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2013–2014 The Bulletin - USS at Tufts - Tufts University

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Biomedical Engineering ><br />

SECONDARY APPOINTMENTS:<br />

Adjunct Professor Peter Bergethon, Pfizer Inc/Boston<br />

<strong>University</strong> School of Medicine; Comput<strong>at</strong>ional neurology<br />

Adjunct Professor John Castellot, <strong>Tufts</strong> <strong>University</strong> School<br />

of Medicine; Cellular and molecular biology, vascular systems<br />

Adjunct Professor Jon<strong>at</strong>han Garlick, <strong>Tufts</strong> <strong>University</strong><br />

School of Dental Medicine; Tissue models to study human<br />

disease processes in str<strong>at</strong>ified squamous epithelium<br />

Adjunct Professor Jim Harden, <strong>University</strong> of Ottawa;<br />

Biomolecular assemblies, biom<strong>at</strong>erials, comput<strong>at</strong>ional<br />

biophysics, cell mechanics, complex fluids<br />

Adjunct Professor Ira Herman, <strong>Tufts</strong> <strong>University</strong> School of<br />

Medicine; Cell movements required for cell division, differenti<strong>at</strong>ion<br />

of the body’s organ systems, remodeling of tissues<br />

during disease processes<br />

Adjunct Professor Robert Howe, Harvard <strong>University</strong>;<br />

Human-machine interfaces, biomechanics, tactile sensing,<br />

human and robot manipul<strong>at</strong>ion<br />

Adjunct Professor Krishna Kumar, Department of<br />

Chemistry; Novel methods for the r<strong>at</strong>ional design and<br />

construction of artificial proteins, molecular enzymes, and<br />

self-assembling biom<strong>at</strong>erials<br />

Adjunct Professor Michael Levin, Department of Biology;<br />

Regener<strong>at</strong>ive and developmental biology<br />

Adjunct Professor Eric Miller, Department of Electrical and<br />

Computer Engineering; Signal and image processing<br />

algorithms<br />

Adjunct Professor John Richmond, New England Baptist<br />

Hospital, <strong>Tufts</strong> Medical Center; Ligament form<strong>at</strong>ion, tre<strong>at</strong>ment<br />

of injuries of the anterior cruci<strong>at</strong>e ligament, regul<strong>at</strong>ion and<br />

prolifer<strong>at</strong>ion of growth factor expression in arthrofibrosis<br />

Adjunct Professor Igor Sokolov, Department of Mechanical<br />

Engineering; Condensed m<strong>at</strong>ter, soft condensed m<strong>at</strong>ter and<br />

biomedical research, energy-rel<strong>at</strong>ed m<strong>at</strong>erials and sustainability,<br />

surface science and engineering<br />

Adjunct Professor Barry Trimmer, Department of Biology;<br />

Central processing of sensory inform<strong>at</strong>ion by receptors, second<br />

messengers and synaptic networks in an insect model system,<br />

neural control of soft-bodied locomotion<br />

Adjunct Professor Gordana Vunjack-Novakovic,<br />

Columbia <strong>University</strong>; Transport phenomena, tissue engineering<br />

and bioreactors<br />

Adjunct Professor Lawrence Wald, Harvard Medical<br />

School; Development and applic<strong>at</strong>ion of novel MR techniques<br />

for the clinical and scientific investig<strong>at</strong>ion of brain function<br />

Adjunct Professor David Walt, Department of Chemistry;<br />

Bioanalytical chemistry, m<strong>at</strong>erials chemistry, biochemistry,<br />

and nanoscience<br />

Adjunct Professor Pam Yelick, <strong>Tufts</strong> <strong>University</strong> School of<br />

Dental Medicine; Molecular genetic analyses of craniofacial<br />

cartilage, bone, and tooth development<br />

Adjunct Associ<strong>at</strong>e Professor Luis Dorfmann, Department<br />

of Civil & Environmental Engineering; Mechanical properties<br />

and behaviors of m<strong>at</strong>erials, couple field phenomena, fracture,<br />

cavit<strong>at</strong>ion and failure processes, characteriz<strong>at</strong>ion and<br />

modeling of soft m<strong>at</strong>erials<br />

Adjunct Associ<strong>at</strong>e Professor Carl Kirker-Head, Cummings<br />

School of Veterinary Medicine <strong>at</strong> <strong>Tufts</strong> <strong>University</strong>; Bone growth<br />

and remodeling, bone repair in response to injury, bone<br />

grafting, surgical and other orthopaedic disease models,<br />

musculoskeletal vascular disease, bone and soft tissue<br />

biomechanics, skeletal tissue engineering, orthopedic device<br />

development<br />

Adjunct Assistant Professor Bree Aldridge, <strong>Tufts</strong><br />

<strong>University</strong> School of Medicine; Identifying determinants of<br />

mycobacterial tolerance to antibiotic stress in cases of<br />

tuberculosis<br />

Adjunct Assistant Professor Blaise Frederick, McLean<br />

Hospital; Magnetic resonance equipment and techniques for<br />

the study of psychi<strong>at</strong>ric illness in Alzheimer’s disease and<br />

substance abuse<br />

Adjunct Assistant Professor Lorenz Meinel, ETH Zurich;<br />

Drug delivery interfaces<br />

Adjunct Assistant Professor Douglas Vetter, <strong>Tufts</strong> Medical<br />

Center; Molecular, biochemical, and physiological aspects of<br />

brain-inner ear interactions<br />

<strong>The</strong> biomedical engineer is responsible for design<br />

and development of the technology and devices th<strong>at</strong><br />

are <strong>at</strong> the heart of the far-reaching improvements in<br />

human health th<strong>at</strong> have been occurring over the last<br />

few decades. <strong>The</strong>se advances include better tools for<br />

understanding disease and health, as well as better<br />

ways to both tre<strong>at</strong> disease and maintain health. <strong>The</strong><br />

rapid expansion of the field of biomedical engineering<br />

is due to many factors, including 1) scientific<br />

and technological advances in the life sciences,<br />

m<strong>at</strong>erials science, and the engineering disciplines;<br />

2) the increasing recognition of the role of interdisciplinary<br />

str<strong>at</strong>egies to solve complex biomedical<br />

problems; and 3) the aging of the popul<strong>at</strong>ion<br />

leading to increasing healthcare needs and the<br />

associ<strong>at</strong>ed demands and costs. <strong>The</strong> vision of the<br />

Biomedical Engineering Department is to promote<br />

integr<strong>at</strong>ive research, educ<strong>at</strong>ion, and entrepreneurship<br />

<strong>at</strong> the forefront of biomedical science and<br />

engineering. <strong>The</strong> mission of the Biomedical<br />

Engineering Department is to advance the field of<br />

biomedical engineering through an interdisciplinary<br />

approach to educ<strong>at</strong>ion, design, and research.<br />

114

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