Zoll Medical Corporation

Lifecor, Inc.

Robert J Hulings

Scott D Quinnell

Ronald A Seman

Dale Ballard

Brian D Snyder

Emil Oskin

Arlan J Brandt

Richard S Sharbaugh

A modular waterproof therapeutic electrode component for preventing water ingress and for easy servicing. The component comprises a substrate comprising a conductive surface, a reservoir of conductive fluid mounted on the substrate, a reusable waterproof enclosure comprising circuitry, the reusable waterproof enclosure comprising circuitry configured to be removably coupled to the substrate, and a fluid deployment device in electrical communication with the circuitry and mounted on the substrate, the fluid deployment device configured to cause the reservoir to release the conductive fluid onto the conductive surface to reduce electrical impedance between the conductive surface and skin of a subject.

Modular ingress protected electrode system for a wearable defibrillator

A gel deployment device for use with an electrotherapy system is provided. The device includes a plurality of gel reservoirs disposed on a substrate, each of the plurality of gel reservoirs containing conductive gel. Each of the gel reservoirs are positioned adjacent to at least one seal such that the seal restricts flow of the conductive gel. The seal can be configured to release the conductive gel from the gel reservoir in response to pressure being applied about a perimeter of the seal at, for example, multiple points about the perimeter or substantially equally about the perimeter of the seal. In an example, each gel reservoir can be shaped such that the gel reservoir partially or fully surrounds a seal. In another example, multiple gel reservoirs can be arranged in clusters such that the multiple gel reservoirs are positioned about a single seal.

Conductive gel release and distribution devices

A therapeutic electrode component includes a base plate having a first side and a second side having a conductive surface. A repository having an internal volume to releasably retain a conductive fluid is disposed on the first side of the base plate. A rupturable membrane is disposed between the internal volume of the repository and the conductive surface of the base plate. A coupling is disposed on the base plate that is configured to detachably engage a gas charge, whereby the gas charge is detachable from the coupling without causing destruction of the gas charge, to provide a hermetic seal with an outlet of the gas charge, and to provide fluid communication between the internal volume of the repository and the outlet of gas charge when the gas charge is engaged by the coupling. A retainer is configured to detachably secure the gas charge to the base plate.

Modular electrical therapy device

A therapy electrode apparatus for dispensing conductive gel to skin of a patient wearing a wearable defibrillator includes a therapy electrode, at least one reservoir comprising the conductive gel, and a gel deployment device comprising at least two reactive chemicals. The at least one reservoir is configured to release the conductive gel between the therapy electrode and a patient's skin prior to a delivery of one or more therapeutic shocks. The gel deployment device configured to, on receiving a treatment signal from a controller of the wearable defibrillator operably connected to the gel deployment device, cause the at least two reactive chemicals to come into contact to produce a pressurized fluid to release the conductive gel from the at least one reservoir between the therapy electrode and the patient's skin.

Systems, devices, and methods for providing electrotherapy

A gel deployment device for use with an electrotherapy system includes a substrate and a conductive surface mechanically coupled to the substrate. The device includes one or more gel reservoirs disposed on the substrate, each surrounding an open center portion, and a fluid pressure source in fluid communication with the one or more gel reservoirs. At least one frangible seal is disposed within the open center portion and configured to release a volume of conductive gel from the one or more gel reservoirs to the conductive surface.

Systems, devices and methods for providing a pressurized fluid for facilitating conductive gel release prior to providing cardiac therapy to a patient are disclosed. A first system can include a chemical reaction chamber including a first chemical and a second chemical isolated from each other by a mechanical barrier. The mechanical barrier is configured to be compromised upon receiving a signal from an electrotherapy device controller such that the first chemical and second chemical come into contact to produce a sufficient amount of pressurized fluid. An alternative system can include a pressure source comprising a reservoir containing a pressurized fluid. The pressure source can also include at least one release mechanism configured to cause a release of the pressurized fluid from the reservoir to an exit port of the pressure source when a wearable medical device is preparing to deliver a therapeutic shock to a patient.

An ECG electrode and method of making and using such. The electrode can have a domed electrode element attached to a housing containing an interface disk to which the concave side of the domed electrode connects. Within the housing a signal lead wire has one end attached to the non-skin-contacting side of the dome and another end connected to a signal transition circuit and a buffer amplifier circuit. The domed electrode element can be made by forming a metal disk into a dome and providing an oxide layer over the convex surface of the dome. The convex surface of the domed electrode can ensure reliable ECG signal acquisitions with lower radial forces generally than other electrode types, when positioned adjacent the skin of the patient and when coupled to cardiac activity monitoring equipment and a defibrillator for cardiac sensing capabilities.

Cardiac monitoring electrode apparatus and method

In a support garment for a patient-worn energy delivery apparatus, a vest-type garment holds an electrode belt in contact with a wearer's ribcage. The garment includes a flap with button holes to permit buttoning in of energy transfer electrodes, thus constituting a wearable electrode system. Additionally, a holster contains the components of a wearable cardioverter defibrillator that are not in contact with the skin. The holster has an adjustment for waist, girth and vertical position of the defibrillator according to the personal preferences of the wearer. The support garment includes a vest-like chest garment and an inner layer which provides support for the defibrillator electrodes. A removable electrode harness is attachable to the support garment in order to accurately position the sensing electrodes on the body of the wearer and energy delivery electrodes for transfer of an electrode therapy pulse to the wearer of the garment. The chest garment includes adjustable shoulder straps and waist belt so that the support garment can accommodate any body size or shape.

Growing community of inventors

Mars, PA, United States of America

Robert J Hulings