St. Jude Medical, Cardiology Division, Inc.

Seagate Technology Incorporated

Other

Michael S Bowers

Varun Bansal

Troy Terrance Tegg

David J Kim

Zine-Eddine Boutaghou

Wayne Allen Bonin

Roger Lee Hipwell, Jr

John Stuart Wright

Bradley Jay Ver Meer

Adam Karl Himes

Stephan Paul Miller

Michael Allen Greminger

Paul E Kupinski

Anthony Knutson

Steven Baird

Tara Mensch

Brandon Cook

Halley Havlicek

David Kim

A human-powered wheelchair for use on land and in water that comprises flotation and propulsion means. The wheelchair can be propelled by the operator on land in a manner similar to a typical wheelchair. The wheelchair can be propelled in the water by propellers that are mechanically and rotationally coupled to the side wheels of the wheelchair.

Manually propelled floating aquatic wheelchair

A uni-directional, plunger-type electrophysiology catheter handle is designed to reduce the input force a user must apply to deflect the distal end of the catheter. A force amplifier is operatively coupled to a deflection actuator of the handle. The force amplifier can be a pulley or a system of gears. The force amplifier can increase the output force of deflection actuator by the same factor as that by which the user input force is reduced. A variable-friction autolocking system can also be used to reduce the input force a user must apply during initial deflection as compared to later deflection of the catheter.

Reduced actuation force electrophysiology catheter handle

Actuators for steerable medical devices are disclosed that not only deflect or steer a portion of a medical device (e.g., a distal portion of a catheter shaft), but also include mechanisms for actively returning the deflected portion of the medical device to an initial configuration (e.g., straight or substantially straight). These active return-to-straight mechanisms may return a catheter shaft from a deflected configuration to a substantially straight configuration throughout a medical procedure, may employ one or more tension members extending along the catheter shaft, and may comprise a gross return actuator and a fine return actuator. For example, the gross return actuator may be configured to partially reverse the deflection of the distal portion of the catheter; and the fine return actuator may be configured to continue reversing the deflection. The gross return actuator may automatically trigger or actuate (mechanically or electromechanically) the fine return actuator.

Catheter having an active return-to-straight mechanism

Described herein are game devices for use in individual and/or group play. These game devices can compose a base and an intermediate structure comprising an opening which a user can attempt to throw a ball or other object into. The base can be configured such that it can connect to a substantially planar surface such as a wall or ceiling. The intermediate structure can be flexible like a basketball net or can be rigid. In some embodiments, the opening in the intermediate structure can be connected to a rim that hold the opening in an 'open' position. In some embodiments, the rim can further comprise bristle-like protrusion structures.

Surface mounted ball and net device

A medical device includes an elongate body having a proximal end and a deflectable distal region, a handle coupled to the proximal end, an actuator movable relative to the handle, and a resistance assembly adjacent the actuator. The resistance assembly exerts a force on the actuator that varies according to a direction in which the actuator is moving relative to the handle. For example, the resistance assembly can exert a lower (or zero) force when the actuator is moving relative to the handle in a direction that effects deflection of the distal region of the elongate body from neutral and higher when the actuator is moving relative to the handle in a direction that effects return of the distal region of the elongate body towards neutral. The resistance assembly can also include materials that exhibit anisotropic frictional properties and/or have surface finishes or treatments that yield directionally-dependent frictional forces.

Actuator restraining assembly for medical device

An improved microactuator suspension is provided for use with high density storage media. The number of microactuator elements is reduced to one and placed perpendicularly to the longitudinal axis of the suspension arm to maximize the windage and resonance performance and minimize the microactuator's contribution to bending stiffness and the off track bending component. An improved electrical connection eliminates the requirement for a jumper. These improvements reduce cost by reducing part count and assembly complexity.

Cost reduced microactuator suspension

A flexible circuit for use in a head gimbal assembly having low stiffness and high robustness. The flexible interconnect circuit has interconnecting leads which connect the flexible interconnect circuit to a transduction head. To ensure the transducing head is able to follow the surface of the disc and properly read from and write to the disc, the interconnect leads are constructed with a varying width. The leads are widened at the points where breakage usually occurs and are narrowed at a middle portion to ensure the leads maintain the desired flexibility.

Head gimbal assembly interconnecting leads having improved robustness and lower stiffness

A head suspension assembly for a slider tester is provided, which includes a socket that is coupled to a gimbal and load beam. The assembly also includes an electrical interconnect. The socket is adapted to releasably secure a slider and to electrically couple the electrical interconnect to the slider.

Growing community of inventors

Bloomington, MN, United States of America

Michael S Bowers