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CBIMMS Participants: FACULTY
FAN
YUAN
Assistant Professor, Biomedical Engineering
Contact Information
258 Engineering Annex
919-660-5411 phone
919-684-4488 fax
fyuan@duke.edu
Education
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PhD |
"Models for receptor-mediated
LDL metabolism and arterial macromolecular transport," Bioengineering,
The City University of New York, 1990 |
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MS |
Biomechanics, Beijing University (Beijing, P.R. China), 1985 |
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BS |
Mechanics, Beijing University (Beijing, P.R.
China), 1983 |
Experience
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1996-present |
Assistant Professor, Biomedical Engineering,
Duke University, Durham, NC. |
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1995-1996 |
Assistant Professor, Radiation Oncology, Harvard Medical School,
Boston, MA. |
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1992-1994 |
Instructor, Radiation Oncology, Harvard Medical
School, Boston, MA. |
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1991-1996 |
Assistant in Biology, Massachusetts General Hospital, Boston,
MA. |
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1990-1991 |
Post-Doctoral Fellow, Carnegie Mellon University,
Pittsburgh, PA. |
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1988-1989 |
Adjunct Lecturer, The City University of New York, New York, NY.
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1986-1990 |
Research Assistant, The City University of New
York, New York, NY |
Selected Publications
- Krol, A., Maresca, J., Dewhirst, M.W., and Yuan, F., "Available
volume fraction of macromolecules in the extravascular space of a
fibrosarcoma: Implications for drug delivery." Cancer Research,
59: 4136-4141, 1999.
- Zhang, X.-Y., Luck, J., Dewhirst, M.W., and Yuan, F., “Interstitial
hydraulic conductivity in a fibrosarcoma.” American Journal
of Physiology, 279: H2726-H2734, 2000.
- Sheng, T. and Yuan, F., “Numerical simulations of angiogenesis
in the cornea.” Microvascular Research, 61: 14-27,
2001.
- McGuire, S. and Yuan, F., “A new technique for quantitative
analysis of intratumoral infusion of color molecules.” American
Journal of Physiology, 281: H715-H721, 2001.
- Yuan, F., Krol, A., and Tong, S. “Available space and extracellular
transport of macromolecules: Effects of pore size and connectedness,”
Annals of Biomedical Engineering, 29: 1150-1158, 2001.
Honors and Awards
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2000 |
CAREER Award, National Science Foundation. |
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1996 |
Career Development Award, SPORE in Breast Cancer, Duke University,
Durham, NC. |
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1994 |
IPM Innovative Instrumentation Award, The Microcirculatory
Society, Anaheim, CA. |
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1993 |
IPM Innovative Instrumentation Award, The Microcirculatory Society,
New Orleans, LA. |
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1987 |
Port of Entry Scholarship Award, Port of Entry
Program, New York, NY. |
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1982 |
Excellent Student Award, Beijing University, Beijing, P.R. China.
|
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1980 |
Excellent Student Award, Beijing University,
Beijing, P.R. China. |
Recent Collaborators
Dewhirst, M.W., McDonnell, D.P., Li, C.Y., David L. Epstein, Barr,
R.
Current Advisees
David Zaharoff; Sarah McGuire; Sheng Tong; Yong Wang; Cheng-Wen Lin;
and Qing Chen.
Research Support
Dr. Yuan is PI on 4 active grants: DOD (BC980191); NSF (BES9984062);
Whitaker Foundation (97-0062); and NSF (ID# pending)
Short Research Interest Descriptor
Drug and gene delivery in tumor and normal tissues, tumor microcirculation,
angiogenesis, and transport analysis of molecules in biological tissues.
Research Interest
We are interested in interstitial transport of macromolecules in
the eye and tumor tissues. The goal of our research is to improve
drug and gene delivery. One of the major problems in both systemic
and local delivery of large therapeutic agents is the interstitial
transport. The problem is attributed to various physiological barriers
in these tissues. They may significantly hinder interstitial penetration
of drugs and genes, limit the accessibility of these therapeutic agents
to intracellular targets, and thus reduce the efficacy of molecular
medicines in treating cancer different eye diseases. Drug and gene
delivery in the interstitial space is governed by driving forces and
transport parameters such as the diffusion coefficient, the hydraulic
conductivity, the retardation coefficient, and the available volume
fraction. These parameters depend on physicochemical properties of
drugs and genes (e.g., size, charge, and configuration) as well as
structures of tumor tissues. We are interested in quantitative analysis
of interstitial transport of macromolecules in normal and tumor tissues
as well as physical and chemical interventions of the interstitial
transport for improving drug and gene delivery. In addition, we are
interested in mechanisms of morphogenesis of microvascular networks
in biological tissues, which is important in understanding angiogenic
process. Angiogenesis plays an important role in embryonic development,
wound healing, tumor growth, and various vascular diseases. Angiogenesis
needs to be either inhibited or stimulated in a controlled manner,
depending on the requirements in disease treatment. Angiogenesis is
a complicated process. It involves angiogenic factors, inhibitors,
and regulators released by different cells (e.g., tumor cells and
macrophages). These molecules interact with endothelial and mesenchymal
cells as well as extracellular matrix in tissues. Multiple interactions
may happen simultaneously. These interactions must be coordinated
in a specific manner in order to form a vascular network. We are interested
in molecular mechanisms of morphogenesis of vascular networks during
angiogenesis. Our study is based on both experimental studies and
numerical simulations. In addition, we are interested in how different
angiogenic factors, inhibitors, and regulators affect the structures
of vascular networks.
Current research projects in our lab include: (a) Mechanisms of
molecular transport in porous materials; (b) Intratumoral infusion
of drugs and genes; (c) Electric field-mediated gene delivery; (d)
Delivery of temperature sensitive liposomes; (e) Transport of drugs
through the cornea and the sclera; (f) Morphogenesis of microvascular
networks during angiogenesis
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