International
Assessment of Research and Development in Technologies for Persons with
Disabilities
| Objectives
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Methodology | Scope
| Tasks
| Schedule
|Budget
| References
Introduction
This
statement of work is a brief plan for conducting a
comparative assessment of foreign and
U.S.
research and development
activities relatedto technologies for persons with disabilities. The purpose of the study
will be to compare
research on disability, rehabilitation, and other research on the
development
of technologies for independent living ongoing in the
United States
with that being conducted abroad.
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Major
Objectives of Study
The
objectives of the
international assessment would be to:
-
Guide and
justify U.S. research investments
-
Look
for good
ideas abroad (technology transfer)
-
Look for
opportunities for cooperation and
collaboration
- Compare
U.S.
R&D programs and status with those
abroad
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Methodology
The
study would be organized on
behalf of the
sponsors by WTEC, which is a nonprofit research institute funded by
grants from
NSF and ONR. Additional
support from the
NIH, DOE, NIST, NASA, and several research agencies of DOD has been
made
available via NSF and ONR. Panels of experts using the WTEC peer review
methodology have assessed international R&D in many
technologies including: nanotechnology,
tissue engineering, rapid
vaccine manufacturing, simulation-based engineering and science, and
many
others. Final
reports are posted at http://www.wtec.org/.
This
study builds on recent
WTEC international studies of R&D on brain-computer interfaces
(BCI) and
robotics. The BCI
study included some
facets of this field, like the use of internal and external sensors of
brain
waves to control prosthetic limbs and computers. It
was sponsored by NSF, NIH (NINDS and
NIBIB), U.S. Army TATRC, and two private foundations.
Chair Ted Berger led an eight-person expert
panel to study leading research at 27 labs in Europe and Asia. Springer has
recently published a book
version of the final report as a part of its WTEC international
technology
series (Berger 2008).
Another recent WTEC report
covered the broad field of robotics, including some coverage of the
extensive
national programs for personal and service robots to assist aging
populations. The
study was sponsored by
NSF, NASA and NIH. The
delegation
studied 50 leading labs in Europe and Asia. The final report has just
been published by
the Imperial College Press (Bekey 2008).
A
panel of U.S.
experts, nominated by sponsoring agencies
and recruited by WTEC, will conduct this study, using the WTEC
methodology of
peer reviews of research abroad, visiting the sites of the research
institutions and researchers who are noted for the most advanced work
in Europe
and Asia. The
results will be
presented in a public workshop soon after the panel
returns from abroad. An
academic quality
final report will serve to disseminate the results widely.
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Technical Scope
There is a wide variety of disability, rehabilitation, and
other enabling research being conducted in the United States, Europe,
and Asia
to develop technologies for independent living. Many such
activities in
the United
States
have been inspired by the Americans with Disabilities Act (ADA), and
more
recently by the New Freedom Initiative. As populations age, more people
need
such assistance, and there are substantial national initiatives abroad;
for
example, Japan
and Korea
have
sophisticated programs in personal and service robots for seniors.
Research by
the U.S. Government in these areas is coordinated by the Interagency
Committee
on Disability Research (ICDR).
Among others, the active projects include
technologies to support aging in place and the general issue of
independent
living. Some of these projects could profit from more
detailed knowledge
of similar projects abroad. One problem is that commercial activity in
the U.S.
can best
be described as a “cottage industry” where small
companies build custom
equipment for particular individuals, without fully exploiting
opportunities to
build larger markets by finding the requirements of other individuals
around
the world who might benefit from the same type of equipment. Thus,
there are
relatively few economies of scale realized in the production of devices
for
independent living. Knowledge from abroad could assist in
matching
requirements for larger numbers of individuals, and provide ideas for
making
more commercial success by U.S.
companies. However, the main thrust of the study would be
finding good
research and development themes being conducted abroad to better inform
program
officers and managers in Federal agencies of the opportunities that
could be
pursued here.
The purpose of the proposed
study will be to gather data
concerning international activities in this domain, including:
- Funding
sources
- Customer
bases –
requirements of the communities served
- Goals
and methodologies of research
projects
- Findings
from research and
development
- Industry
and market development
The
results would be
expected to
contribute to
future research planning efforts by the NSF, and the U.S. Government
generally,
and its partners overseas, and to enhance international technology
transfer.
Some
of the subjects to be
investigated can be termed
“technologies for independent living,” which is
intended to encompass a wide
variety of potential solutions for many issues that impede the
independence of
individuals in modern society. Issues
impeding independence that might be covered in the international study
could
include the following:
- Limited
or no vision or hearing
- Mobility
impairments
- Motor
function impairments
-
Cognitive
impairments
- Diseases
of aging, which may involve some of the
above
Technology
and
research areas that could be studied include the following:
-
Microfabrication
of prosthetic
and assistive devices
- Custom
manufacturing including
solid freeform fabrication (SFF)
-
Applications
of tissue engineering
- Sensory
and motor function
rehabilitation, substitution, and control
- Biological
batteries
- Robotics
(e.g., for assistance on
demand)
- Materials
(e.g., for improved
mobility devices with improved strength-to-weight ratios)
- Biosensors
(e.g., for realtime in situ
diagnostics)
- Sensory
translation technologies
- Novel
and “intelligent” (e.g.,
accessible) interfaces for computers, homes, offices, and shopping and
transportation systems
- “Intelligent
home” systems
- Applications
of mobile wireless
systems
- Telemedicine
and “in-home healthcare”
systems
- Educational
techniques and
related technologies for persons with disabilities
- Neural-neural
and neural-muscular
interfaces
- Detection
of imminent failure in
prostheses
- Related
issues in software,
systems analysis, and control
In
this initial study
the focus will be on technologies for enhancing mobility and
independent
living. The
subtopics with tentative
assignments of expert panelists were presented at the kickoff meeting
as
follows:
-
Overview of the Need/Disabling
Conditions: MS, CP,
stroke, SCI, arthritis, amputation,
orthopedic injury, TBI, balance impairments, aging,
cognitive impairment
(Aisen, Boninger)
- Prostheses
(TBD, add authors to
all chapters)
-
Exoskeletons (Reinkensmeyer)
-
Robot- and Computer-based Movement
Training (Reinkensmeyer, Aisen)
- Wheelchair
technologies (Boninger)
- Joint
injury prevention and
orthopedic implants (Fregly)
- Functional
electrical stimulation
(Boninger)
- Control*
- Assistive
robotics/smart homes*
- Fall
prevention technology*
One
or more of the starred topics
will be covered if
funds permit additional panelists.
Finally, beyond the above,
the study may also address the
following nontechnical issues:
- Mechanisms
for enhancing international and
interdisciplinary cooperation in the field
- Opportunities
for shortening the lead time for
deployment of new technologies emerging from the laboratory
- Long
range research, educational, and
infrastructure issues that need to be addressed to promote better
progress in
the field
- Current
government R&D funding levels
overseas compared to the United States,
to the extent data are available
The above list of topics,
including the focus on R&D
for mobility, will be refined by expert panel members in consultation
with the sponsors
at the study kickoff meeting.
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Tasks
Task 1
WTEC,
in
consultation with study sponsors, shall select a panel of six (6) U.S.
experts
in the field (including the panel chair) who are familiar with the
issues and
technology elements listed above for research and who are also current
in
international activities in the field. The
panel chair shall have sufficient stature in
this field to command
respect in recruitment of panelists, and make presentations of results
to his
or her peers. The
chair also will have
the necessary skills in leading a panel to efficiently conduct the
study. (Note: Most
of the panel has been recruited:
David Reikensmeyer PhD (chair), Mindy Aisen MD PhD, Michael Boninger
MD, B. J.
Fregley PhD. See http://wtec.org for pix)
Task 2
The
panel shall be organized
at a kickoff meeting to be held in the Washington, DC
metro area. The chair will define the
scope of the study
(with guidance from all of the agency sponsors) and assign each
panelist a
section of the final report based on his or her area of expertise
within the
field. A schedule
for the study will be
established, including dates for the workshop and completion of the
final
report. During the
preliminary study,
WTEC shall assist the panelists by conducting electronic literature
searches to
locate sites to visit and to help evaluate research leadership via
bibliometrics. Passworded
and public
websites will be established and maintained by WTEC during the course
of the
study as needed to facilitate the work of the panel. (Note: the kick
off
meeting was held at NSF on January 7, 2010)
Task 3
It has been proven in
previous R&D assessments that
visits to foreign laboratories greatly improve the amount, accuracy,
and
timeliness of the information available to the panelists.
Thus, WTEC shall organize
a fact-finding trip
for the panel to visit centers of excellence in research on the subject
technologies at selected sites abroad. WTEC
has found that professional advance work for
these trips is highly
beneficial, thus advance work will be performed by proven WTEC
consultants. The
study will benefit from existing networks of colleagues in other
countries that
officials of ICDR member agencies have developed.
This budget assumes that the panel will
travel to Western Europe (probably including the UK, Finland,
France, Germany,
and the Netherlands)
or to
Asia (Japan, South Korea,
and China). Optionally
the scope could be expanded to
cover both regions or other selected countries.
Task 4
With the assistance of NSF
field offices, the contractor shall organize local workshops in Tokyo,
Beijing and Paris (as these cities
are visited by the WTEC delegation) to more efficiently gather
information from
local researchers. As it has done many
times before, WTEC will identify a local host scientist to chair the
workshop
and coordinate invitations to participants.
Approximately 15 local participants would be invited to present their
research activities and findings. For reciprocity, the WTEC panelists
would
make a similar presentation on their work in the U.S. WTEC
will capture electronic versions of all
presentations and make them available as a workshop report on its Web
site and
on CDs.
Task 5
The
contractor shall organize a final workshop in the Washington, DC
area for the presentation of the overall results.
Approximately 60 key participants from
government and the private sector would be expected to attend a one-day
presentation and discussion of the results.
Each panelist will make a 30-minute presentation with visual aids of
his
or her findings, and the chair will provide an overall
summary. WTEC will print 100 copies of a workshop
proceedings in time for the workshop meeting.
This public workshop will be preceded by a one-day private meeting of
sponsors and panelists.
Task 6
Panelists
will draft a complete final report with illustrations and
citations. Site reports will be included as an
appendix. WTEC will edit the report into
academic quality and will convert the complete final written report
into Adobe
Acrobat (pdf) formats and make it available on the WTEC Web server and
on
CD-ROM.
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Schedule,
Milestones, & Deliverables
The schedule for the study
will be determined at the
kickoff meeting by mutual agreement of the sponsors, WTEC staff, and
panel
members. However, a
typical schedule and
associated deliverables are shown below. The
term “or” means the latter
of two events. The
schedule presented below is a plan for
finishing the study in 12 months, although 18 months is allowed to
provide time
for dissemination activities that may extend for some months after the
report
is complete.
a.
kickoff
meeting -- approximately one month after project initiation (API)
(delivery of
draft scope of panel work and panelist data)
b.
foreign site visits completed -- approximately five
months
API
c.
draft site reports from the site visits -
approximately six
months API or within six weeks after the last site visits
d.
workshop -- approximately seven months API or within
two
months after the last site visits (hard copies of presentation material
delivered and posted on Web shortly thereafter)
e.
draft analytical report -- approximately ten months
API or
three months after the workshop
f. final report -- approximately
twelve months API or two months after the
draft report is sent to the site visit hosts for review (printed
report, 100
copies total, simultaneously placed in pdf format on a CD and the WTEC
public
website -- the primary means of dissemination).
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For more information:
Duane
Shelton, WTEC, 717-659-7714,
shelton@wtec.org
Ben
Benokraitis, WTEC, 410-467-9832, vbenokraitis@scienceus.org
Selected
References:
1.
www.nsf.gov/eng/cbet/aiche/25_5342_research_aid_persons_disabilities.ppt
2. Berger, T. et al., Brain-Computer
Interfaces: An International
Assessment of Research and Development Trends, Dordrecht:
Springer, 2008.
3. Bekey,
G. et al., Robotics:
State of the Art and Future Challenges, London:
Imperial
College
Press, 2008.
4.
National Institute on
Disability and Rehabilitation Research (NIDRR) http://www.ed.gov/about/offices/list/osers/nidrr/index.html
5. National Center
for Dissemination of Disability Research http://www.ncddr.org
6.
National
Rehabilitation Information Center (NARIC) http://www.naric.com/
7.
Journal of Rehabilitation Research and Development – mostly U.S. Papers,
sponsored by VA, 103 papers in
2007.
8.
International Journal of Rehabilitation Research – mostly non-U.S.
Papers, 123 of 177 in 2007.
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![[Dr. Reinkensmeyer]](pics/d_reinkensmeyer.jpg) |
David Reinkensmeyer, Ph.D, (Chair), University of California, Irvine
David Reinkensmeyer received the B.S. degree in electrical engineering from the Massachusetts Institute of Technology, Cambridge in 1988, and the M.S. and Ph.D. degrees in electrical engineering from the University of California, Berkeley in 1991 and1993, with dissertation work on human control of hand movements and robotic devices for movement therapy after stroke. He was a postdoctoral fellow then research assistant professor in the Sensory Motor Performance Program, Rehabilitation Institute of Chicago and Department of Physical Medicine and Rehabilitation, Northwestern University Medical School from 1994 – 1998. He joined the Department of Mechanical and Aerospace of Engineering and the Center for Biomedical Engineering at the University of California, Irvine in 1998.
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![[Dr. Bonato]](pics/p_bonato.jpg) |
Paolo Bonato Ph.D, Harvard Medical School Paolo Bonato received the M.S. degree in Electrical Engineering from Politecnico di Torino, Torino, Italy (1989), and the Ph.D. degree in Biomedical Engineering from Università di Roma “La Sapienza”, Roma, Italy (1995). He serves as Director of the Motion Analysis Laboratory at Spaulding Rehabilitation Hospital, Boston, MA, he is Assistant Professor in the Department of Physical Medicine and Rehabilitation, Harvard Medical School, and he is member of the Affiliated Faculty of the Harvard-MIT Division of Health Sciences and Technology. Dr. Bonato is IEEE Senior Member, IEEE EMBS AdCom elected member, and past president of Kinesiology. He served as Chair of the IEEE EMBS Technical Committee on Wearable Biomedical Sensors and Systems. He founded and Editor-in-Chief of Journal on Neuroengineering and Rehabilitation. Dr. Bonato has co-authored more than 40 research papers and 150 conference proceedings. His research work is focused on wearable technology and its applications in physical medicine and rehabilitation. He has developed intelligent signal processing tools and artificial intelligence methods for the analysis of data recorded using wearable sensors with application to numerous clinical conditions such as chronic obstructive pulmonary disease, epilepsy, stroke, and Parkinson’s disease. |
![[Dr. Boninger]](pics/m_boninger.jpg) |
Michael Boninger, M.D., University of Pittsburgh Michael Boninger is professor and Chair of the Department of Physical Medicine and Rehabilitation and Associate Dean for Medical Student Research in the School of Medicine. Since November 2007, Dr. Boninger has directed the UMPC Rehabilitation Institute, which combines medical care and research to help individuals regain independence and enhance their quality of life. Dr. Boninger also directs University of Pittsburgh’s Model Center on Spinal Cord Injury and serves as medical director of the Human Engineering Research Laboratories, a joint venture of the University of Pittsburgh Medical Center, the University of Pittsburgh, and the VA Pittsburgh Healthcare System. Dr. Boninger holds five U.S. patents and is recognized for his research on spinal cord injury, assistive technology, and overuse injuries, particularly those associated with manual wheelchair propulsion. Dr. Boninger has authored more than 150 peer-reviewed journal publications, 20 book chapters, and nearly 200 refereed conference papers. Dr. Boninger graduated from Ohio State University with both a medical doctorate and a degree in mechanical engineering. |
![[Dr. Chan]](pics/l_chan.gif)
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Leighton Chan, M.D., National Institutes of Health, Clinical Center
Leighton Chan received his B.A. degree from Dartmouth College, Hanover, New Hampshire with a major in political science. He graduated from the UCLA School of Medicine in 1990. Chan then completed postgraduate training in Physical Medicine and Rehabilitation at the University of Washington. During his training he also obtained a Master of Science degree in rehabilitation science. Subsequently, he completed a Robert Wood Johnson Clinical Scholar Fellowship, earned a master of public health degree at the University of Washington School of Public Health and was a Congressional Fellow for the Honorable Jim McDermott (Washington). From 1994 to 2006, Dr. Chan was on the faculty of the University of Washington’s Department of Rehabilitation Medicine. From 2002 to 2006, he was associate professor. He is board certified in physical medicine and rehabilitation and in electrodiagnostic medicine. His research interests include health services research, quality of care given to Medicare beneficiaries, and Medicare payment policy issues. He has published more than 70 peer reviewed articles and numerous book chapters. In 2007, he was elected to the Institute of Medicine
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Rachel Cowan, Ph.D, University of Miami Rachel Cowan is a post-doctoral fellow in the laboratory of Dr. Mark Nash at The Miami Project to Cure Paralysis, received the Fritz Krauth Memorial Fellowship for her new grant funded by the Paralyzed Veterans of America (PVA) Research Foundation 2010 grant cycle. Dr. Cowan’s grant is titled “Barriers & Participation after SCI: Relationship with Fitness & Mobility”. It is known that manual wheelchair users commonly report poor fitness and the physical environment as barriers to achieving their desired level of participation in the community. Dr. Cowan hypothesizes that a person’s fitness and wheelchair self-propulsion ability are related to their participation, view of the environment as a barrier, and choices to avoid environmental barriers (such as curbs or ramps). In addition to her scientific expertise, she has extensive personal knowledge about this topic because she has a spinal cord injury herself; she utilizes a manual wheelchair for mobility and balances participation and environmental barriers on a daily basis. Her long-term research goal is to facilitate participation by improving fitness and/or self-propulsion capacity, thereby enabling persons with SCI to independently navigate environmental features which were previously unconquerable.
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B.J. Fregly, Ph.D, University of Florida B.J. Fregly is the director of the Computational Biomechanics Lab at the University of Florida. The research focus of the lab is on clinical problems related to knee osteoarthritis. Existing projects involve: 1) computational simulation of knee osteoarthritis development, 2) computational design of a rehabilitation treatment for knee osteoarthritis, and 3) computational estimation of knee muscle and contact forces during walking using novel surrogate modeling techniques. An overarching theme for these projects is patient-specific musculoskeletal modeling, where dynamic models calibrated to patient imaging and movement data are used to design optimal treatments. Dr. Fregly has published over 100 papers involving musculoskeletal modeling, simulation, and optimization with an emphasis on analysis of the human knee joint. Before joining the University of Florida, Dr. Fregly completed a post-doctoral fellowship in biomechanics at the University of Lyon in France. He also worked in industry as a software developer for Parametric Technology Corporation. Dr. Fregly earned a B.S. degree in Mechanical Engineering from Princeton University and M.S. and Ph.D. degrees in the same field from Stanford University.
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Mary M. Rodgers, PT, Ph.D, University of Maryland School of Medicine
Mary Rodgers is the George R. Hepburn Dynasplint Professor and Chair, Department of Physical Therapy and Rehabilitation Science (PTRS), University of Maryland School of Medicine. Her major research interest is in rehabilitation biomechanics and overuse injury prevention. Over the past two decades, Dr. Rodgers has performed extensive clinical investigation in individuals who use manual wheelchairs that has been supported by grants from the NIH-NCMRR and the Veterans Administration. As Director of the Pilot Exploratory Studies Core and co-PI of the Research Career Development Core, Dr. Rodgers is heavily involved in the mentorship, educational and dissemination efforts of the University of Maryland Claude D. Pepper Older Americans Independence Center. Dr. Rodgers’ track-record of productive patient-oriented research includes 32 publications in high quality journals, and the mentoring of three post-doctoral fellows, 7 PhD students and four MS students in rehabilitation biomechanics. She has also published four book chapters and co-authored a book. She has published extensively on topics related to gait biomechanics and neuromuscular performance in elderly and neurologically impaired individuals. She is internationally recognized in the field of Biomechanics, and serves this community in a number of leadership roles, including serving as President of the International Society of Biomechanics, being on the editorial board of several journals, reviewing articles and sitting on study sections.
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