vibrating plate so as to cause deformation and/or fragmentation of the cell, spore or virus. It also concerns a device for carrying out the method.

Abstract: A coating with antimicrobial agents for use with medical devices. In one approach, a related method involves coating high temperature vulcanized silicone material with a room temperature vulcanized dispersion.

Abstract: A coating with antimicrobial agents for use with medical devices. In one approach, a related method involves coating high temperature vulcanized silicone material with a room temperature vulcanized dispersion.

Abstract: A coating with antimicrobial agents for use with medical devices. In one approach, a related method involves coating high temperature vulcanized silicone material with a room temperature vulcanized dispersion.

Abstract: A coating with antimicrobial agents for use with medical devices. In one approach, a related method involves coating high temperature vulcanized silicone material with a room temperature vulcanized dispersion.

Abstract: A method and system are disclosed for recognizing tissue types. Electrical signals are applied to tissue 120 via electrodes 110, 112. Circuitry 106 and the signal processor 116 are used to measure impedance magnitude and phase at a plurality of frequencies. At least the phase information at the plurality of frequencies is compared with phase information of known tissue types. Based on the comparison, the tissue 120 may be assigned to one of the known tissue types.

Abstract: A method and system are disclosed for recognizing tissue types. Electrical signals are applied to tissue 120 via electrodes 110, 112. Circuitry 106 and the signal processor 116 are used to measure impedance magnitude and phase at a plurality of frequencies. At least the phase information at the plurality of frequencies is compared with phase information of known tissue types. Based on the comparison, the tissue 120 may be assigned to one of the known tissue types.