Edwin Iversen - Salt Lake City UT, US Harold Sears - Salt Lake City UT, US Arthur Dyck - Draper UT, US Steven Kunz - Salt Lake City UT, US Joseph Jacobs - Salt Lake City UT, US James Linder - West Jordan UT, US Peter Strazdins - Park City UT, US
Assignee:
Motion Control - Salt Lake City UT
International Classification:
A61F 2/66 A61F 2/74 A61F 2/64
US Classification:
623026000, 623044000, 623047000
Abstract:
A device and system is provided for a prosthetic device having an articulating joint for a leg amputee. The device includes a joint housing forming a chamber, and the chamber has a first opening. A rotary hub can be disposed within the joint housing and configured to act as the articulating joint. One or more vanes can extend outwardly from the rotary hub, and the vane is configured to actuate fluid flow through the first opening.
Edwin Kay Iversen - Salt Lake City UT, US Harold H. Sears - Salt Lake City UT, US Arthur D. Dyck - Draper UT, US Steven R. Kunz - Salt Lake City UT, US Joseph Anthony Jacobs - Salt Lake City UT, US James R. Linder - West Jordan UT, US Melinda Linder - West Jordan UT, US Peter K. Strazdins - Park City UT, US
Assignee:
MOTION CONTROL - Salt Lake City UT
International Classification:
A61F 2/66
US Classification:
623 49, 623 55
Abstract:
Compositions are provided for a prosthetic ankle comprising: a joint housing having a bottom surface, a clevis coupled to the joint housing such that the clevis can rotate about the joint housing, a prosthetic coupling structure that couples the clevis to an amputee, and an articulating joint contained in the joint housing. Additionally, a portion of the bottom surface of the joint housing can be curved allowing a substrate a preset amount of flexion when coupled thereto and flexed in a concave position.
- Salt Lake City UT, US Joseph Anthony Jacobs - Salt Lake City UT, US Jeffry David Christenson - Salt Lake City UT, US Peter Karl Strazdins - Salt Lake City UT, US Steven Reese Kunz - Salt Lake City UT, US Brent Taylor Jarvis - Salt Lake City UT, US Jeff Robert Welch - Salt Lake City UT, US Harold Hume Sears - Salt Lake City UT, US Arthur David Dyck - Salt Lake City UT, US
International Classification:
A61F 2/58 A61F 2/68
Abstract:
A prosthetic hand system may include a plurality of prosthetic fingers and a prosthetic thumb. The prosthetic hand system may include a thumb drive mechanism that may be used to actuate the prosthetic thumb. In some examples, the thumb drive mechanism may be configured to enable the prosthetic thumb to perform a pinching or grasping motion and a release motion. The prosthetic hand system may also include a backlock that enables the prosthetic thumb to maintain pinching or gripping pressure after a motor has been disengaged. The prosthetic hand system may also include a gear lock that may be configured to lock a finger joint. The prosthetic hand system may also include an adaptive gripping joint that may be located on each prosthetic finger. In some examples, the adaptive gripping joint may be configured to passively adapt the plurality of prosthetic fingers to one or more differently shaped objects.
- Salt Lake City UT, US Joseph Anthony Jacobs - Salt Lake City UT, US Jeffry David Christenson - Salt Lake City UT, US Peter Karl Strazdins - Salt Lake City UT, US Steven Reese Kunz - Salt Lake City UT, US Brent Taylor Jarvis - Salt Lake City UT, US Jeff Robert Welch - Salt Lake City UT, US Harold Hume Sears - Salt Lake City UT, US Arthur David Dyck - Salt Lake City UT, US
International Classification:
A61F 2/58 A61F 2/68
Abstract:
A prosthetic hand system may include a plurality of prosthetic fingers and a prosthetic thumb. The prosthetic hand system may include a thumb drive mechanism that may be used to actuate the prosthetic thumb. In some examples, the thumb drive mechanism may be configured to enable the prosthetic thumb to perform a pinching or grasping motion and a release motion. The prosthetic hand system may also include a backlock that enables the prosthetic thumb to maintain pinching or gripping pressure after a motor has been disengaged. The prosthetic hand system may also include a gear lock that may be configured to lock a finger joint. The prosthetic hand system may also include an adaptive gripping joint that may be located on each prosthetic finger. In some examples, the adaptive gripping joint may be configured to passively adapt the plurality of prosthetic fingers to one or more differently shaped objects.
- Salt Lake City UT, US Joseph Anthony Jacobs - Salt Lake City UT, US Jeffry David Christenson - Salt Lake City UT, US Peter Karl Strazdins - Salt Lake City UT, US Steven Reese Kunz - Salt Lake City UT, US Brent Taylor Jarvis - Salt Lake City UT, US Jeff Robert Welch - Salt Lake City UT, US Harold Hume Sears - Salt Lake City UT, US Arthur David Dyck - Salt Lake City UT, US
Assignee:
Motion Control - Salt Lake City UT
International Classification:
A61F 2/58
US Classification:
623 64
Abstract:
A prosthetic hand system may include a plurality of prosthetic fingers and a prosthetic thumb. The prosthetic hand system may include a thumb drive mechanism that may be used to actuate the prosthetic thumb. In some examples, the thumb drive mechanism may be configured to enable the prosthetic thumb to perform a pinching or grasping motion and a release motion. The prosthetic hand system may also include a backlock that enables the prosthetic thumb to maintain pinching or gripping pressure after a motor has been disengaged. The prosthetic hand system may also include a gear lock that may be configured to lock a finger joint. The prosthetic hand system may also include an adaptive gripping joint that may be located on each prosthetic finger. In some examples, the adaptive gripping joint may be configured to passively adapt the plurality of prosthetic fingers to one or more differently shaped objects.
Amgis Apr 2020 - Aug 2020
Principal Mechncl Engnr
Swedish Based Parent Corpn Via Us Apr 2020 - Aug 2020
Mechanical Engineer - Oi Medical Devices - Consultant
Apr 2020 - Aug 2020
Mechanical Engineer
Hydradx, Inc. Oct 2015 - Feb 2016
Electro-Mechanical Engineer - Medical Device - Consultant
Motion Control, Inc. Dec 2003 - Jul 2015
Development Engineer - Prosthetics
Education:
University of Technology Sydney 1988 - 1990
Bachelors, Mechanical Engineering
University of Sydney 1983 - 1987
Skills:
Pcb Design Solidworks Design For Manufacturing Pro Engineer Design Control Finite Element Analysis Medical Devices Gd&T Mechanical Engineering Design of Experiments Injection Molding Labview Engineering Ptc Creo
Interests:
Politics Environment Science and Technology Human Rights Animal Welfare