Intrafascicular Active MEMS Neural Clamps

James Abbas (Inventor), Stephen Phillips (Inventor)

Research output: Patent

Abstract

Despite recent progress in prosthetic science, 38% of artificial limb users ultimately reject their limb. This is mostly due to the quality of sensation and control. There are more than 1.7 million people with limb loss in the US with more than 185,000 new amputations each year. The development of a more responsive prosthesis communication interface is needed. Researchers at Arizona State University have developed a communication interface circuit capable of connecting the sensor outputs from a prosthetic limb with a stimulator. They have also designed an intrafascicular neural electrode comprising a MEMS stem structure for measuring and/or recording activity from the peripheral nervous system. The combination of recording signals and providing relevant stimuli provides enhanced communication and control of the prosthetic limb. Potential Applications Neuroprosthetic device Rehabilitation device Virtual reality technologyBenefits and Advantages Processes signals from more than one sensor Records distributed neural activity Clamping mechanism ensures stable and consistent recording Provides stimulation to the nervous systemDownload original PDFFor more information about the inventor(s) and their research, please see Dr. Abbas' directory webpageDr. Phillips' directory webpage
Original languageEnglish (US)
StatePublished - Jun 5 2006

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Micro-Electrical-Mechanical Systems
Extremities
Directories
Communication
Inventors
Artificial Limbs
Equipment and Supplies
Peripheral Nervous System
Amputation
Constriction
Quality Control
Prostheses and Implants
Electrodes
Research Personnel
Research

Cite this

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title = "Intrafascicular Active MEMS Neural Clamps",
abstract = "Despite recent progress in prosthetic science, 38{\%} of artificial limb users ultimately reject their limb. This is mostly due to the quality of sensation and control. There are more than 1.7 million people with limb loss in the US with more than 185,000 new amputations each year. The development of a more responsive prosthesis communication interface is needed. Researchers at Arizona State University have developed a communication interface circuit capable of connecting the sensor outputs from a prosthetic limb with a stimulator. They have also designed an intrafascicular neural electrode comprising a MEMS stem structure for measuring and/or recording activity from the peripheral nervous system. The combination of recording signals and providing relevant stimuli provides enhanced communication and control of the prosthetic limb. Potential Applications Neuroprosthetic device Rehabilitation device Virtual reality technologyBenefits and Advantages Processes signals from more than one sensor Records distributed neural activity Clamping mechanism ensures stable and consistent recording Provides stimulation to the nervous systemDownload original PDFFor more information about the inventor(s) and their research, please see Dr. Abbas' directory webpageDr. Phillips' directory webpage",
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T1 - Intrafascicular Active MEMS Neural Clamps

AU - Abbas, James

AU - Phillips, Stephen

PY - 2006/6/5

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N2 - Despite recent progress in prosthetic science, 38% of artificial limb users ultimately reject their limb. This is mostly due to the quality of sensation and control. There are more than 1.7 million people with limb loss in the US with more than 185,000 new amputations each year. The development of a more responsive prosthesis communication interface is needed. Researchers at Arizona State University have developed a communication interface circuit capable of connecting the sensor outputs from a prosthetic limb with a stimulator. They have also designed an intrafascicular neural electrode comprising a MEMS stem structure for measuring and/or recording activity from the peripheral nervous system. The combination of recording signals and providing relevant stimuli provides enhanced communication and control of the prosthetic limb. Potential Applications Neuroprosthetic device Rehabilitation device Virtual reality technologyBenefits and Advantages Processes signals from more than one sensor Records distributed neural activity Clamping mechanism ensures stable and consistent recording Provides stimulation to the nervous systemDownload original PDFFor more information about the inventor(s) and their research, please see Dr. Abbas' directory webpageDr. Phillips' directory webpage

AB - Despite recent progress in prosthetic science, 38% of artificial limb users ultimately reject their limb. This is mostly due to the quality of sensation and control. There are more than 1.7 million people with limb loss in the US with more than 185,000 new amputations each year. The development of a more responsive prosthesis communication interface is needed. Researchers at Arizona State University have developed a communication interface circuit capable of connecting the sensor outputs from a prosthetic limb with a stimulator. They have also designed an intrafascicular neural electrode comprising a MEMS stem structure for measuring and/or recording activity from the peripheral nervous system. The combination of recording signals and providing relevant stimuli provides enhanced communication and control of the prosthetic limb. Potential Applications Neuroprosthetic device Rehabilitation device Virtual reality technologyBenefits and Advantages Processes signals from more than one sensor Records distributed neural activity Clamping mechanism ensures stable and consistent recording Provides stimulation to the nervous systemDownload original PDFFor more information about the inventor(s) and their research, please see Dr. Abbas' directory webpageDr. Phillips' directory webpage

M3 - Patent

ER -