Leland Stanford Junior University

Tatum Tarin

Ross Daniel Venook

Venita Chandra

Richard G Vecchiotti

Bryant Lin

Joel Goldsmith

Peter Hwang

Richard Goode

The present invention relates generally to dynamic support devices, methods of providing dynamic support to target tissues, and kits comprising these devices. These devices may have particular utility in providing support to the urethra. The dynamic support devices generally comprise at least one attachment member for attachment to bodily tissue, and at least one support member, where the device capable of assuming a first configuration and a second configuration. The dynamic support devices may be configured to support a target tissue when the device is in its second configuration. The support member may comprise one or more rotating components, one or more deformable components, one or more sliding components, or a combination thereof.

Methods and devices for supporting, elevating, or compressing internal structures

The present invention relates generally to dynamic and/or adjustable support devices, methods of providing dynamic and/or adjustable support to target tissues, and kits comprising these devices. These devices may have particular utility in providing support to the urethra. The dynamic support devices generally comprise at least one attachment member for attachment to bodily tissue, and at least one expandable member capable of assuming an unexpanded configuration and an expanded configuration. The adjustable support devices generally comprise at least one attachment member for attachment to bodily tissue, and at least one shape-changing portion that is capable of assuming first and second configurations, each with different shapes. Additionally, the dynamic support devices may comprise features of the adjustable support devices, and vice versa.

Dynamic and adjustable support devices

A method of modifying properties of intrinsic tissue of an organ is provided. The method includes providing an organ, where a first electrode is disposed proximal to the organ first end. The first electrode has a surface area and insulator. A second electrode is disposed opposite the first electrode, where the organ is disposed between the first electrode and the second electrode. The second electrode has surface area and surface insulator. An organ-shaping device is provided that is disposed on the organ between the electrodes, where the organ-shaping device deforms the organ middle section along at least one lateral direction between the electrodes. An electric current is provided between the first second electrodes, where a current density gradient is provided by the electrode surface areas and the deformed organ middle section, and the properties of the intrinsic muscle tissue are modified according to the current density gradient.

Device and method to treat tissue with electric current

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Redwood City, CA, United States of America

Tatum Tarin