Cardiac Pacemakers, Inc.

Jack Gordon

Michael John Kane

Arthur J Foster

David J Ternes

Stephen B Ruble

Brian D Soltis

Jason J Hamann

Andrew L De Kock

Manfred Franke

Juan Gabriel Hincapie Ordonez

Eric A Mokelke

Joseph Walker

Binh C Tran

James E Blood

Greg Paul Carpenter

Steven A Kubow

James Blilie

Bruce K Gilbertson

Doug E Giwoyna

Kevin J Mohsenian

Yingbo Li

An implantable medical device includes a housing; and a header mounted to the housing, the header including a header core including a bore with an electrical contact located within the bore, wherein the electrical contact includes: a first longitudinally extending arm cantilever mounted within the bore; and a second longitudinally extending arm cantilever mounted within the bore.

Core-clip PG-lead spring electrical contact

A neural stimulation system delivers neural stimulation to a target nerve with control of direction of propagation of evoked neural signals in one or more fiber types of the target nerve using electrode configuration, thereby providing effective therapy while minimizing unintended effects. In various embodiments, mechanical parameters of a multi-polar electrode are determined to provide directed propagation of the neural stimulation by effecting neural conduction block in or near the stimulation site. In various embodiments, the electrode includes a cathode for evoking action potentials and a plurality of anodes for blocking the propagation of the evoked action potentials in specified direction(s) and fiber type(s) while minimizing the formation of virtual cathodes.

Method and apparatus for directed propagation of neural stimulation

Various embodiments concern a lead system for anchoring a lead, the lead system comprising a lead and an anchor. The anchor can comprise a ring and a flange extending from the ring. The anchor can be mounted on the lead such that the lead extends through the ring and the flange extends over an electrode of the lead. The lead system can further comprise a tether having a proximal portion and a distal portion. The proximal portion of the tether can attached to the lead while the distal portion of the tether can be attached to a needle. During an implantation procedure, the tether can be cut to remove the needle. The tether can then be attached to the flange. The lead, the anchor, and the tether can form a loop around a section of tissue to anchor the lead to the tissue.

Medical lead anchoring

Various embodiments concern an implantable lead. The lead can comprise a lead body. At least two conductors can extend within the lead body, such as in respective lumens of the lead body. The lead can comprise at least two electrodes. Each electrode can be connected to a respective one of the at least two conductors. A paddle body can be connected to the lead body. The paddle body can comprise a longitudinal axis that divides the paddle body into left and right sides. The at least two electrodes can be partially embedded within the paddle body. The at least two electrodes can be arrayed along the longitudinal axis. Each electrode can be asymmetric about the longitudinal axis.

Paddle leads having asymmetric electrode configurations

Various embodiments concern shielding an implantable lead from RF energy associated with MRI scans. The lead can include a distal region, a proximal region, an intermediate region between the distal region and the proximal region, at least one electrode disposed on the distal region, and at least one conductor extending from the proximal region to the at least one electrode. Implanting of the lead can include coiling a portion of the intermediate region to define one or more loops and selectively shielding the one or more loops of the lead with a RF shield. The RF shield can comprise metallic material and can be configured to reduce RF signal coupling to the at least one conductor along the one or more loops.

RF shield for an implantable lead

Growing community of inventors

Minneapolis, MN, United States of America

Jack Gordon