Biotronik Se Co. Kg

Hewlett-Packard Development Company, L.p.

Leia Inc.

Biotronik Se & Co. Kg

Brian M Taff

Alexander N Govyadinov

Kurt Swenson

Hannes Kraetschmer

Dirk Muessig

Craig Olbrich

Jeffrey A Von Arx

Erik D Torniainen

Andrew B Kibler

Daniel A Kearl

Larry Stotts

Eric Austin

David A Fattal

Raymond G Beausoleil

Wantjinarjo Suwito

Min Qu

Nicholas Devich

Vladek P Kasperchik

Warren S Dabney

Jie Lian

Greg Scott Long

J Christopher Moulder

Sadiq Bengali

Marcelo Baru

R Hollis Whittington

Michael B Hager

Joseph S Raven

Kerry Smith

Julian Merlin

Paul Stadnik

Dirk Müssig

Madeline Anne Midgett

Christopher Jones

Jason Oak

Yu Wang

Dean Bergstrom

Harold Klein

Brad McMillan

Isaac Kreft

Karl-Heinz Freiberg

David Miller

Ulrich Hugel

Klaus Schmolinsky

Daniel Young

Brad Mcmillan

Nima Badie

The present invention relates to a system and method for replacing an implanted medical device with an implantable medical replacement device, wherein a programming device sends a command signal to the medical device to change an address of the medical device to a new address being different from an address of the replacement device to allow independent communication of the programming device with both the medical device and the replacement device.

Configurable replacement mechanism for leadless pacemaker system

The invention is directed to a communication system for a wireless message transfer between an implantable medical device (IMD) and an external device. A communication system is disclosed that effectively throttles/manages messages in a limited resource communication scheme, wherein the IMD is configured to monitor the health status of a patient and/or configured to deliver a therapy signal to the patient, wherein the IMD comprises a processor and a transceiver module configured to bi-directionally exchange the messages with the external device, wherein the processor adopts at least a predefined active state and a predefined processing state, wherein the processor of the IMD is configured to produce response messages in order to send these response messages from the transceiver module to the external device. The invention is further directed to a respective communication method, computer program product and computer readable data carrier.

Communication system and method for an implantable medical device

The present disclosure relates to a medical system, comprising at least an implantable medical device, and a multi-axis accelerometer comprised by the implantable medical device for measuring an acceleration of the implantable medical device along a plurality of vectors, wherein the multi-axis accelerometer is configured to provide for each vector a signal indicative of the acceleration of the implantable medical device in the direction of the respective vector. The medical system is configured to assess said signals to automatically select or propose a vector of said plurality of vectors that comprises the best alignment with a pre-defined vector.

Optimized vector selection for a multi-axis accelerometer in an implantable medical device

A delivery system for implanting a medical device comprises a delivery catheter having an inner lumen, a mandrel received in the inner lumen of the delivery catheter and movable with respect to the delivery catheter, and an adapter piece connected to the mandrel, wherein the adapter piece, by moving the mandrel with respect to the delivery catheter, is displaceable between a first position in which the adapter piece is received within the inner lumen of the delivery catheter and a second position in which the adapter piece is arranged outside of the inner lumen of the delivery catheter. A tethering member comprises a positive-locking member adjoining a tether portion, wherein the positive-locking member in a connection state is received on the adapter piece, but is releasable from the adapter piece by displacing the adapter piece from the first position towards the second position.

Delivery system for implanting a medical device

A leadless pacemaker, and method for storing event data therein, comprising a central processing unit, a first logic circuit configured to generate event data based on a first event occurring during operation of the leadless pacemaker, a first hardware event counter configured to be incremented if specific event data are generated by said first logic circuit, a first memory unit comprising a first bit configured to be set if said first hardware event counter is incremented to a first maximum number of counts, a second memory unit communicating with said first memory unit, wherein said central processing unit is configured to transfer said first bit to said second memory unit, a first RAM event counter in a random access memory of said leadless pacemaker, wherein said central processing unit is configured to increment said first RAM event counter if said first bit is transferred to the second memory unit.

Leadless pacemaker and method for storing event data in a leadless pacemaker

The present disclosure relates to a system, comprising: an implantable medical device, wherein the implantable medical device comprises an ultrasound transducer configured to receive an ultrasound wave, a packaging, wherein the packaging encloses an internal space, wherein the implantable medical device is arranged in the internal space, and a device mount arranged in the internal space, wherein the implantable medical device is fastened to the device mount in a releasable fashion, and wherein the device mount contacts an inner side of a portion of the packaging and forms an acoustic coupler configured to pass an ultrasound wave applied to an outer side of the portion of the packaging to the ultrasound transducer of the implantable medical device.

In-package IMD configuration management, self-test, and programming support system for acoustic communication enabled implants

An intracardiac pacemaker device, comprising a housing that is configured to be implanted entirely within a ventricle (V) of a heart (H), an electronic module for generating pacing pulses, a battery for supplying energy to the electronic module, an elongated lead extension protruding from the housing, at least a first electrode arranged on the elongated lead extension, and a pacing electrode and a return electrode for applying the pacing pulses to cardiac tissue, wherein the pacing electrode is arranged on the housing. The electronic module is electrically coupled to the pacing electrode via the housing, and wherein the electronic module is configured to carry out measurements of electrical activity via the at least one first electrode of the elongated lead extension.

Intracardiac pacemaker device, particularly for VDD or VDDR pacing

An implantable medical device includes a housing having a proximal end and a distal end. The implantable medical device is placeable on cardiac tissue in the region of the distal end. An anchoring device is fixedly attached to the housing in the region of the distal end. The anchoring device includes at least one anchoring member. The at least one anchoring member includes a first end and a second end opposite the first end. The second end is disposed on the housing. The at least one anchoring member longitudinally extends between the first end and the second end along an axis of extension and is formed by a flat strip which is twisted by a twist angle about the axis of extension between the first end and the second end. A method for manufacturing an implantable medical device is also provided.

Implantable medical device comprising an anchoring device

Technology for near infrared (NIR) based communication and/or sensing of implantable medical devices and systems as well as method of operating the same.

Implantable medical devices and systems with communication/sensing based on near infrared signals

A system and method for installing/implanting a leadless implant can include a leadless implant with shortened tine-based anchors and an implantation tool with a modified tip. The tines can extend from a surface of the leadless implant and may include a preformed curve or other shape to enable the tine to hook into or grapple tissue. The implantation tool may be provided with a modified tip to assist with proper alignment, insertion, and anchoring of the shortened tines. A tip of the implantation tool can have a reduced inner diameter to cause the tine tips to be approximately normal to the surface of the tissue to which the implant is being anchored. Upon deployment of the leadless implant, the tines of the anchoring mechanism are appropriately aligned for proper insertion so that robust anchoring is achieved.

Modified implantation tool tip configuration for the improved installation of leadless pacemakers with short tine-based anchors

An implantable medical system for intra-body communication, comprising an implantable first device. The first device comprises a plurality of capacitors and a DC blocking capacitor. The first device is configured to discharge the plurality of capacitors via the DC blocking capacitor in an encoded sequence to generate a signal.

Capacitor-discharge communication scheme for an implantable medical system

A biventricular (BiV) implantable cardiac stimulator contains a stimulation control unit, one or more stimulation units, an impedance measurement unit and an impedance evaluation unit. The stimulation control unit is operatively connected to one or more stimulation units to control delivery of stimulation pulses by the one or more stimulation units. The stimulation control unit is configured to assess ventricular contractility based on an impedance signal generated by the impedance evaluation unit and to switch between at least a univentricular left ventricular stimulation mode and a biventricular stimulation mode and to evaluate the ventricular contractility in relation to the respective ventricular stimulation mode.

Bi-ventricular implantable medical device

In an electrostimulator which applies electrical stimulation to patient tissue, measurements of lead impedance (tissue resistance), battery status, and like matters are used to format and/or truncate the ranges of programmable therapeutic output settings available for selection by a clinician. The clinician can therefore better tell whether chosen settings can actually be successfully implemented, and/or whether they may have adverse effects on device lifespan or patient safety.

Enhanced therapy settings in programmable electrostimulators

An implantable leadless pacemaker (iLP) for a human or animal heart is provided that includes a housing, at least two electrode poles for picking up electrical potentials and/or delivering electrical stimulation, a stimulation control unit in connection with the electrode poles, a sensing unit that is in connection with at least one electrode pole, a signal processing unit in connection with the sensing unit, a signal evaluation unit in connection with the signal processing unit and/or the sensing unit, and an energy source. The sensing unit is configured to sense a first signal associated with an activity of the first heart chamber, and the stimulation control unit is configured to deliver electrical stimulation in the first heart chamber via the at least two electrode poles. The sensing unit is configured to sense a second signal associated with an activity of a second heart chamber.

Implantable leadless pacemaker with atrial-ventricular synchronized pacing

A fluid ejection device may include a discharge port, an energy generating element to discharge liquid through the discharge port, a first liquid supply on a first side of the discharge port, a second liquid supply on a second side of the discharge port opposite the first side, a first liquid flow path extending from the first liquid supply to the discharge port, a second liquid flow path extending from the second liquid supply to the discharge port and a fluid displacement actuator in the first liquid flow path.

Circulation in a fluid ejection device

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Portland, OR, United States of America

Brian M Taff