Abstract: A catheter for generating shock waves includes a first elongate member; at least one shock wave emitter carried by the first elongate member; and an expandable member configured to move the at least one shock wave emitter laterally toward a lesion.

Abstract: An exemplary catheter includes a catheter body, a first conductive member comprising a first material positioned on the catheter body, a second conductive member comprising a second material different from the first material positioned on the catheter body, one or more electrical joints configured to electrically couple the first conductive member to the second conductive member, and one or more shock wave emitters. Each shock wave emitter is configured to generate a shock wave, and at least one shock wave emitter of the one or more shock wave emitters comprises electrodes separated by a spark gap, wherein at least one of the electrodes is formed from the second conductive member.

Abstract: A catheter for generating shock waves, the catheter comprising: a catheter body; an emitter support member configured to extend at least partially distally of a distal end of the catheter body, where the emitter support member comprises a pre-formed distal portion, where the pre-formed distal portion is configured to coil into an annular loop around at least a portion of a longitudinal axis of the catheter body; a plurality of shock wave emitters mounted to the emitter support member; and an enclosure enclosing the plurality of shock wave emitters.

Abstract: Methods and apparatuses are disclosed for providing pulsed electrical treatment (including high voltage, sub-microsecond pulsed electric energy) to tissue, including cardiac tissue. The apparatus may include deployable electrodes that conform to transitional surfaces. These apparatuses may include single or multiple tiers of wire loops forming petal-like electrodes.

Abstract: Methods and apparatuses are disclosed for providing pulsed electrical treatment (including high voltage, sub-microsecond pulsed electric energy) to body vessels. The apparatus may include deployable electrodes that conform to transitional surfaces. These apparatuses may include expandable frames with basket-shaped electrode assemblies.

Abstract: An exemplary catheter includes a catheter body, a first conductive member comprising a first material positioned on the catheter body, a second conductive member comprising a second material different from the first material positioned on the catheter body, one or more electrical joints configured to electrically couple the first conductive member to the second conductive member, and one or more shock wave emitters. Each shock wave emitter is configured to generate a shock wave, and at least one shock wave emitter of the one or more shock wave emitters comprises electrodes separated by a spark gap, wherein at least one of the electrodes is formed from the second conductive member.

Abstract: Devices and methods for mapping tissue, such as cardiac tissue, and applying electrical energy to ablate the tissue may include an applicator region comprising two or more wire electrodes that extend between the arms of the device as well as a plurality of mapping and/or sensing electrodes (e.g., ring electrodes) on the arms and/or the elongate body. These devices may sense electrical activity using the mapping electrodes and may deliver energy between the first wire electrode and the second wire electrode to ablate, for example, cardiac tissue.

Abstract: An exemplary catheter includes a catheter body, a first conductive member comprising a first material positioned on the catheter body, a second conductive member comprising a second material different from the first material positioned on the catheter body, one or more electrical joints configured to electrically couple the first conductive member to the second conductive member, and one or more shock wave emitters. Each shock wave emitter is configured to generate a shock wave, and at least one shock wave emitter of the one or more shock wave emitters comprises electrodes separated by a spark gap, wherein at least one of the electrodes is formed from the second conductive member.

Abstract: Methods and apparatuses are disclosed for providing pulsed electrical treatment (including high voltage, sub-microsecond pulsed electric energy) to body vessels. The apparatus may include deployable electrodes that conform to transitional surfaces. These apparatuses may include multiple wire loops forming petal-like electrodes configured to expand with an expandable member, such as a balloon.

Abstract: Devices and methods for mapping tissue, such as cardiac tissue, and applying electrical energy to ablate the tissue may include an applicator region comprising two or more wire electrodes that extend between the arms of the device as well as a plurality of mapping and/or sensing electrodes (e.g., ring electrodes) on the arms and/or the elongate body. These devices may sense electrical activity using the mapping electrodes and may deliver energy between the first wire electrode and the second wire electrode to ablate, for example, cardiac tissue.

Abstract: Methods and apparatuses are disclosed for providing pulsed electrical treatment (including high voltage, sub-microsecond pulsed electric energy) to body vessels. The apparatus may include deployable electrodes that conform to transitional surfaces. These apparatuses may include multiple wire loops forming petal-like electrodes configured to expand with an expandable member, such as a balloon.

Abstract: Devices and methods for mapping tissue, such as cardiac tissue, and applying electrical energy to ablate the tissue may include an applicator region comprising two or more wire electrodes that extend between the arms of the device as well as a plurality of mapping and/or sensing electrodes (e.g., ring electrodes) on the arms and/or the elongate body. These devices may sense electrical activity using the mapping electrodes and may deliver energy between the first wire electrode and the second wire electrode to ablate, for example, cardiac tissue.

Abstract: Systems and related methods for identifying and/or ablating targeted nerves are provided. A probe with stimulating electrodes and/or ablation members are provided. The probe may be inserted into a nasal cavity and current may be introduced through the electrodes to stimulate a targeted area. The response to stimulation may be used to identify the targeted nerve. Once identified, the ablation member may ablate the targeted nerve.

Abstract: Devices and methods for treating rhinitis are described where the devices are configured to ablate a single nerve branch or multiple nerve branches of the posterior nasal nerves located within the nasal cavity. A surgical probe may be inserted into the sub-mucosal space of a lateral nasal wall and advanced towards a posterior nasal nerve associated with a middle nasal turbinate or an inferior nasal turbinate into a position proximate to the posterior nasal nerve where neuroablation of the posterior nasal nerve may be performed with the surgical probe. The probe device may utilize a visible light beacon that provides trans-illumination of the sub-mucosal tissue or an expandable structure disposed in the vicinity of the distal end of the probe shaft to enable the surgeon to visualize the sub-mucosal position of the distal end of the surgical probe from inside the nasal cavity using, e.g., an endoscope.

Abstract: Methods and apparatuses are disclosed for providing pulsed electrical treatment (including high voltage, sub-microsecond pulsed electric energy) to tissue, including cardiac tissue. The apparatus may include deployable electrodes that conform to transitional surfaces. These apparatuses may include single or multiple tiers of wire loops forming petal-like electrodes.

Abstract: Systems and related methods for identifying and/or ablating targeted nerves are provided. A probe with stimulating electrodes and/or ablation members are provided. The probe may be inserted into a nasal cavity and current may be introduced through the electrodes to stimulate a targeted area. The response to stimulation may be used to identify the targeted nerve. Once identified, the ablation member may ablate the targeted nerve.

Abstract: Methods and apparatuses are disclosed for providing pulsed electrical treatment (including high voltage, sub-microsecond pulsed electric energy) to tissue, including cardiac tissue. The apparatus may include deployable electrodes that conform to transitional surfaces. These apparatuses may include single or multiple tiers of wire loops forming petal-like electrodes.

Abstract: Systems and related methods for identifying and/or ablating targeted nerves are provided. A probe with stimulating electrodes and/or ablation members are provided. The probe may be inserted into a nasal cavity and current may be introduced through the electrodes to stimulate a targeted area. The response to stimulation may be used to identify the targeted nerve. Once identified, the ablation member may ablate the targeted nerve.

Abstract: In an example, a cryotherapy system includes a base station, a cryotherapy applicator, and a cryogen conduit configured to couple the cryotherapy applicator to the base station and supply a cryogen from the base station to the cryotherapy applicator. The base station includes a housing including a canister receptacle that is configured to receive a canister containing the cryogen. The cryotherapy applicator includes a handle, a shaft extending from the distal end of the handle, and an end-effector coupled to the shaft. The end-effector is configured to use the cryogen to ablate a target tissue. An entirety of the cryotherapy applicator is movable relative to an entirety of the base station while the cryogen conduit couples the cryotherapy applicator to the base station.