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RFID technology explored to improve safety,
quality of the nation's Blood Supply
Newswise — Radio frequency identification
technology, or RFID, has inspired many novel
applications of late, including efforts to
study magazine reader patterns, access
restricted areas, locate stolen vehicles and
track luggage at major airports.
A new application under investigation at the
University of Wisconsin-Madison would
further expand the RFID frontier into a
vital health-care concern: Ensuring the
safety and quality of the nation's donor
blood supply.
The UW-Madison RFID Lab, based in the
College of Engineering, has partnered with
three national blood centers to study the
feasibility and develop prototypes for using
RFID to manage the entire supply chain in
blood transfusion medicine.
The team has already completed feasibility
studies related to safety and economic
benefits and is in the process of testing a
prototype RFID system to identify, track and
monitor the condition of blood products.
Alfonso Gutierrez, UW-Madison's RFID lab
director, says the project began three years
ago when Rodeina Davis, CIO of the
Milwaukee-based Blood-Center of Wisconsin (BCW),
inquired about whether RFID technology could
be an upgrade over the current use of bar
codes to track blood.
BCW became the first of three partners in
the research study, joined by Carter Blood
Care in Dallas and Mississippi Blood
Services in Jackson, Miss. Collectively,
these three centers collect more than
500,000 blood donations annually.
"The major driver of this project is
improving patient safety by providing
greater assurances of giving the right blood
to the right people," says Gutierrez.
"Blood products are also susceptible to many
conditions, such as age, temperature and
human error, that can nullify their medical
value.
"We
are looking at supply chain improvements
that will lead to better safety and quality,
and also achieve efficiencies that would pay
for the technology."
Davis says bar-coding technology is restricted to line-of-sight,
unit-by-unit readings, and is of no use when
bar-coded materials are in sealed boxes.
"With the ongoing volume of shipments to hospitals
every day and the quality checks required,
being able to read multiple items
simultaneously, without a line-of-sight
restriction, can improve efficiency and
enable faster reaction times," Davis says.
Adds Gutierrez: "This is a project that
takes into account the entire supply chain -
as we say, 'from vein to vein.'
" The intent is to find the "pain points" that can lead to
human or system errors and use RFID in a way
that properly aligns the technology with the
real problems.
Blood transfusion errors remain a concern in
heath care. Gutierrez cited a 2005 U.S.
Department of Health and Human Services
report of 1,322 national medical treatment
centers that together reported more than
32,000 transfusion-related adverse reactions
during the 2004 year.
That number is not statistically large compared to the
estimated 25 million transfusions that are
performed each year, he says, but any
mistake can be significant in matters of
patient safety.
The most common mistakes included sample errors, handling
mistakes in the lab, labeling problems and
improper storage.
Engineering and business Professor Raj
Veeramani, director of the UW-Madison
E-Business Consortium that hosts the RFID
research effort, says that while the team is
developing its prototype RFID system for the
blood bank environment, it is also beginning
work on the hospital end of the study.
Along with BCW's Davis, Veeramani is the campus principal
investigator of a National Institutes of
Health grant that will support a partnership
with several hospitals, including the
University of Iowa Medical School and
Mississippi Baptist Health.
The Brookfield, Wis.-based technology firm Syslogic is also a
direct partner in the project. The company
will be involved in identifying some of the
problem points in the hospital environment
and helping hospitals address those issues
using RFID-enabled products.
"This project is a testament to the kind of
multi-disciplinary research and technology
transfer that UW-Madison is uniquely
positioned to do," Veeramani says.
A number of UW-Madison faculty and students lent expertise in
areas such as health systems engineering,
supply-chain management and wireless
communications.
One completed part of the project examined the financial
feasibility of using RFID together with bar
codes in the blood center setting.
Disposing
of donated blood due to mishandling or other
concerns costs more than $200 per unit, and
a typical mid-sized blood center may need to
discard 15,000 to 20,000 units each year.
By improving the identification and quality control through
RFID, the researchers estimated it could
save the blood banking industry more than $9
million per year after full implementation
and result in 40,000 to 45,000 fewer units
of blood products needing to be discarded.
The RFID industry is only scratching the surface of the
technology's potential in the health care
and pharmaceutical fields, Gutierrez says.
For example, the UW-Madison team is starting
to assess RFID as a way to better monitor
and maintain "mobile assets" such as IV
pumps and other devices that doctors move
from patient to patient.
RFID would not only identify their locations across the
hospital, but the technology can also notify
users when maintenance is needed, Gutierrez
says.
"The blood supply is a very good application
in my view because it's such a major part of
the safety and quality of health care," he
says.
Davis adds that the industry enthusiasm has
grown now that some basic measures of
financial viability have been demonstrated.
"Tough questions such as, 'can we afford
it?' and, 'is our cost recoverable?' are
business questions that previously had no
answers due to the number of unknowns."
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