ABDUL Q. SHEIKH
University of Cincinnati **** Madison Road, Apt. 12,
School of Energy, Environmental, Biological Cincinnati, OH 45209
and Medical Engineering e-mail: ********@****.**.***
**** ****side Dr., Cincinnati, OH 45221 phone: 513-***-****
EDUCATION
University of Cincinnati, Cincinnati, Ohio Coursework GPA: 3.8
PhD Candidate, Biomedical Engineering Program (2007-current) Doctoral Advisor: Dr. Daria Narmoneva
Graduation: Summer 2012 (expected)
Completed with Honors (in top 10)
University of Manchester, Manchester, England
Bachelor in Electrical Engineering (2000-2004) Advisor: Professor Nigel Allinson
Final year Research Project: An Artificial Neural Network based system for diagnosis, prognosis and prediction of
breast cancer from x-ray mammograms using a Radial Basis Function algorithm
RESEARCH EXPERIENCE
RESEARCH SUMMARY
U of Cincinnati: PhD candidate, Biomedical Eng Program; September 2007- current
Understand diabetes associated vascular pathologies in acute and chronic heart failure at the cellular and molecular
level. Implement novel therapeutic approaches to augment vascularization in diabetes-induced chronic heart failure
(diabetic cardiomyopathy) and diabetes-induced chronic tissue
Analysis of the effect of diabetes and cyclic strain on myocardial function and structure, cardiac fibrosis,
cardiovascular cell responses, protein expression, intracellular calcium signaling and biochemical pathways
In vitro pharmacological assessment of peptide hydrogel nanofibers to augment cardiovascular pathology and in
vivo application of nanofibers to enhance neovascularization and myocardial regeneration in diabetic
cardiomyopathy
Collaboration: Dr. Yi-gang Wang lab, Dept of Pathology & Lab Medicine, UC Cardiovascular Diseases Center
Study the therapeutic efficacy of electric field and peptide nanofiber systems to augment angiogenic responses
and intracellular biochemical pathways in microvascular endothelial cells and implement the in vivo application
of an exogenous electric field to enhance vascularization for diabetes-induced chronic tissue
Collaborations: Dr. Andrei Kogan Lab, Physics Dept, U of Cincinnati and Dr. Timothy Crombleholme lab,
Dept of Surgery, Cincinnati Children s Hospital Medical Center
The results of these studies have identified the diabetes associated deficiencies in myocardium and chronic tissue;
and help contribute in the development of new vascular based treatment strategies for cardiovascular diseases,
specifically in the context of diabetes
EXPERIMENTAL SKILLS
Functional and structural assessment of the myocardium
Experience in the assessment of cardiac function under physiological and pathological conditions using
transthoracic echocardiography. Efficient in determining left ventricle parameters (including ejection fraction,
septum thickness, ventricular wall thickness etc.) from 2-D images and M-mode interrogation in long-axis view
Expertise in H&E, fluorescence and immunohistochemical staining and quantitative analysis of cardiac tissue
samples assessment of cardiac fibrosis, myocardial structure and collagen reorganization, neovascularization
and protein expression in response to therapeutic treatments
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Efficient in animal tissue sample processing (myocardium, chronic wounds, skin etc.), embedding and
microtomming
Cellular/molecular biology techniques to assess cell function and biochemical pathways
Efficient in performing inhibitor based assays to understand intracellular and biochemical pathways
Extensive experience in developing and validating in vitro assays to assess cardiac cell morphology,
proliferation, migration, apoptosis, capillary morphogenesis and nitric oxide concentrations
Expertise in performing in vitro protein quantification assays using IP, ELISAs, Western blot,
spectrophotometry and gelatin zymography techniques
Proficient at development of unique protocols based on IP and custom ELISAs to assess protein interaction
and activation
Expertise in tracing live intercellular and intracellular calcium signaling, and protein localizations in
cardiac/vascular cells using dual wavelength fluorescent dyes
Expertise in using various types of angiogenic promoting microenvironments (such as peptide scaffold,
Matrigel etc.) to regulate and assess in vitro and in vivo neovascularization and cell-matrix interactions
In vivo models of cardiovascular diseases
Extensive experience working with diabetes mouse (type II) and rat (STZ induced type I) animal models for
diabetic cardiomyopathy, myocardial infarction and chronic healing
Trained in blood collection and glucose level monitoring, surgical wounding, intraperitoneal/intravenous
injections, heart dissection and various organ collection from different animal models
Efficient in performing tensile testing of tissues from mouse and sheep animal models to assess treatment
outcomes
Cell Culture techniques
Extensive experience and strong skills in cell culture
Extensive experience in isolating and maintaining primary cells (endothelial cells/fibroblast/smooth muscle
cell) from heart, lung and skin tissues of normal, diabetic /transgenic animal models
Optimization of medium composition, culture support, shaking and co-cultures
Experience with progenitor cells (EPCs), mesenchymal stem cells and continuous cell lines
Microscopy and other scientific skills
Extensive experience with single/dual wavelength fluorescence, confocal, polarized light and brightfield
microscopy
Excellent capabilities in performing quantitative image analysis to determine characteristic vascular sizes, cell
behavior and protein content
Efficient in advanced digital image processing techniques to understand biological responses using MATLAB,
Photoshop, Illustrator and ImagePro software packages
Proficient in multi-variance statistical analysis and data mining and management using SPSS
Designed and micro-fabricated novel electrophysiological / microfluidic devices to augment cell responses
using standard clean room techniques (photolithography, mask development, polymer micro-patterning and
metal deposition)
Developed a fluorescent-based micromanipulator system to study intercellular and intracellular calcium
signaling in vascular cells
Expertise in applying physiological mechanical strains and shear stresses on vascular cells to mimic in vivo
biomechanical environment
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ORGANIZATIONAL SKILLS
Experienced in setting up labs, assessing/purchasing lab equipment and managing several facilities including cell
culture, microscopy and tissue biomechanics lab
Conducted collaborative inter-disciplinary research; Took initiative and applied leadership skills to co-design
and execute four-way collaboration between U of Cincinnati Medical Center, Cincinnati Children s Hospital,
Physics Dept and Biomedical Engineering Dept to achieve the objectives of my research. Ability to collaborate
also demonstrated via contributions to several other research projects within the research group as manifested
in co-authorship of a number of peer-reviewed articles as a non-primary author
Designed digital image processing and senior research design courses in Electrical and Biomedical Engineering
departments, U of Cincinnati (2007). Provided guidance, instruction and leadership to the group of four
graduate students to achieve key results in two separate projects entitled; Models for image restoration
degradation and An Innovative Device for Introducing Color Vision in the Colorblind
As a lead member of the Board of Studies and Student Enterprise, U of Manchester (UMIST, 2002-2004),
represented students in academic Board of Studies meetings, served as a liaison with staff for students and
participated in a representative development course that focused on communicating effectively, group dynamics
and teamwork. Led discussions organized by the Student Enterprise officers on the student experience, learning
and development opportunities, 'graduateness', professional development, skills and career planning
COMMUNICATION SKILLS
Excellent written communication skills- refined through report writing, manuscript preparations and proposals
writings for NIH, NSF and AHA grant applications
Proven record of excellent oral communication skills through podium and poster presentations at various
national and international conferences
Mentored and trained graduate and several undergraduate students:
Graduate student: recipient of full tuition academic scholarship from UC physics department
- Thesis title: Interaction of electric field with vascular cells
Two undergraduates recipient of Women in sciences & engineering fellowship (2009, 2010)
- Project title: Remote Temperature Sensing for Biological Experiments
- Project title: Intracellular Calcium Signaling in microvascular endothelial cells
Undergraduate recipient and the 1st prize winner, National Science Foundation fellowship (2009)
- Project title: The Effect of an Electromagnetic Field on the formation of capillary-like networks by
diabetic endothelial cells
Teaching experience at SSUET in EE Department (2005-2006)
HONORS AND AWARDS
Recipient of Sigma Xi Award, Sigma Xi Scientific Research Society U of Cincinnati Chapter, 2012
Recipient of University Research Council s Graduate Student Fellowship, U of Cincinnati, 2010
Recipient of UC Graduate Assistantship in Nanomedicine, U of Cincinnati, 2008-09
First prize winner, MS Student Paper Competition, American Society of Mechanical Engineers Summer
Bioengineering Conference, June 2009
Outstanding Poster Presentation, Best in Life and Physical Sciences and Engineering, U of Cincinnati Graduate
Student Poster Forum, March 2008
Member, Academic board, Electrical & Electronic Engineering dept., U of Manchester, England, 2001-03
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PUBLICATIONS
Sheikh AQ., Taghian T, Hemingway B., et al., Regulation of endothelial MAPK/ERK signaling and capillary
morphogenesis by low amplitude electric field, in revision, Journal of the Royal Society Interface
Sheikh AQ., Hurley J., Taghian T, Huang W., et al., Diabetes alters intracellular calcium transients in cardiac
endothelial cells, in revision, PLoS one
Sheikh AQ, Jenifer R. Hurley and D. Narmoneva, Diabetes alters intracellular calcium transients in cardiac
endothelial cells, Transactions of the ASME Summer Bioengineering Conference, SBC2011-53797, 2011
Hurley J., Sheikh AQ., Huang W., et al., Effects of diabetes on matrix protein expression and response to
cyclic strain by cardiac fibroblasts, in press, Cellular and Molecular Bioengineering
Hurley J., Sheikh AQ., Huang W., et al., Self-assembling peptide nanofibers for matrix metalloproteinase-
mediated matrix remodeling in diabetic cardiomyopathy, in press, Journal of Bioengineering and Biomedical
Science
Cho H, Balaji S, Sheikh AQ et al., Regulation of endothelial cell activation and angiogenesis by injectable
peptide nanofibers, in press, Acta Biomaterialia
Balaji S, Sachin S. Vaikunth, AQ. Sheikh et al., Tissue-engineered provisional matrix as a novel approach to
enhance diabetic wound healing, in press, Wound repair and regeneration
Sheikh A, A. Kogan and D. Narmoneva, Electromagnetic field mediates capillary formation via MAPK/ERK
signaling cascade, Transactions of the ASME Summer Bioengineering Conference, SBC2009-206710, 2009
SELECTED PEER-REVIEWED ABSTRACTS AND SCIENTIFIC MEETING
PRESENTATIONS
1. A. Sheikh, T. Taghian, et al., Electric field therapy for the treatment of chronic wound healing, 5th annual
Translational to Clinical Regenerative Medicine Wound Care Conference, poster presentation, 2012
2. Sheikh AQ., Jenifer R. Hurley and D. Narmoneva, Diabetes alters intracellular calcium transients in cardiac
endothelial cells, Transactions of the ASME Summer Bioengineering Conference, podium presentation,
SBC2011-53797, 2011
3. Sheikh AQ., Hurley J., et al., Diabetes alters intracellular calcium transients in cardiac endothelial cells,
Cardiovascular Center of Excellence-translational research day, poster presentation, 2011
4. Sheikh AQ., A. Kogan and D. Narmoneva, Electromagnetic field mediates capillary formation via
MAPK/ERK signaling cascade, Transactions of the ASME Summer Bioengineering Conference, poster
presentation, SBC2009-206710, 2009
5. Sheikh AQ, A. Kogan and D Narmoneva; Nanosecond electromagnetic field mediates capillary-like network
formation via MAPK/ERK pathway, Biomedical Engineering Society Fall Meeting, podium presentation,
September 2009
6. Sheikh AQ, A. Kogan, D. Narmoneva; Electromagnetic field stimulation of capillary assembly in RAD16
nanoscaffold for angiogenic therapy, Biomedical Engineering Society Fall Meeting, poster presentation,
September 2008
7. Jennifer Hurley, AQ Sheikh, et al., Self-Assembling Peptide Nanofibers for MMP Delivery and Cardiac
Regeneration in Diabetes, Transactions of the ASME Summer Bioengineering Conference SBC2011-53761,
2011
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8. H. Cho, AQ Sheikh et al., Non-specific endothelial cell interactions with the substrate result in cell activation
and angiogenesis in vitro, Transactions of the ASME Summer Bioengineering Conference, SBC 2010-19094,
2010
9. H. Cho, S. Balaji, AQ Sheikh, et. al., Pro-angiogenic microenvironment restores angiogenic potential of
diabetic endothelial cells . Wound Healing Society, Orlando, FL, April 2010
10. S. Balaji, B.A. King, AQ Sheikh, H. Cho, et. al., Improved wound healing in angiogenic provisional matrix
occurs in the absence of increased TGF-beta expression . Wound Healing Society, Orlando, FL, April 2010
11. S. Balaji, Sheikh AQ, S.S. Vaikunth, J.K. Parvadia, F.Y. Lim, T.M. Crombleholme, and D. Narmoneva: Wound
treatment with angiogenic provisional matrix enhances wound neovascularization and improves healing in
db/db mice . Wound Healing Society, Dallas, TX, April 2009
12. Sheikh AQ. Kogan, D. Narmoneva; Microwave field enhances capillary-like network assembly by
microvascular endothelial cells, Midwest Tissue Engineering Consortium, poster presentation, 2008
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