Skip to main content
- Smaller Text | + Larger Text

NIH Funds Robots to Assist People with Disabilities

Printer icon
  • Synopsis: New research in robotics might help with stroke rehabilitation, guide wheelchairs, and assist children with Autism - Published: 2014-12-11 (Rev. 2016-03-26). For further information pertaining to this article contact: NIH at nih.gov.

Main Document

"Technology is becoming more and more adaptable in all areas of our life, from GPS in cars to speech recognition technology on smart phones."

Projects investigating co-robotics are the focus of new funding from the National Institutes of Health (NIH).

This is the third year NIH has participated in the Interagency National Robotics Initiative (NRI) to support research to develop innovative co-robots - robots that work cooperatively with people. Other participants are the National Science Foundation, the National Aeronautics and Space Administration, and the U.S. Department of Agriculture. Funding for these projects totals approximately $2.3 million over the next five years, subject to the availability of funds.

"Technology is becoming more and more adaptable in all areas of our life, from GPS in cars to speech recognition technology on smart phones," said Grace Peng, Ph.D., program director of Rehabilitation Engineering at the National Institute of Biomedical Imaging and Bioengineering (NIBIB). "With these awards, we hope to encourage robotics researchers to think of new ways to apply their technology in the realm of health care."

Wearable exoskeletons to induce recovery of function

Using a robot arm, Cathy was able to lift a bottle and drink for the first time in 15 years
Using a robot arm, Cathy was able to lift a bottle and drink for the first time in 15 years
Recovering limb movement after a stroke can be difficult and frustrating for patients. Research suggests that repeatedly using the affected arm in goal-directed, purposeful movements after a stroke can help promote recovery. This kind of movement is most successful when supervised by therapists. This project hopes to extend therapy into the home by providing patients with a lightweight robotic exoskeleton that can be placed on an affected arm and provide the kind of therapeutic guidance found at a rehabilitation center. Richard Brent Gillespie, Ph.D., University of Michigan, Ann Arbor, Funded by NIBIB, EB019834

A computer vision-based active learning co-robot wheelchair

This project hopes to provide a solution for elderly and patients with disabilities who have limited hand functionality and who rely on wheelchairs for mobility. Researchers hope to create a system and chair that can be controlled by the user's head movements and will adapt to the individual user. A camera placed on glasses worn by the user can capture head movements designed to control the chair as well as adapt to individual users by gaining information as the patient responds to various situations in natural ways (such as turning their head as their attention shifts). The hope is that the robotic wheelchair will be able to operate almost completely autonomously and only ask for human control on an as-needed basis - learning from the human controls so as to reduce the necessity for human participation in the future. Gang Hua, Ph.D., Stevens Institute of Technology, Hoboken, New Jersey Funded by the National Institute of Nursing Research, NR015371

Music-based interactive robotic orchestration for children with autism

Many new technologies for children with autism have been developed and demonstrated the possibilities of robotic applications in therapy, but most rely on speech interaction and task-based scenarios. To more effectively stimulate the various emotional and social inter-activities of children with autism, researchers need to take further steps to incorporate multiple types of stimuli. Recent studies have shown improvements in social skills among children with autism who were encouraged to improvise with musical instruments or song. This project aims to develop a music-based system that will help children with autism interact with a robotic companion in a safe and natural manner. The results of this study have the potential to help develop innovative interventions for autism.

Chung Hyuk Park, Ph.D., New York Institute of Technology, New York City Funded by the Eunice Kennedy Shiver National Institute of Child Health and Development, HD082914

The funding opportunity announcement (FOA) for NRI funding in 2015 was announced in Oct. 16, 2014 and NIH is specifically promoting assistive robotic technology. NIH will accept applications for exoskeletons or surgical robotics directly through NIH FOAs, and not through the NRI, grants.nih.gov/grants/guide/notice-files/NOT-EB-14-008.html.



Related:

  1. Exoskeleton Robots for Wheelchair Users - www.exoskeleton-suit.com - (2010-10-28)
    https://www.disabled-world.com/communication/community/exoskeletons.php
  2. Exoskeleton Robotic Legs Provide New Option for Wheelchair Users - Rex Bionics - (2010-08-24)
    https://www.disabled-world.com/assistivedevices/rex-bionics.php
  3. Indego - New Exoskeleton Device - Parker Hannifin Corporation - (2013-01-21)
    https://www.disabled-world.com/assistivedevices/mobility/indego.php





Newsletter

     What will I receive?

Money ChartLoan Information for low income singles, families, seniors and disabled. Includes home, vehicle and personal loans.


Abraham LincolnFamous People with Disabilities - Well known people with disabilities and conditions who contributed to society.


Pink awareness ribbonList of awareness ribbon colors and their meaning. Also see our calendar of awareness dates.


Chart IconBlood Pressure Chart - What should your blood pressure be. Also see information on blood group types and compatibility.


  1. Report: Global Learning Disability Partnering 2010 to 2017
  2. 2018 Education Budget Summary and Key Points
  3. Declawing Linked to Aggression and Other Abnormal Behaviors in Cats
  4. Russia Facing Ban From PyeongChang 2018 Paralympics




Citation