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         Biomedical Engineer:     more books (80)
  1. Mathematical Methods in Scattering Theory And Biomedical Engineering: Proceedings of the Seventh International Workshop, Nymphaio, Greece, 8-11 September 2005
  2. Advances in Heat and Mass Transfer in Biotechnology: Presented at the 1996 International Mechanical Engineering Congress and Exposition, November 17-22, ... Atlanta, Georgia (Htd (Series), Vol. 337.)
  3. Proceedings of the 1997 Bioengineering Conference: Presented at Sunriver, Oregon, June 11-15, 1997 (Bed (Series), Vol. 35.) by Oregon) Bioengineering Conference (1997 Sunriver, K. B. Chandran, et all 1997-01
  4. New Biology for Engineers and Computer Scientists by Aydin Tozeren, Stephen W. Byers, 2003-05-09
  5. Biomedical Systems Analysis via Compartmental Concept (Cybernetics and Systems) by R. F. Brown, 1989-01-01
  6. Saratov Fall Meeting '98: Light Scattering Technologies for Mechanics, Biomedicine, and Material Science (Proceedings of Spie--the International Society for Optical Engineering, V. 3726.) by Russia) Saratov Fall Meeting 9 (1998 Saratov, 1999-03
  7. Proceedings of Specialty Fiber Optics for Medical Applications: 24-25 January 1999 San Jose, California (Progress in Biomendical Optics, Vol 3596)
  8. Biomedical requirements for manned space flight (SAE) by William M Helvey, 1965
  9. Biomedical transport phenomena (AIChE today series) by Edwin Niblock Lightfoot, 1969
  10. Biomedical Polymers: Design, Structure, and Properties by Jindřich Kopeček, 1997
  11. Protein folding and misfolding: Mechanisms and biomedical implications by Tuan Vo-Dinh, 1998
  12. Preparing the clinical engineer for a key role in site and project planning and design within a partnering format (Healthcare facilities management series) by Joseph P Paramucha, 1998
  13. Biomedical Fluid Mechanics Symposium by Richard J. Nickerson, 1966
  14. Fundamentals of Biomedical Heat Transfer: 1994 International Mechanical Engineering Congress & Exposition, Chicago, Illinois - November 6-11, 1994 (Htd)

81. Biomedical Engineering At WSE - Johns Hopkins Engineering
WSE Home Research biomedical engineering at WSE, Print this page. back to Bioengineering Opportunities main page Biomedical
http://engineering.jhu.edu/biomedical-engineering/
Departments Centers Office of Research Faculty Profiles ... Guide to Giving Search WSE: Departments Centers Office of Research Faculty Profiles ...
Biomedical Engineering - main web site

Gourman Report and t have rated the Johns Hopkins Biomedical Engineering Undergraduate Program the best in the country for the last few years and "America's Best". Programs Directors: Professors Artin Shoukas ( ashoukas@bme.jhu.edu ) and Aleksander Popel ( apopel@bme.jhu.edu ). For information contact Cathy Jancuk ( cjancuk@bme.jhu.edu
home
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82. WSE Faculty And Staff Directory - Johns Hopkins Engineering
biomedical engineering Click for Webpage 45 records listed. Kristi Aho, Staff,biomedical engineering. Robert Allen, Faculty, biomedical engineering.
http://engineering.jhu.edu/faculty-staff-directory-departments/?search_type=B&de

83. Institute Of Biomaterials And Biomedical Engineering, University Of Toronto
University of Toronto Institute of Biomaterials and biomedical engineering.Tissue Engineering at the University of Toronto To
http://www.utoronto.ca/IBBME/research/tissue.htm
Tissue Engineering at the University of Toronto "To Engineer Healing and Deliver Genes"
By Professor M.V. Sefton
Imagine a world where transplant patients do not wait for a donor or a world where burn victims leave the hospital without disfiguring scars. Imagine implant materials that can "grow", reshape themselves, or change their function as the body requires - materials that "sense" their surroundings and respond in an appropriate fashion and provide the basis for regeneration. Our goal is to engineer specific healing responses in the body by "Tissue Engineering" Tissue Engineering involves the development of a new generation of materials or devices capable of specific interactions with biological tissues. These combine novel materials with living cells to yield functional tissue equivalents. Such systems are useful for organ tissue replacement where there is a limited availability of donor organs or where, in some cases, (e.g., nerves) no natural replacements are available. These constructs are also useful as delivery vehicles for gene therapy. Controlling the tissue structure surrounding or within a material construct, ultimately requires control of the cells of the host that are drawn to or are affected by the implant. Tissue Engineering is built upon the basic cell biology of these host cells and the variety of signals that control their behaviour.

84. Biomedical Engineering - Introduction
What is a biomedical engineer? Interested in finding out what a biomedical engineerdoes? here we ll tell you what education an biomedical engineer must have.
http://www.bergen.org/Engineering/Biomedical_Engineering/

hehe

Lose this
(for now)
Intro to Biomedical Engineering
Welcome to the Biomedical Engineering Homepage! This website is part of a project assigned to the Freshman students at The Academy for Engineering and Design Technology in Hackensack, New Jersey. Our goal for this project is to provide resources through this website that will help you to increase your knowledge of Biomedical Engineering.
On behalf of the students at the Academy for Engineering and Design Technology, we welcome you and hope you have fun learning about Biomedical Engineering.
What is a Biomedical Engineer?

Interested in finding out what a Biomedical Engineer does? Check this out!
History

Did you know that Biomedical Engineering actually started because of World War II?
Learn about some of the problems faced by Biomedical Engineers... and how they solved them. Famous Engineers Come meet some famous Biomedical Engineers! A Day In The Life Of An Biomedical Engineer Find out what A Day In The Life Of An Biomedical Engineer would be like! Education Requirement Every one needs some education... here we'll tell you what education an Biomedical Engineer must have.

85. Science, Technology: Biomedical Engineering
biomedical engineer, David A. Sebok Resume of David Sebok, Ph.D.biomedical engineer. biomedical engineering Network - Biomedical
http://www.combose.com/Science/Technology/Biomedical_Engineering/
Top Science Technology Biomedical Engineering ... Tissue Engineering Related links of interest:

86. The Scientist - Whitaker Uses Endowment To Advance Healing
scientists like MicheliTzanakou to advance healing technologies, the Whitaker Foundation,created in 1975, has focused its giving on biomedical engineering.
http://www.the-scientist.com/yr2002/feb/prof1_020204.html
The Scientist 16[3]:47, Feb. 4, 2002
PROFESSION
Whitaker Uses Endowment to Advance Healing
Bioengineering-boosting foundation invests in the development of academic experts
E-mail
article
By Jennifer Fisher Wilson
Courtesy of Rutgers Photo Services
Professor Evangelia Micheli-Tzanakou (at left), along with bioengineering teammates (from left to right) Richard Lehman, Jian Zheng, and Jennifer Hamilton, pinpoint patients' abnormal brain cells via a microelectrode placed in the brain, which relays information about the precise location of the surgeon's probe in relation to the target in the brain.
Professor Evangelia Micheli-Tzanakou developed an experimental operation at Rutgers University that uses magnetic resonance imaging (MRI) and electrodes placed in the brain to reduce Parkinson's disease symptoms. Following surgery, patients walk and move without the usual unsteadiness that accompanies the disease. "The work is the most rewarding science I have done in my entire career," Micheli-Tzanakou says. The researcher also created the first computer-to-brain interface by combining computational intelligence with online brain activity recordings to analyze brain responses from humans and animals. To encourage scientists like Micheli-Tzanakou to advance healing technologies, the Whitaker Foundation, created in 1975, has focused its giving on biomedical engineering.

87. Department Of Biomedical Engineering
What IS biomedical engineering? Where Medicine Meets Technology. BiomedicalEngineering Your Future as a biomedical engineer. biomedical engineers
http://www1.umn.edu/bme/info/what_is_bme.html
What IS Biomedical Engineering?
Where Medicine Meets Technology Biomedical Engineering is a discipline in which engineering science and technology are applied to problems in biology and medicine. The best known accomplishments involve instrumentation and devices used for diagnosis and therapy such as the cardiac pacemaker, computerized imaging, the artificial heart, etc. Less well known, but of great importance, are the applications of basic principles to the quantative modeling and simulation of physiological systems. All areas of activity benefit from the recent and rapid growth of engineering technology, in particular micro-miniature devices and computers. For the biomedical engineering student, knowledge must be acquired in both engineering and the life sciences, as reflected in our academic program requirements. Research Examples Problems that biomedical engineering help identify, define and solve include instrumentation and device design, the design of computerized medical imaging algorithms and equipment, artificial heart valve analysis and design, the analysis of spinal biomechanics, laser applications, biomaterials and implant design, and quantitative modeling and simulation of physiological systems. Biomedical engineers design medical instruments for the diagnosis and treatment of various diseases as well as for research in biology. Examples of instruments for diagnosis include electrocardiographs, electroencephalographs, automatic blood analyzers, and medical imaging systems such as X-ray imaging, radio-nuclide imaging, ultra-sound imaging, computer-assisted tomography and magnetic resonance imaging.

88. Biomedical Engineering - Marquette University
Learn more about the biomedical engineering major at Marquette University,including advantages, suggested curriculum and where our graduates go.
http://www.marquette.edu/pages/home/student/undergrad/studyingatmu/majors/biomed
Home Become a Student Freshman Majors Biomedical Engineering DO WE HAVE YOUR MAJOR? Accounting Advertising Anthropology Athletic Training Biochemistry/Molecular Bio. Biological Sciences Biomedical Engineering Biomedical Sciences Business Administration Business Economics Chemistry Clinical Laboratory Science Communication Disorders Communication Studies Computational Mathematics Computer Engineering Computer Science Economics Education Electrical Engineering English Exercise Science Finance Foreign Languages History Human Resources Mgmt. Industrial Engineering Information Technology Interdisciplinary International Affairs International Business Journalism Marketing Mathematics Mechanical Engineering Medical Technology Nursing Operations/Supply Chain Mgt. Philosophy Physical Therapy Physician Assistant Studies Physics Physiological Sciences Political Science Pre-dentistry Pre-law Pre-medicine Psychology Public Relations Social Welfare and Justice Sociology Theatre Arts Theology Women's Studies APPLY ONLINE LIVING AT MARQUETTE GETTING INTO MARQUETTE TRANSFER STUDENTS ... VISIT MARQUETTE Biomedical Engineering College of Engineering Three majors: Biocomputing, Bioelectronics and Biomechanics

89. MSc In Biomedical Engineering And Medical Imaging
an interdisciplinary approach to problem solving in health care, and in particularthose seeking employment primarily as a biomedical engineer in hospital
http://www.medphys.ucl.ac.uk/teaching/postgrad/taught/msc/msc_bemi.htm
M.Sc. in Biomedical Engineering and Medical Imaging
New for 2003!!
Introduction
In the broadest terms Medical Physics and Biomedical Engineering is concerned with applying scientific and engineering knowledge, principles and methodologies to:
  • gain understanding of the normal functioning and malfunctioning (including disease processes and disabilities) of humans (and animals);
  • the development of diagnostic and therapeutic apparatus, instrumentation and techniques. Historically it has been essential for physicists, engineers and medical professionals to work closely in their endeavours, and indeed for the future, there will be an ongoing requirement to cross traditional subject boundaries. From a wider perspective University College London is addressing this need through "The Engineering Continuum" - a major new initiative which is motivated by the recognition that real world problems do not respect the boundaries of established academic disciplines.
    Course Overview
    The new MSc in Biomedical Engineering and Medical Imaging at UCL can be described as "a non-identical twin" for our existing MSc in Radiation Physics. This is because:
  • The MSc in Radiation Physics is aimed exclusively at those with an undergraduate physics degree, whereas the MSc in Biomedical Engineering and Medical Imaging has been designed for those with an engineering degree (though we have specified that a physics degree is also acceptable). We are therefore providing two pathways to careers in Medical Physics and Bioengineering (which is reflected in the name of our department).
  • 90. Applied Research - ME - Biomedical Engineering
    biomedical engineering or bioengineering is a relatively new fieldwhich dates back thirty years. While scientists have studied
    http://www.gmi.edu/acad/rescnslt/mebioeg.htm
    Mechanical Engineering
    Applied Research

    Home Page

    Other ME Research
    Competencies:
    Kettering

    Applied Research
    ...
    Home Page

    The arthritis example
    Biomedical engineering or bioengineering is a relatively new field which dates back thirty years. While scientists have studied the human body for millennia, it was only in the late sixties that engineers and medical experts came together in a concerted effort to: 1) understand the body's anatomy and physiology, and 2) design solutions to old and new medical problems. This effort has drawn engineers from all disciplines into a focused effort to apply basic engineering principles to the human body. As in conventional engineering, biomedical engineering has branched into two main areas: 1) experimental investigation and measurement, and 2) theoretical modeling and prediction. Both areas have experienced significant advancement over the previous thirty years. For example, numerous biosensors have been developed in response to the need of biomedical engineers. On a recent space shuttle mission, John Glenn swallowed a small, telemmetric temperature sensor which was used to monitor his core body temperature. In addition, electronic pressure mats are routinely used by podiatrists to determine the location of the foot's center of pressure and to design custom orthotics. Theoretical models have benefited from the introduction of faster computers which enable scientists to predict the tissue stresses throughout the body. This has been used to design sports padding: the body is modeled in the computer and an impact is simulated with no padding (i.e. tackled football player). Padding of various compositions may then be placed over the skin to determine the relative benefit to the player. Theoretical models are critical for the design of automobiles as cars are now crashed 'virtually' before a prototype has even been constructed. Such a process is important when designing for the safety of the occupant.

    91. Department Of Biomedical Engineering
    Department of biomedical engineering. Graduates in biomedical engineering are employedin industry, hospitals, research centers, government, and universities.
    http://www.cwru.edu/bulletin/02-04html/engineering2.html
    Department of Biomedical Engineering 319 Wickenden Building (7207)
    Phone 216-368-4063; Fax 216-368-4969
    Patrick E. Crago, Chair
    e-mail xx220@po.cwru.edu
    http://bme.cwru.edu BACKGROUND Biomedical engineering (BME) uniquely advances human health and the biological sciences by creating and applying technology based on phenomena described by the biological and physical sciences. Graduates in biomedical engineering are employed in industry, hospitals, research centers, government, and universities. Biomedical engineers also use their undergraduate training as a basis for careers in business, medicine, law, and other professions. The educational philosophy is to develop in students Mastery of Fundamentals Creativity Societal Awareness Leadership Skills Professionalism FACULTY Primary Appointments Patrick E. Crago, Ph.D. (Case Western Reserve University)
    Professor and Chairperson; Allen H. and Constance T. Ford Professor
    Control of neuroprotheses for motor function; neuromuscular control systems Ravi V. Bellamkonda (Brown University)
    Associate Professor
    Biomaterials; neural tissue engineering; 3D hydrogel based scaffolds; gene and protein delivery vehicles; vascular grafts and nerve regeneration

    92. Z029 - Bachelor Of Engineering (Biomedical Engineering)
    Graduates may work in biomedical areas of either the public sector, for examplein Alternatively, graduates may choose to work as an electrical engineer.
    http://domino.swin.edu.au/cd31.nsf/0/fa733ec3b427257cca2568c700213c3a?OpenDocume

    93. Graduate Catalog - Biomedical Engineering Program
    Program Information biomedical engineering Chemical Engineering Collegeof Engineering 4202 E. Fowler Avenue, ENB 118 Tampa, FL 33620.
    http://catalog.grad.usf.edu/current/program_engineering_biomedicalengineering.as
    Home Graduate Catalog 2003-2004 Programs and Degrees Offered Home ... College of Engineering
    4202 E. Fowler Avenue, ENB118
    Tampa, FL 33620
    Phone:
    Fax:
    813-974-XXXX
    E-mail Address:
    Dean:
    Associate Dean:
    Carlos Smith
    The College of Engineering offers graduate programs in both Engineering and Applied Sciences to meet the diverse demands of the future. This spectrum of program offerings provides the prospective student with a choice of avenues, depending upon individual interests, career objectives, and capabilities for significant technological contributions. Laboratory experience, as well as real-world participation in technological problem solving, is a key aspect of a professional engineer’s college education. The College of Engineering, in addressing this need, augments its own modern laboratory and research facilities by close contact with professional societies and the many industries in the metropolitan Tampa Bay area and beyond.
    If this program listing needs changes, please consult the Procedures for Updating or Adding a Program/College Program Information: Biomedical Engineering
    Chemical Engineering College of Engineering 4202 E. Fowler Avenue, ENB 118

    94. WPI Undergraduate Programs & Admissions - Academics: Biomedical Engineering
    biomedical engineering. Even more, a good biomedical engineer must be able to thinkcreatively to apply the principles of engineering to the problems at hand.
    http://www.admissions.wpi.edu/Academics/Programs/be.html

    Projects
    Faculty Academic Services Cooperative Education ... Graduation Requirements
    Information for:
    Select one... Accepted Students International Students Transfer Students Women Students of Color Parents Alumni Volunteers Search:
    Biomedical Engineering
    Developing tools and techniques to enhance the state of health care is what biomedical engineering is all about. Using engineering principles, biomedical engineers solve complex problems in biology and medicine, with the aim of enhancing health care. They develop prosthetic limbs and joints, artificial hearts and valves, medical imaging systems, diagnostic sensors and monitors, therapeutic devices, and biocompatible materials. They also produce computer models that help doctors and researchers see how biological systems work in people who are healthy and in people who are sick, and provide clinicians with the tools they need to treat patients effectively and efficiently. From catheters to magnetic resonance imaging systems, virtually every object found in an emergency room, operating theatre or laboratory is the product of biomedical engineeringand that's just the beginning. Success requires more than a solid grounding in engineering. Undergraduates will also need a comprehensive understanding of basic science, biology, physiology and computers. Even more, a good biomedical engineer must be able to think creatively to apply the principles of engineering to the problems at hand.

    95. Biomedical Engineering
    biomedical engineering. biomedical engineers usually function as part of amedical team and are often the only professional engineer of the team.
    http://www.utep.edu/trioprog/upwardbound/biomedical.html
    Engineering Biomedical Engineering
    Nature of the Work
    Biomedical engineers usually function as part of a medical team and are often the only professional engineer of the team. In many cases biomedical engineers provide the technical interface between the manufacturer and the user of medical equipment. Therefore, their interdi s ciplinary background and their engineering expertise is relied upon heavily. In general, biomedical engineers function in one of four areas: bioengineering, medical engineering, clinical engineering, or bio-environmental engineering.
    List of the types of devices biomedical engineers design, build, operate, and maintain:
    Electrocardiographs Blood gas analyzers Artificial replacement joints such as knees, elbows, and hips Computer-assisted patient care devices Artificial hearts Physiological monitoring devices Pacemakers Defibrillators Heart-lung bypass machines Artificial replacement heart valves Computer-directed patient-care monitoring systems Intra-aortic Axial Tommography (CAT) Magnetic Resonance Imaging (MRI) Artificial replacement limbs Training and other Qualifications
    Biomedical engineers are educated not only in the traditional engineering areas, but also in the biological disciplines of anatomy, biophysics, pharmacology, physiology, neurophysiology, and organic and biological chemistry.

    96. Alexa Web Search - Subjects > Science > Technology > Biomedical Engineering
    biomedical engineering Subjects Science Technology biomedical engineering.Browse, Best Selling Products in biomedical engineering.
    http://www.alexa.com/browse/categories?catid=51457

    97. UK Center For Biomedical Engineering
    The biomedical engineer is a valuable resource for industry as he/she offersthe ability to communicate with both engineers and clinicians.
    http://www.uky.edu/RGS/CBME/CBME_Academics/faq.htm
    Frequently Asked Questions of Prospective BME Graduate Students
  • What is Biomedical Engineering?

  • Biomedical engineering is an emerging field in which engineers use traditional engineering techniques to solve medical and health-related problems. The biomedical engineer is a valuable resource for industry as he/she offers the ability to communicate with both engineers and clinicians. Since they speak both the languages of engineering and medicine, they are well suited to coordinate interactions with each group to improve both the speed in which projects can be completed and the project's final quality. Biomedical engineering research is also a growing field, as funding agencies are beginning to understand the ability of engineers to find high-tech solutions to medical/health problems. Biomedical engineering is a diverse field having applications in all traditional engineering specialties; thus, students from any engineering background may flourish as a biomedical engineer.
  • What types of jobs could I get with a Biomedical Engineering degree?
  • 98. BIOMEDICAL ENGINEERING Experts - BIOMEDICAL ENGINEERING Expert Witness - BIOMEDI
    Keywords biomedical engineer biomedical engineering Clinical Engineering MedicalDevice Design Labeling User Education User Competence Medical Technology
    http://www.expertwitness.com/cat/Biomedical/Engineering/experts/44
    Home Store Join Expert Login ... Logout Find an Expert by "keyword" Location: Submit To search by category: All Regions United States - Alabama - Alaska - Arizona - Arkansas - California - Colorado - Connecticut - Delaware - Florida - Georgia - Hawaii - Idaho - Illinois - Indiana - Iowa - Kansas - Kentucky - Louisiana - Maine - Maryland - Massachusetts - Michigan - Minnesota - Mississippi - Missouri - Montana - Nebraska - Nevada - New Hampshire - New Jersey - New Mexico - New York - North Carolina - North Dakota - Ohio - Oklahoma - Oregon - Pennsylvania - Rhode Island - South Carolina - South Dakota - Tennessee - Texas - Utah - Vermont - Virginia - Washington - West Virginia - Wisconsin - Wyoming - American Samoa - Federated Micronesia - District of Columbia - Guam - Misc. U.S. Pacific Islands - Puerto Rico - Virgin Islands Canada - Alberta - British Columbia - Manitoba - New Brunswick - Newfoundland - Northwest Territories - Nova Scotia - Ontario - Prince Edward Island - Quebec - Saskatchewan - Yukon Australia - New South Wales - Queensland - South Australia - Tasmania - Victoria - Western Australia - Australian Capital Territory - Northern Territory United Kingdom BIOMEDICAL ENGINEERING EXPERTS
    Contact: Dr. Malcolm Newman, P.E., Director - NY, FL

    99. CUinfo: Spring '04 Roster: Biomedical Engineering (BMEP)
    CU info, Spring 04 Roster biomedical engineering (BMEP), Cornell University. EngineeringSpring 04 Course and Room Roster. biomedical engineering (BMEP).
    http://cuinfo.cornell.edu/Academic/RSS4/RSS4BMEP.html
    Spring '04 Roster: Biomedical Engineering (BMEP) SEARCH: Registered Web Pages (CU Search) People (Electronic Directory) Departments (Departmental Directory) Events (Event Calendar) Cornell Publications (CU Search) All of cornell.edu (Google) Engineering
    Spring '04 Course and Room Roster Biomedical Engineering (BMEP) BMEP 101 INTRO TO BIOMED ENGR ANALYSIS 1.0 HRS LET ONLY
    CO-MEETING WITH ENGRI 101 351-184 CONCURRENTLY WITH BIO G 110 LEC 01 F 0125-0215P OH 255 GRUBB/S. ARCHER SUB-COURSES LAB 01 T 0125-0425P LAB 02 R 0125-0425P LAB 03 F 0230-0425P BMEP 302 CELL PRINC OF BIOMED ENGINEER 3.0 HRS LET ONLY CO-MEETING WITH CHEME 402 309-282 LEC 01 MWF 1115-1205P OH 218 PUTNAM/S. ARCHER SUB-COURSES LAB 01 W 0125-0425P LAB 02 R 0125-0425P LAB 03 F 0125-0425P BMEP 402 INFO ECHANGE IN BIOMED ENGIN S 3.0 HRS LET ONLY LEC 01 MWF 0905-0955A OH 165 HAJOS/S. ARCHER SUB-COURSES LAB 01 W 0125-0425P LAB 02 R 0125-0425P LAB 03 F 0125-0425P BMEP 404 CDE IN SYSTEM DESIGN 4.0 HRS LET ONLY

    100. Biomedical-engineering.html
    The biomedical engineer is responsible for design and development of the technologyand devices that are at the heart of the farreaching improvements in human
    http://ase.tufts.edu/bulletin/biomedical-eng.html
    Biomedical Engineering Professor David Kaplan, Chair; Biopolymer engineering, biomaterials, tissue engineering, regenerative medicine
    Associate Professor Mark Cronin-Golomb, Optical instrumentation, laser tweezers, atomic force microscopy, nonlinear optics
    Associate Professor Sergio Fantini, Biomedical instrumentation, medical optics, near-infrared imaging of the brain, optical mammography, muscle hemodynamics, diffuse optical tomography
    Associate Professor Vo Van Toi, Biomedical instrumentation, vision and ophthalmology, telemedicine
    Adjunct Associate Professor Bruce Ehrenberg, Neurology, clinical neurophysiology (EEG), sleep disorders, restless leg syndrome
    Research Assistant Professor Greg Altman, Collagen based matrices, ligament formation, impact of mechanical forces on human adult stem cell differentiation, bioreactor system, in vitro tissue formation and development
    Research Assistant Professor Maria Angela Franceschini (Massachusetts General Hospital), Biomedical instrumentation, medical optics, near-infrared spectroscopy and imaging
    Adjunct Professor Aurelie Edwards (Department of Chemical and Biological Engineering)

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