|
Topic Name: Research center unites biomedical competitors to fund medical technology development
Category: Biomedical
Research persons: Balakrishna Haridas, PhD
Location: G-44 Health Professions Building, PO Box 670573 , Cincinnati, OH 45267-0573, United States
Details
The University of Cincinnati (UC) has
received $1 million to establish a research center that will allow competing
biomedical companies to pool their funding to develop new medical technologies
for minimally invasive surgical procedures.
Known as the Minimally Invasive
Medical Technologies Center (MIMTeC), the collaboration will focus on
translational research that enables U.S. companies to bring the next generation
of minimally invasive medical technologies to market.
The center’s initial funding comes from a five-year grant from the
National Science Foundation’s (NSF)
Industry/University Cooperative Research Center program and membership fees from
a consortium of
national biomedical device companies.
Biomedical device companies will commit to at least a three-year, renewable
membership in MIMTeC, which entitles them to propose, review and vote on
research projects that may benefit the entire group. Device manufacturers are
also eligible for affiliate membership in the center, which will allow them to
stay up to speed on the emerging technologies they will need to produce future
devices.
"By collaborating with academia to conduct unbiased research," explains
center director
Balakrishna Haridas, PhD, "industry stakeholders can share the cost of
developing new design methodologies and experimental research tools applicable
to each company’s product development pipeline. MIMTeC is a national resource in
that, when the research is complete, all industry partners will have access to
the technologies."
Haridas, associate professor of
biomedical
engineering, spent more than 10 years designing biomedical devices for
companies like Medtronic, Boston Scientific and Ethicon Endo-Surgery prior to
joining UC.
The center is the result of two years of collaboration between UC’s
biomedical engineering department and the Center for Surgical Innovation, whose
executive director, Chuck Doarn, will serve as administrative director of
MIMTeC.
Current members of MIMTeC include Ethicon-Endo Surgery, Procter and Gamble,
Boston Scientific, Medtronic, Cordis Corp., the
U.S. Army and
Greatbatch Inc.
Haridas says he expects the center to fund about six projects a year, split
equally between UC and its institutional collaborator, the University of
Minnesota. Projects will increase as more companies join and contribute funds to
the center.
Most projects will fall within four broad research themes—tools and
algorithms to measure in vivo properties of tissues and organs; laboratory and
computational models of tissues and device interactions that mimic in vivo
conditions; instrumentation design for image-guided interventions; and miniature
embedded sensors (nanotechnology) used to measure the biophysical properties of
device-tissue interactions during surgery.
"We’re looking at specific design methods and experimental techniques that
can be used to test new interventions—for example, computer-simulated scenarios
to predict how human tissue responds to a device made of a specific material, or
noninvasive methods to determine the physics of
interactions
between device and tissue," explains Haridas.
These themes meet the center’s goal of developing fundamental enabling
technologies that member companies can use to develop minimally invasive
interventions.
"It’s a great model," Haridas adds, "because it gives our industry partners
access to unbiased research and the university countless opportunities for
students to get hands-on training in biomedical research relevant to industry."
"At the same time, the underlying model for the center permits timely public
disclosure of research in the form of publications and allows students working
at the center to disseminate the research results."
Haridas says the benefits to UC go far beyond the increased royalty licenses
acquired through the research projects.
"Tremendous synergy will be built through this center," he says. "And it’s
not just within the biomedical engineering department. It’s collaboration
between the colleges of engineering and medicine, between industry and academia,
between our students and industry."
"MIMTEC builds upon existing partnerships and collaborations, which use UC
research core facilities like the Center for Surgical Innovation," adds Doarn.
"The MIMTEC partnership provides a platform for innovation and discovery,
bringing industry, government and academia closer together."
Being an
NSF-designated research center also allows UC to apply for much larger
grants from the federal government that would allow the university to obtain
matching funds from industry for cooperative research projects. Increased
research will also provide training opportunities for students as they prepare
for careers in the biomedical industry.
"The expanded learning opportunities that MIMTeC provides will essentially
allow us to mold the next generation of the biomedical engineering workforce,"
adds Haridas.
Haridas, Doarn and the others currently conducting research projects for
MIMTeC have no financial interest in the center’s member companies.
About Researcher :
Balakrishna Haridas, PhD
Specialty: Biomedical Engineering
Sub-Specialty: Biomedical Devices
Department: Biomedical Engineering
Title: Director--Minimally Invasive Medical Technologies Center, Associate
Professor of Biomedical Engineering
Phone: (513) 556-3745
E-mail: bala.haridas@uc.edu
Home Page:
http://www.eng.uc.edu/dept_biomed/bmeat...
PHOTO CREDIT:
This photo is the property of the University of Cincinnati. Use of this photo
requires credit to the University of Cincinnati. If you have any questions,
please contact Academic Health Center public relations at (513) 558-4553 or
uchealthnews@uc.edu.
Related Online Resource:
The
Biology Project: Biochemistry,
Biomedical
engineering
Department of Biochemistry, University of
Oxford
| Related research: |
BEST WAY TO DETECT AIRBORNE PATHOGENS, Bone graft alternative, Predict cells' response to drugs, Radiation Therapy for Cancer Patients Controlled & Could Speed Up by Machine Learning, 21st-century pack mule: MIT's 'exoskeleton' lightens the load, 3D Ultrasound brain scanner : successfully image the brain, 450 new terms for describing gene products involved in microbe-host interactions., A new model of lie detector, A signaling pathway crucially involved in Crohn's disease and Ulcerative Colitis, Bath Pain Management Unit has developed an observational tool, Biomarker, or biological indicator, for early diagnosis of neurological disorders, Biomolecular World : connections among biology and physics, and molecules and computers, Brain scanning experiment shows how much we take others' earnings as a measure of our success, Cloning from Adult DNA, Compute-intensive applications : The new Cell Accelerator Board, Cornell University's researchers discover hormone that may lead to safe treatment for hypertension, Detect cancer and neurological diseases by identifying certain molecules present in human blood or urine, Developed simple bladder cancer test, Different biomolecules (DNA, proteins, etc.) in a single sample, Duke scientists map imprinted genes in human genome, say a modern-day Rosetta stone, Emotions play a part in moral judgments, Factors of Prostate Cancer Risk, FINDING SURVIVORS, PROTECTING DRIVERS, Firsts with Bursts of Light ,Team generates most energetic terahertz pulses yet, observes useful optical phenomena, Fluorescence microscopy : medical, commercial applications
|
|