Jmea Corporation

Institute for Musculoskeletal Science and Education, Ltd.

Graco Children's Products, Inc.

Wonderland Nurserygoods Company Limited

Camber Spine Technologies, LLC

Ess 3 Tech, LLC

Pennsylvania Insert Corp.

Kinetic Wave Power

Bose Corporation

Graco Childern's Products Inc.

James A Sack

Jack Y Yeh

Mohit K Bhatnagar

William E Duffield

Richard W Woods

Glenn E Gehr

Katherine Elizabeth Brown

David Saint

Sanjog Kumar Mathur

David A Shoffler

Robert E Haut

Arthur L Gehr

Arthur Lee Gehr, Jr

David Rathbun

Baku Kakuda

Thomas Aquinas Nilsen

Devon T Siesholtz

Gregg R Espenshade

Seth Anderson

Arnold E Vandoren

John Peloza

An implant includes a housing; a blade having a retracted position in the housing and an extended position where the blade extends outwardly from the housing; and a blade actuating component comprising a driven shaft portion and a blade engaging portion. The blade actuating component can move the blade between the retracted position and the extended position. In addition, the blade engaging portion of the blade actuating component has a substantially U-shaped configuration defined at least in part by a superior surface and an inferior surface. Also, when the blade is in the extended position, the superior surface of the blade engaging portion of the blade actuating component is substantially flush with a superior surface of the housing, and the inferior surface of the blade engaging portion of the blade actuating component is substantially flush with an inferior surface of the housing.

Spinal fusion implant

A deployment device for a tissue repair system includes a front delivery assembly that is detachable from a base assembly of the deployment device. The front delivery assembly includes at least one prosthesis and at least one driven assembly that actuates the at least one prosthesis. The base assembly includes a driving assembly that may engage the at least one driven assembly of the at least one prosthesis. The front delivery assembly can be rotated so that the position of a prosthesis in the front delivery assembly is moved in and out of alignment with the driving assembly. A kit of parts may be provided that includes a base assembly as well as two or more detachable front delivery assemblies.

Methods and apparatus for implanting prostheses

An implant may include a body having a first blade having a first retracted position in the body and a first extended position where the first blade extends outwardly from the body, a second extendable blade, and a blade actuating member configured to translate through the body in directions parallel to the lateral axis. When the blade actuating member is moved in a first direction along the lateral axis, the first blade moves towards the first extended position; and in the first extended position, the first blade extends from the superior surface at a first non-zero angle with respect to the superior-inferior axis; and the second blade moves towards a second extended position in which the second blade extends from the inferior surface at a second non-zero angle with respect to the superior-inferior axis.

Implant with deployable blades

An intervertebral implant having an open lattice structure formed by a plurality of elongate struts, including a first strut and a second strut. In addition, the body includes a contact surface configured to confront a bone plate, the contact surface including a node defined by an intersection of the first strut and the second strut. The implant includes an enlarged contact member disposed at the node, wherein the enlarged contact member has a substantially flattened outer-facing surface forming part of the contact surface. In addition, the enlarged contact member has an outer perimeter edge that extends beyond the node, and at least a portion of the first strut and at least a portion of the second strut extend inward from the enlarged contact member toward a central core of the body.

Implant with improved bone contact

An implantable prosthesis that includes a biased coiling member and a conforming coiling member. The biased coiling member may be biased to curve from a substantially linear configuration to a nonlinear configuration. The conforming coiling member may be engaged with and curved by the biased coiling member from the substantially linear configuration to the nonlinear configuration. The biased coiling member may define a longitudinal axis when in the substantially linear configuration. The biased coiling member and the conforming coiling member may move relative to each other along the longitudinal axis. The prosthesis may be implanted in a surgical procedure that minimizes incision sizes and may be considered less invasive than typical implant procedures, especially spinal implant procedures.

Coiling implantable prostheses and methods for implanting

An intervertebral implant comprising a body formed as an open truss structure, the body having a generally annular shape with a superior surface, an inferior surface, and a perimeter surface extending around an outer periphery of the body. The body may have a central portion and a peripheral portion, the peripheral portion extending inward from the perimeter surface toward the central portion, the peripheral portion including a first set of trusses, and the central portion including a second set of trusses. The implant may further include a strut at least partially defining a boundary between the central portion and the peripheral portion, wherein the strut has an oblong cross-sectional shape oriented to facilitate flow of bone graft material in a substantially radial direction away from the central axis.

Implant with improved flow characteristics

An intervertebral implant includes a body formed as an open lattice structure by a plurality of struts. Some of the struts of the plurality of struts intersect at nodes. The nodes can include an enlarged contact member that extends over the node and at least a portion of the width of some of the struts. Enlarged contact members may have an asymmetrical shape with respect to the intersection of struts. The enlarged contact members can provide improved bone contact for the implant. The plurality of struts can have a cross-sectional shape that includes a flattened portion. The flattened portion of the plurality of struts can provide improved bone contact for the implant. An additive manufacturing process can be used to build the implant in a substantially vertical direction.

A balance board, including: an upper plate having a top surface configured for a user to stand on; a base assembly configured to contact the ground; a center assembly pivotally connecting the upper plate with the base assembly; and an adjustable tilt system comprising at least a first adjustable angle stop configured to be rotated at adjustable intervals to change a maximum angle by which the upper plate may be tilted relative to the base assembly. The base assembly may include a first plurality of teeth. In addition, the first adjustable angle stop may include a second plurality of teeth configured to interface with the first plurality of teeth of the base assembly to provide fixation of the first adjustable angle stop at the adjustable intervals.

Balance board with adjustable tilt angle and adjustable resistance

An implant includes a body and a bone fixation system. The body includes an interior area disposed between a superior surface and an opposite inferior surface spaced from the superior surface in a vertical direction. In addition, the bone fixation system includes at least one blade disposed within the interior area of the body in an insertion position. Also, the bone fixation system further includes at least one strike plate engaging the at least one blade in the interior area of the body, the at least one strike plate being configured to move the at least one blade from the insertion position to an impaction position in which at least a portion of the blade protrudes past one of the superior surface and inferior surface of the body.

Interbody fusion device and system for implantation

A dynamic disc assembly has a superior end plate, an inferior end plate, and a core. The core has surfaces of an annular Fresnel shape and a linear Fresnel-like shape combined to control the dynamic range of motion (ROM) movement arranged to match anatomical ROM. The core is interposed between and held against interior surfaces of the superior end plate and the inferior end plate. The assembly further has a pair of coupling cords, one coupling cord at each lateral end of the superior and inferior end plates wherein each lateral end of each end plate has one or more cord connections attached and affixed to the coupling cord to form and retain the dynamic disc assembly.

Dynamic disc assembly

An implant may include a housing having a peripheral frame including an inner edge defining a central opening in a central portion of the implant; and a blade located within the central opening and having a retracted position in the housing and an extended position where the blade extends outwardly. The blade may be configured to be moved in a direction between the retracted position and the extended position. In addition, the blade may have at least one flange extending in a posterior direction. Also, the inner edge of the peripheral frame may include a posterior edge configured to support two portions of the blade in two respective locations, including a first location in which the posterior edge of the peripheral frame supports a first portion of the blade and a second location in which the posterior edge supports a second portion of the blade.

Growing community of inventors

Elverson, PA, United States of America

James A Sack