Biochemistry in Health and Yoskaly Lazo Fernandez
Diseases for the Layman Sara M. McMillin
*Mauro Tiso, 301-443-4317
The objective of this course is to provide a broad overview and basic understanding of biochemistry
and how it relates to human health and disease. Each class will cover a major category of the
molecules of life and an actual human disease and/or health issue that relates to topics such as
why we should eat fruits and vegetables, why milk is supplemented with vitamin D or how insulin
helps people with diabetes and why some people are lactose intolerant. Particular emphasis will be
on the interactions between metabolic pathways, the basis of human diseases and current medical
therapies. The classes will consist of lectures followed by group discussions of real life case study. By
taking this course, students will gain fundamental knowledge in biochemistry and how the molecules
of life overall control human health and wellbeing.
Prerequisites: Open to everyone who has an interest in science and basic knowledge of
chemistry and biology
BIOC 302 Spring, 3 credits
Biochemistry II Mitchell Ho*
Gail Seabold
Jean Tiong
John E. Weldon
BIOC 302 is a continuation of BIOC 301. It will cover metabolism and
biosynthesis of biological macromolecules such as glycogen, fatty acid, amino
acid and nucleotide. It will cover trends applicable to medical sciences such as
the immune system and drug development.
PLEASE NOTE: THE ABOVE NEW COURSE NUMBERS AND
DESCRIPTIONS REPLACE BIOC 300 – Introductory Biochemistry.
BIOC 316 Spring, 1 credit (8 weeks)
Structure and Function of
Biological Macromolecules David Davies
Wei Yang*
Selected topics chosen from the recent advances in structural biology with the general aim of relating structure to function. Starting from basic principles of protein and nucleic acid structure, we shall present the latest results in increasing order of complexity. Topics will be selected from simple enzyme mechanisms to complex biological processes including replication, transcription, translation, signal transduction, HIV viral infection and immune response. These topics will expose students to chromosome decoding, ribosome and protein synthesis, membrane
proteins, ligand-receptor interactions, and structure-based drug design. Students will also be exposed to the methods used to determine threedimensional macromolecular structures, e.g. X-ray crystallography, NMR
and electron microscopy.
Prerequisite: A basic course in biochemistry or its equivalent.
Text book: Biochemistry by Voet & Voet or Biochemistry by Berg, Tymoczko
and Stryer
BIOC 505 Spring, 2 credits
Cell Membranes and Intracellular
Trafficking Leonid V. Chernomordik*
Roberto Weigert
The course will consider modern concepts relating to the structure and function of cell membranes. Starting from the physical properties of membranes, the course will examine membrane biogenesis, membrane dynamics, and intracellular traffi cking. Examples will be drawn from specifi c membrane functions in the various organelles. Topics will include nuclear transport, ER to golgi transport, endocytosis, carbohydrate and lipid traffi cking.
Minimum of 15 students must register for course to be held.
Prerequisite: CHEM 220 and BIOC 300 or equivalent
Biological Importance of Modifications Benjamin Busby
In DNA and Chromatin Aditi Das
Humaira Gowher
Daman Kumari
Tina Miranda
*Tiaojiang Xiao xiaotiao@mail.nih.gov
Chromatin modifications play important roles in many cellular processes including the regulation
of gene expression, DNA repair, and the heterochromatin formation. This course will explore the
various biological roles chromatin modifications play in eukaryotic cells. Topics that will be discussed
include: histone and DNA modifications and the enzymes responsible for these modification;
mechanisms of chromatin remodeling and transcription regulation; the role of non-coding RNAs
in chromatin structure and gene regulation; higher-order chromatin organization and the use of
various chromosome capture conformation methods; chromatin structure and DNA damage repair. In
addition, this course will introduce students to the genome-wide analysis of ChIP-seq and RNA-seq
data using the Galaxy and UCSC web servers.
The course is designed for medical students, graduate students and postdoctoral fellows who are
interested in gene transcription regulation. Students who take this course should have a general
understanding of the basic concepts in genetics and biochemistry.
BIOC 533 Spring, 2 credits, Alternate Years 2012
The Molecular and Cellular Basis
of Intercellular Communication Joan Cmarik
The objective of this course is to expose students to current knowledge and experimental approaches in the fi eld of signal transduction as presented by invited expert lecturers who are at the leading edge in researching their respective
systems. Emphasis will be given to molecular mechanisms and applications to human disease states. Among the signaling molecules to be considered are growth factors, hormones, cytokines, transmembrane receptors, G proteins,
kinases and phosphatases, soluble intracellular messengers, ion channels, transacting factors and calcium-binding proteins.
Prerequisite: M.D., Ph.D., prior course work (e.g. MEDI 211, or BIOC
301/302), or extensive experience in the fi eld.
New BIOF 502 Spring, 1 credit, (8 weeks)
Medical Genomics for
Clinicians and Researchers Medha Bhagwat*
Ben Busby
Jacqueline Major
John Pepper
This two-part course will begin with an introduction to basic concepts of genomics and informatics as they may be applied in the clinic (fi rst eight weeks BIOF 502), and continue with an intensive treatment of data acquisition and
analysis relevant to most of these topics (fi nal eight weeks BIOF 552). Introductory sessions will provide a condensed review of the biological foundations of bioinformatics and common resources in the fi eld. Following that, topics
covered in the fi rst half of the course will be epidemiology, population genomics (with a focus on the 1000- and 100,000-genomes projects), genotype phenotype relationships, evolution of cancer, toxico(pharmaco)genomics, immunogenomics, bacterial and viral genomes, clinical decision support, and ethics of medical genomics.
Registration is limited to 50 students.
BIOF 518 Spring, 3 credits
Theoretical and Applied Bioinformatics Ben Busby
Rezarta Islamaj
Yoo-ah Kim
Aurelie Neveol
Pere Puigbo*
Joseph Ryan
Sijung Yun
The objective of this course is to give students an introduction into the theory and practice of a wide range of bioinformatic techniques and applications, enabling them to use these tools in their own research. This course will be divided into four modules: acquisition and analysis of sequence datasets, analysis of genomic datasets from an evolutionary perspective, network analysis of genomic and systems datasets (including natural language processing, and analysis and prediction of protein structure. Three of the four sessions in each module will be divided roughly 50 percent theoretical lecture and 50 percent learning to use relevant computational tools. The final session of each module will be split between a journal club, and commencement of work on a project assigned for each module. By the end of the course, students should be able to acquire many types of sequence data, identify similar genes, domains and motifs, identify gene transfer events and alternative splicing, generate and analyze transcriptional and gene expression networks, analyze proteomic data and make a prediction of peptide structure from primary sequence.
Prerequisite: A solid understanding of biology, computer science or mathematics or BIOL 429.
Registration is limited to 15 students, more may be accepted with permission of instructor.
New BIOF 552 Spring, 1 credit (8 weeks Spring, weeks)
Medical Genomics for Clinicians
and Researchers Medha Bhagwat*
Ben Busby
Jacqueline Major
John Pepper
This is the second half of the course (BIOF 502 fi rst half) and will include a
hands-on treatment of GWAS, expression and proteomics, current mathematical
issues in epidemiology, comparative analysis of microbial and viral genomes, and
systems biology.
Audience: The first half of the course (BIOF 502) is intended for clinicians and
researchers interested in medical genomics. The second half of the course is
intended for students familiar with programming who would like to learn how to
query and analyze data from large medically relevant datasets. Students will be
expected to participate in class surveys, projects and journal article presentations.
Prerequisites: A basic understanding of genetics would be very helpful in the
fi rst half of the course. For the second half of the course, participation is limited
to students with previous experience parsing large fl at fi les, or by instructor
permission (completion of **Computational Biology 537** is also an acceptable
prerequisite). For the second part of the course, students are expected to
bring a laptop to class. Students taking the second half of the course will likely
benefi t greatly from taking the fi rst half, and therefore are required to take it,
except in exceptional circumstances, with permission of instructor.
Registration is limited to 20 students ( fi rst half is BIOF 502).
BIOL 102 Spring, 2 credits
Introductory Molecular
Biology-Genetics Ruth Chia
Fanette Fontaine
Erik Read*
Biology 102 is designed as an introduction to molecular and genetic aspects of biology. Topics include Mendelian genetics, prokaryotic and eukaryotic molecular genetics, and gene cloning.
Prerequisites: Biology 101 or college level basic biology.
Biodiversity and Human Health (8 weeks) Mawadda Al-Naeeli - 301-496-2313
Andrew Broadbent
Michele Kadnar
David Sharlin
SusanYuditskaya
This course will review the influence biodiversity has on human well-being, and offer details about the
effects of threatened biological diversity on human health. Topics include introduction to biodiversity,
human activity and ecosystem balance, the effect of biodiversity loss on food production, human
infectious diseases, biomedical research, and medicine. This course will also introduce the concept
of environmental endocrine disruptors and their effect on biodiversity and human health. “Most of
us understand, at least to some extent, the dire effects of toxic pollution, global warming, forest
destruction and fresh water depletion on our health and survival. What has been harder to grasp is
the importance of biological diversity in sustaining life and human health on our planet”*. Addressing
the latter is the goal of this course.
* Sustaining Life: How Human Health Depends On Biodiversity, edited by Eric Chivian and Aaron
Bernstein.
Prerequisite: BIOL 101 or equivalent, and interest in the interface between science, medicine
and the environment.
Registration limited to 30 students
Stem Cells and Their Niches * Guokai Chen – 301-594-4717
David Sharlin – 301-443-2840
And Guest Lecturers
This course is designed to give students an introduction to the basic principles of stem cells and
their niches. The course will begin with an overview of basic aspects of stem cell biology. Students
will then be introduced to specific stem cell populations, covering those arising from endo-, ectoand
mesodermal origin. Specifically, students will learn the origins of these adult stem cells, the
importance of niche interactions and discuss their function during homeostastis and repair. The latter
part of the course will focus on more applied aspects of stem cell biology. Specifically, we will cover
the subject of cancer stem cells, stem cells and aging and methods for reprogramming adult cells to
multipotent stem cells. At the end of this course, students should have a thorough overview of the
different types of stem cells, methods used to investigate stem cells experimentally, and translational
applications of stem cell biology.
BIOL 338 Fall & Spring, 1 credit each semester (8 weeks)
Epigenetics and Medical Disorders Claudia Gebert
Aberrant regulation of the epigenome has been associated with the onset of many human diseases including development disorders and cancer. The objective of this course are to give students an overview of the most common epigenetic mechanisms known to date and how, if gone awry, they relate to the pathogenesis of a particular disease. Each class will focus on a human medical disorder and discuss the epigenetic mechanisms involved in the pathogenesis of this disorder as well as diagnostic tools and available treatment options. By the end of the course, students can expect to have a basic understanding of DNA methylation, histone modifi cations, genomic imprinting, and X chromosome inactivation, and disorders associated with aberrations in epigenetic regulatory mechanisms.
Prerequisites: Prior particular knowledge on epigenetics is not required to
attend this course, however, introductory biology knowledge is desired.
Registration is limited to 25 students.
CHEM 102 Spring, 3 credits
General Chemistry II Belhu Metaferia
This course is a continuation of CHEM 101 and will cover the following topics: Chemical equilibrum, pH, Reaction kinetics, Redox reactions, Solubility, an ntroduction to organic and biochemistry. As in CHEM 101, we will emphasize a
conceptual understanding and show how the chemistry learned here can apply to health related situations. The course will be taught at a chemistry major level, and will provide the background for organic chemistry, biochemistry and other health sciences where chemistry is utilized.
Prerequisite: CHEM 101
CHEM 212 Spring, 3 credits
Organic Chemistry II Darón I. Freedberg
This is a continuation of CHEM 211. This semester will cover alcohols, esters, carboxylic acids, amides, ethers, amines, aldehydes, and ketones with a brief overview of some biologically relevant structures such as carbohydrates, amino
acids, DNA, RNA and lipids.
Prerequisite: CHEM 211
CHEM 220 Year, 2 credits each semester, Alternate years
Physical Chemistry with Applications Marc Nyden
to Biological Sciences
CHEM 220A: In the fi rst semester of this course we will focus on the principles of thermodynamics and their basis in kinetic theory and statistical mechanics. The major topics will be the fi rst and second laws of thermodynamics, chemical
and phase equilibria, solutions, transport properties and the rates of chemical reactions. These topics will be applied to problems of biological interest including protein structure and binding and enzyme kinetics.
CHEM 220B: In the second semester of this course we will cover the theory of quantum mechanics and its application to chemistry. This will include an overview of spectroscopy (IR, UV-VIS, NMR) and X-ray diffraction methods. An exposition
of modern computational techniques, which are used to study the conformations and dynamics of biological molecules will also be presented.
Prerequisites: General chemistry and physics.
ENGL 108 Spring, 3 credits
Fundamental English Conversation II Fran Miller
This course is a continuation of ENGL 105. Continued emphasis on improving oral and aural fl uency for those who have a fi rm knowledge of English grammar and structures, but who have limited oral profi ciency. Discussion of American culture and customs.
Prerequisite: ENGL 105 or equivalent.
Registration limited to 10 students
ENGL 108 Spring, 3 credits
Fundamental English Conversation II Fran Miller
This course is a continuation of ENGL 105. Continued emphasis on improving oral and aural fl uency for those who have a fi rm knowledge of English grammar and structures, but who have limited oral profi ciency. Discussion of American culture and customs.
Prerequisite: ENGL 105 or equivalent.
Registration limited to 10 students
ENGL 207 Spring, 3 credits
Intermediate English II Fran Miller
Continued emphasis on comprehending and speaking American English in a comfortable classroom setting. The focus is on learning authentic and useful language and increasing vocabulary. Attention is also given to pronunciation
issues.
Prerequisite: ENGL 205 or equivalent.
ENGL 304 Spring, 3 credits
Advanced English Conversation II Fran Miller
This course is a continuation of ENGL 302. Continued emphasis on refi nement of aural and oral skills on the advanced level. Prepared and spontaneous oral presentations are required. American cultural topics discussed.
Prerequisite: ENGL 302 or permission of instructor.
Registration limited to 10 students
ENGL 304 Spring, 3 credits
Advanced English Conversation II Fran Miller
This course is a continuation of ENGL 302. Continued emphasis on refi nement of aural and oral skills on the advanced level. Prepared and spontaneous oral presentations are required. American cultural topics discussed.
Prerequisite: ENGL 302 or permission of instructor.
Registration limited to 10 students
ENGL 306 Spring, 3 credits
Advanced English Structure II Fran Miller
This course is a continuation of ENGL 305. Passive voice, adverb clauses and phrases, noun clauses, direct and indirect speech, conditionals and subjunctive are studied thoroughly on the advanced level.
Prerequisite: ENGL 305 or permission of instructor.
Registration limited to 10 students
American Standard English Accent Katherine P. Grossman
Modification Katherineparkergrossman@gmail.com
Do you ever worry that people have trouble understanding you because of your accent? Would you
like to identify and improve the areas of your speech that are unclear? The goal of this course is to
become more confident and effective communicator in English. Whether you give presentations to
an audience or speak to potential employers, communicating clearly in English is critical.
This course will focus on stress, intonation, and vowels and consonants in American Standard
English. An individual screening will identify the areas you need to work on the most. Class time will
focus on the most common areas in the group. Homework will target your specific needs and will be
critical in becoming a more confident and effective communicator in English.
American Standard English Accent Katherine P. Grossman
Modification Katherineparkergrossman@gmail.com
Do you ever worry that people have trouble understanding you because of your accent? Would you
like to identify and improve the areas of your speech that are unclear? The goal of this course is to
become more confident and effective communicator in English. Whether you give presentations to
an audience or speak to potential employers, communicating clearly in English is critical.
This course will focus on stress, intonation, and vowels and consonants in American Standard
English. An individual screening will identify the areas you need to work on the most. Class time will
focus on the most common areas in the group. Homework will target your specific needs and will be
critical in becoming a more confident and effective communicator in English.
GENE 500 Year, 2 credits each semester
Introduction to Medical Genetics Suzanne Hart*
Maximillian Muenke
The objective of this two-semester course is to provide an introduction to clinical and human genetics for fellows and genetic counseling students who are preparing for subspecialty examinations of the American Board of Medical Genetics and for others who wish to learn about the expanding role of genetics in medicine. The first semester will introduce basic concepts of genetics, cytogenetics and molecular genetics. The second semester will include presentations on clinical topics emphasizing the diagnosis and management of patients with genetic disorders. Topics to be covered in the fall semester include Mendelian and non-Mendelian inheritance, congenital malformations, dysmorphology, teratology, storage disorders and other inborn errors of metabolism, mitosis, meiosis,
structural abnormalities and segregation, X chromosome inactivation, new advances in cytogenetic technology including FISH, the molecular organization, regulation and manipulation of genes. In the Spring semester, topics will include genetic polymorphism and disease susceptibility, DNA diagnosis, prenatal and pre-implantation diagnosis, multifactorial inheritance, population genetics, linkage analysis, oncogenes, tumor suppressor genes, the molecular basis of breast and colon cancer and relevant counseling issues, genetic disorders of specific organ systems, newborn screening, gene therapy, the consumer’s view of genetic services and ethics and genetic technology. This course should impart basic principles of genetics as applied to medicine and provide an approach to a patient with a suspected genetic disorder.
Audience: Fellows and genetic counseling students who are preparing for subspecialty examinations of the American Board of Medical Genetics and for others who wish to learn about the expanding role of genetics in medicine.
Course objective: After attending this course the participant should be able to describe current advances in human genetics and manifestation in clinical disease and outline the current clinical practice for diagnosis and treatment of
patients with genetic disorders.
Prerequisites: Graduate level training or experience in the biomedical
sciences or consent of the course coordinator.
GENE 510 Fall and Spring, 4 credits each semester
Genetic Counseling: Professional
Topics Seminar Barbara B. Biesecker*
Anne Madeo
Tuition $580 per semester
Class will meet Fridays 2:30 - 4:30 p.m.
The objective of this course is to address the psychological, clinical, social, and ethical issues in genetic counseling. This is a required course for the graduate students enrolled in the JHU/NHGRI Genetic Counseling Training Program. It
is also an opportunity for college graduates interested in genetic counseling to learn about theoretical and practical aspects of the profession. This class offers a dynamic forum for discussion focusing on genetics counseling research, policy and education and their impact on clinical practice. A diverse group of professionals present topics well suited for class discussions. Student led case presentations highlight the psychological, social and ethical issues in genetic counseling. Clients who have had personal experiences with a genetic condition or risk expose students to a variety of attitudes, reactions and experiences. Students enrolled in related graduate programs are encouraged to enroll to maximize the opportunity for exchange among disciplines.
Prerequisite: Permission of one of the instructors.
GENE 514 Spring, 1 credit
Current Concepts in Clinical Molecular
Genetics and Molecular Diagnostics Suzanne Hart
Tuition: $145.00
Class will meet Thursdays 5:30pm-6:30pm
The objective of this course is to provide a review of molecular diagnosis of common hereditary or neoplastic disorders for which DNA based diagnosis is now in routine use. Topics include FGFR3 disorders, fetal blood typing, thrombophilias, hemochromatosis, fragile X syndrome, polyglutamine disorders, hereditary breast cancers, Charcot Marie Tooth and spinal muscular atrophy, PraderWilli and Angelman syndromes, mitochondrial diseases, Duchenne and Becker muscular dystrophy, cystic fi brosis, and Smith-Lemli-Opitz Syndrome. There will also be sessions on genetic risk prediction using linkage and Bayesian analysis as well as a class on DNA forensics and paternity testing. The course is designed as part of the required curriculum for Clinical Genetics residents and fellows preparing for
the Clinical Molecular Genetics boards given by the American Board of Medical Genetics.
Prerequisite: GENE 500 and permission of the instructor.
GENL 163 Fall, 1 credit
Qi Guang and Tai Chi with Reza Momenan
a Brief Review of Chinese Martial Arts
A brief review of the origin and history of classical martial arts in the world, with particular focus on Chinese Martial Arts is presented in this course. Through a series of theoretical and practical sessions, the principles of what are referred
to as internal and external martial arts are briefl y reviewed. In this course, various aspects of cultivating internal energy (Qi-pronounced Chi) through static and dynamic meditations are discussed and practiced. Scientific evidence and
research on physiological effects of these exercises are also discussed. Several sessions will be devoted to training various self-defense techniques. Physics and mechanics of external martial arts are also exercised. This course will include 30% theory and 70% practical workshop. No prior experience is required
Spring, 1.5 credits
Cajetan Dogo
Gwendolyn A. Marriner
Barbora Piknova*
Rosa Selimyan
This course will focus on review of scientific content intended for preparation to take the MCAT exam. The course will cover topics in general Chemistry, biology and physics. Each will be discussed in four 1.5 hour sessions.
Specific coaching for exam taking and practice exams are not included and it is assumed that students will be able to prepare for the mechanics of test taking on their own.
TEXTBOOK: Examkrackers Complete MCAT Study Package: 5 book package (paperback) Jonathan Orsay (author) publisher: Osote (ISBN: 9781893858497). Other review guides that encompass these topics should be suitable.
Grades will be given on a pass/fail and limited to 15 students.
GENL 322 Fall and Spring, 1 credit each semester (8 weeks)
GRE-Review Oliver Ou*
Katherine B. Szarama
This review course will prepare students for the Graduate Record Examinations (GRE) General Test. We will cover the Quantitative, Verbal, and Analytical Writing portions of the General Test with a primary focus on test content. Brief discussions of test-taking strategies will also be included. Students will have access to a variety of math, verbal and analytical writing practice material. The lectures will be interactive, with student participation strongly encouraged.
Registration is limited to 15 students.
IMMU 522 Spring, 2 credits
Molecular and Cellular Mechanisms Scott Durum*
of Immunity II Joshua Farber
The objective of this course is to survey recent advances in basic immunology for students who have already had a basic immunology course. The course is designed as a follow up to the Fall semester course IMMU 521. It is a series
of lectures by NIH researchers covering basic science and clinical aspects of adaptive and innate immunity to viruses, parasites and bacteria. AIDS, primary immune defi ciencies, autoimmunity, allergy and asthma will be discussed. Lectures on cytokines and their receptors will include interleukins, interferons, chemokines, the TNF family, TGFs and virokines. Regional immune systems of the skin and bowel will be discussed. Bone marrow transplantation and immunotherapy of cancer will be covered.
Registration limited to 50 students.
Prerequisite: A previous immunology course or working knowledge of basic
immunology, IMMU 521 or equivalent
MATH 128 Spring, 3 credits
Elementary Calculus II Reza Momenan
This is a continuation of MATH 127. Topics will include application of integration to life sciences. Differential equations, functions of many variables, partial derivatives, constrained and unconstrained optimization.
Spring, 2 credits James Herrington 301-496-5904
Introduction to Global Health and Guest Lecturers
Global Health is described as "an area for study, research and practice that places a priority on improving health and achieving equity in health for all people worldwide" (Koplan J et al. Lancet 2009;373:1993-95).
This graduate level seminar will provide a landscape view of global health challenges and opportunities currently confronting the world's populations.
Students will gain an understanding of how addressing global health issues can potentially reduce poverty, build stronger economies, and promote peace between peoples and nations. Students will learn about the major infectious and non-communicable diseases and also discover how socioeconomic and demographic differences influence the global burden of disease. Other critical determinants of health, including environmental, behavioral and cultural influences will also be presented. The course will explore how evidence from research can inform policy and be transferred into practice, using case reports from around the world. Students will learn that solving global health problems requires a multidisciplinary team approach, as demonstrated by lecturers drawn from multiple fields including public health, medical sciences, ethics, economics, and diplomacy.
MEDI 552 Spring, 2 credits
Demystifying Medicine for PhD Students,
Fellows and Staff Irwin M. Arias
The goal of this novel course is to “demystify medicine” primarily, but not exclusively, for PhD scientists through clinical presentations, analysis of the pathobiology of major human diseases and bridging this information with advances in basic biology. Clinician students, fellows and staff are also encouraged to participate. Participants will interview selected patients, see pathologic specimens and learn about major current diagnostic and therapeutic procedures. The class
will be heterogeneous in composition. The teaching staff will include clinicians, pathologists and basic scientists. Three preview and two additional supplemental lectures are being offered outside of the regularly scheduled semester. The course is based on a highly successful venture conducted at Tufts University School of Medicine for the past 19 years and for the past four years at NIH. To receive academic credit for this course the student must register with FAES, pay tuition, attend the sessions and complete a fi nal takehome exam. Those wishing to audit this course, can register directly with the instructor by email with no tuition charge.
This course is an elective for the Technology Transfer Certifi cate Program.
Viral Links to Cancer Michael Ferenczy
Wenny Lin
* Michael Thomas – 301-402-6098
The objective of this course is to provide an in-depth perspective on the role of viruses in the
development cancer. This course will introduce the viruses that are known or suspected to cause
cancer and discuss the evidence necessary to establish causality between particular viral infections
and cancer. Lectures will focus on the molecular mechanisms of virus-induced tumorigenesis; the
dynamic roles that viral proteins play in disrupting the DNA damage response system; the innate and
adaptive immune defenses including the production of inflammation.
Prerequisite: Previous background in biology or consent of the instructor
MICR 418 Spring, 3 credits
Emerging Infectious Diseases Robert H. Hall
Emerging infectious pathogens are predators that exploit changes in human biology, behavior, and the environment to overcome public health measures and host defenses. Recent domestic examples include infl uenza, SARS, monkeypox,
bovine spongiform encephalopathy, and West Nile virus. Hospital-acquired infections, usually multidrug resistant, take the lives of over 90,000 Americans annually. Infectious disease persists as a global problem. Vaccine-preventable
diseases are-emerge in populations at both ends of the wealth spectrum, such as tetanus or rabies among the world’s poorest children; measles or mumps among vociferous conscientious objectors. In South American, dengue fever,
schistosomiasis, leishmaniasis, and persistent childhood diarrhea feature prominently. In sub-Saharan Africa, co-infections and drug resistance increasingly frustrate the struggle against malaria, tuberculosis, and HIV/AIDS. East Asia, the recent origin of novel infl uenza viruses, SARS, and multidrug resistant gonorrhea, is a particularly interesting nexus of economic transformation, societal upheaval, and government policy. Additional complications include a arising pandemic of hepatitis C, brutal epidemics of cholera, and the long-delayed eradication of polio. Climate change carries important implications, most immediately by exacerbating microbial attacks on food animals and arable crops upon which we depend for survival. In this class, we will survey a wide range of pathogens whose emergence
relates to contemporary human, microbiological, and environmental factors. We will see how microbes have overcome medical marvels that took 150 years to develop. Case studies will track pathogens from isolated outbreaks to pandemicity. Common themes founded in history will be developed from almost 50 examples of today’s emerging infectious diseases.
Prerequisites: Interest in the interface of science and medicine, and for credit
students, willingness to make one class presentation on an emerging infectious
disease chosen from a list. Students interested in acting as a TA, please email
instructor at:erginginfections@verizon.net
New MICR 432 Spring, 2 credits
Human Virology Suresh K. Arya
This course will begin with the description of the diseases that turned out to be caused by viruses, such as cancer and AIDS, from antiquity to the present. This will lead into (the methods) of discovery of viruses, their general properties, mode of infection and propagations, genetics and evolution, viral pathogenesis, and host defense. This will be followed by consideration of the select viruses and diseases they cause in organ systems, such as respiratory tract, nervous system, bloodborn infections, sexually transmitted infections.
Prerequisites: college graduate, knowledge of biology or consent of the
instructor
Introduction to HIV/AIDS Research Anissa Brown
*Cynthia Grossman -301-443-8962
HIV/AIDS remains one of the greatest research and public health challenges facing our nation and
the world. This two credit course will provide a complete overview of the current state of basic
science, behavioral and social science, and biomedical AIDS research. Course material will include
lectures on HIV epidemiology, social and behavioral science, virology and biochemistry; etiology
and pathogenesis; the discovery, development, and evaluation of anti-HIV drugs and vaccines; and
the design and implementation methods of HIV prevention interventions. We also will examine the
current scientific and ethical issues facing AIDS research.
Course Objectives:
Upon completion, students should be able to demonstrate an understanding of the basic biology
of HIV/AIDS including but not limited to primary HIV infection, transmission, basic aspects of HIV
etiology and pathogenesis. Student will be able to describe the distribution and determinants of HIV/
AID; identify issues in the clinical practice of HIV/AIDS including but not limited to the integration
of risk assessment, rapid HIV testing, and effective risk reduction, common mental health and
behavioral issues, and impact on special populations. Students will have discussed strategies for
challenged to HIV prevention and treatment and have a basic understanding of the legal and ethical
issues surrounding HIV/AIDS.
Introduction to Environmental Health Sciences Erin Kent (new Instructor)
301-594-4701
Environmental health addresses human health effects of exposure to chemical, physical, and biological agents in the community, workplace, and home. Activities within environmental health sciences are associated with recognizing, assessing, understanding, and mitigating the impacts of chemical, physical, and biological agents as well as understanding how human behavior and action impacts the environment. The environmental health field is a broad, multidisciplinary field. This course focuses on the central concepts, principles, issues and applications of the essential scientific components and strategies of understanding and controlling major environmental health problems.
Course Learning Objectives: Upon completion a student will be able to…
1. Describe the direct and indirect human, ecological and safety effects of major environmental
and occupational agents.
2. Describe genetics, physiologic and psychosocial factors that affect susceptibility to adverse
health outcomes following exposure to environmental hazards.
3. Describe federal and state regulatory programs, guidelines and authorities that control
environmental health issues.
4. Specify current environmental risk assessments methods.
5. Specify approaches for assessing, preventing and controlling environmental hazards that pose
risks to human health and safety.
6. Explain the general mechanisms of toxicity in eliciting a toxic response to various environmental
exposures.
7. Discuss various risk management and risk communication approaches in relation to issues of
environmental justice and equity.
8. Develop a testable model of environmental insult.
This is a core course for the Certificate in Public Health Program
End-of-Life and Palliative Care in Public Health: Jeri Miller
Strategies, Systems and Challenges for Health Services
Defining end-of-life care-in what form and to what extent is particularly complex in an era of evolving
U.S. health care organization, shifting resources, and competing political, cultural, legal, and societal
values. This course explores the history and culture of end-of-life, palliative, and hospice efforts in
U.S. health care from the perspectives of public health strategies and health systems approaches.
Participants will explore the concepts, models, barriers, and impact of end-of-life and palliative care
in the context of epidemiology, cross-cultural considerations, health care utilization, and emerging
models/systems of health care. The course will: (1) challenge participants to examine complex,
sometimes conflicting, societal issues driving public health initiatives, (2) encourage opportunities to
explore the historical, cultural, economic and global issues of end-of-life care (3) provide perspectives
on conditions, services and needs and, (4) promote critical dialogue on the evolution of legislation,
consumerism, and policy to improve quality services across systems of health care. Instruction
include guest lectures, case studies, media, and other interactive tools to explore the context of
advocacy, health policy and planning processes, stakeholder engagement, and ethical aspects for
implementation of advanced illness services for all sectors of society.
Learning Objectives:
• Recognize the impact of public health concerns and related implications for health care
professionals in the provision of end-of-life and palliative care services
• Understand the significant development of the history and culture of end-of-life, palliative, and
hospice efforts in the U.S. health care system
• Gain awareness of the principles of symptoms, treatments/interventions, and outcomes of
advanced care across various populations and trajectories of life-limiting illnesses
• Demonstrate familiarity with the health service continuum for various populations faced with
serious, advanced illnesses
• Translate new knowledge and skills into evidence-based approaches to palliative and hospice
care
PBHL 512 Spring, 3 credits
Social and Behavioral Sciences Paula Goodwin
The social and behavioral sciences in public health address the behavioral, social and cultural factors related to individual and population health and health disparities over the life course. Research and practice
in this area contributes to the development, administration and evaluation of programs and policies in public health and health services to promote and sustain healthy environments and healthy lives for individuals and
populations.
Course Learning Objectives: Upon completion a student will be able
to…
1. Identify basic theories, concepts and models from a range of social and behavioral disciplines that are used in public health research and practice.
2. Identify the causes of social and behavioral factors that affect health of individuals and populations.
3. Identify individual, organizational and community concerns, assets, resources and defi cits for social and behavioral science intervention
4. Identify critical stakeholders for the planning, implementation and evaluation of public health programs, policies and interventions.
5. Describe steps and procedures for the planning, implementation and valuation of public health programs, policies and interventions.
6. Describe the role of social and community factors in both the onset and solution of public health problems.
7. Describe the merits of social and behavioral science interventions and policies.
8. Apply evidence-based approaches in the development and evaluation of social and behavioral science interventions.
9. Apply ethical principles to public health program planning, implementation and evaluation.
10. Specify multiple targets and levels of intervention for social and behavioral science programs and/or policies.s.
Using Program Evaluation for Planning,
Improvement, and Measurement Amanda Greene – 301-496-9601
of Public Health Programs Mary Hamann
Government agencies and private organizations have implemented multiple health programs.
Usually, thought, labor, and resources are spent developing and implementing these programs. But
how do we know if public needs are being addressed. How can we tell if it works? If it does work,
how well? If it doesn’t, why not? Can it be fixed? The answers to these questions are at the heart
of program evaluation. This has led to program evaluation rapidly gaining visibility and prominence
as an objective basis for program and policy decision-making. This course will introduce students to
program evaluation approaches and methodological tools that can be use to evaluate public health
programs and research.
Course Learning Objective: Upon completion a student will be able to:
1. Define program evaluation and its benefits in relation to public health programs and policies
2. Explain major concepts, approaches, and key elements of program evaluation and how to apply
these to public health practice and research.
3. Identify standards for conducting good program evaluations, (i.e., utility, feasibility, propriety,
and accuracy).
4. Describe five aspects of health program evaluation: its relevance (to the needs of the population
and social priorities), progress (implementation), efficiency (outcomes achieved in relation to
resources expended), effectiveness (extent to which predetermined objectives are met), and
impact (long-term outcomes).
5. Determine the most appropriate type of evaluation for a program given program stage of
development, stakeholder needs for information, and available resources.
6. Identify evaluation design techniques and how these compare to methods used in traditional
research.
7. Discuss the socio-political implications of and ethics of program evaluation.
8. Design a basic program evaluation plan that includes measurable program objectives,
evaluation questions, logic model, clear and realistic timeline, evaluation measures, budget,
and a plan to enhance utilization of finding.
9. Think critically about how health programs work, and discuss use of evaluation methods to
plan, implement and determine program processes and outcomes that ultimately lead to
improved health
Modeling Public Health: Complexity, David Broniatowski
Flexibility, Systems and Agent Based Thinking Meyer Katzper
This course will introduce core theory of systems thinking, with applications to public health. We
will cover key concepts such as system boundary definition, complexity, uncertainty, flexibility, and
robustness. We will discuss the utility of models for exploring behavioral and social aspects of
population health. We will note the variety of ways models can be formulated. Some extant models
will be explored in depth. Models will range from individual interactions to international policy
formulation. We will indicate how to apply models to situations of interest. Choice of model strategy
will be addressed including whether new models should be developed. We will discuss how to
allocate efforts and resources appropriately. The course will provide an opportunity for students to
create and present conceptual models in problems that involve their personal research interests. The
course describes different worldviews adopted by various modeling platforms. Examples include
systems dynamics, agent-based modeling and social network analysis.
FDA Perspective on Drug Development * Hanan Ghantous – 301-796-0717
(11 Weeks) Mark Seaton – 301-796-3408
And Guest Lecturers
This course will cover drug development from the FDA perspective. The FDA’s roles and responsibilities
related to the various components of the Investigational New Drug (IND) phase of drug development
will be covered in detail, including Chemistry, Manufacturing and Controls (CMC), pharmacology/
toxicology, clinical pharmacology, biometrics, clinical trials, statistics and inspection. In addition, a
comparison of the development of biologic drugs vs small molecule drugs will be presented. The
new drug application process will be discussed in terms of product label development. Aspects of
the post-approval phase of drug development will be discussed. Finally, attendees will have the
opportunity to discuss case studies, labels, analyze data and make approval decisions.
Prerequisite: College level biological sciences
Neurobiology of Addiction Jesse R. Schank – 301-402-5305
Text: Psychopharmacology, Meyer & Quenzer
The objective of this course is to introduce the behavioral and biological processes involved in the
development of addiction. The course will focus primarily on drugs of abuse, but will also cover
other types of addiction, such as food related addiction. A wide range of techniques used to study
addiction will be discussed including preclinical animal models, electrophysiology, biochemistry,
molecular biology, and clinical studies. This course is appropriate for any postbaccalaureate student
or upper level undergraduate or graduate students with previous college-level exposure to biology
and/or neuroscience. Course material will include the text listed above as well as recent scientific
literature from the field. Students will be responsible for discussing and critically evaluating scientific
studies. Class time will be part instructor-lead lecture and part student lead presentation of
journal articles. We will also devote a small portion of class time to discussing broader implications
of addiction treatments and drug policies
Registration limited to 25 students
PHAR 500 Year, 2 credits each semester
Principles of Clinical Pharmacology II Juan Lertora
and Guest Lecturers
Thursdays 6:30-7:45 pm
Tuition: $290 per semester January 5– April 26, 2012.
Spring - This course includes the topics of drug transport mechanisms and their relevance in pharmacokinetics and drug metabolism, dose response and concentration response analysis, biological markers of drug effect, and adverse
drug reactions. In addition, emphasis is given to optimizing and evaluating the clinical use of drugs, as well as drug therapy in special populations (children, elderly adults, pregnant and nursing women). A special course module focuses on the processes of drug discovery and development, and the regulatory role of the FDA.
IF YOU WOULD LIKE TO RECEIVE ACADEMIC CREDITS, YOU WILL NEED TO REGISTER WITH FAES AND PAY YOUR TUITION.
Prerequisite: PHAR 500 (fall semester) and Calculus
PHAR 511 Spring, 3 credits
Current Concepts in Pharmacology
and Therapeutics Fredrick Lombardo
Frank Pucino*
This course is intended to provide instruction in current pharmacologic principles of drug use, and their role in the diagnoses, prevention and treatment of disease. Theoretical and practical issues of pharmacology will be discussed to assist practitioners with therapeutic selection, use and evaluation of drug therapy. Pharmacogenomic, pharmacokinetics and pharmacodynamic concepts will be emphasized for many of the major pharmacologic classes of drugs used in clinical medicine. The lecture material will be reinforced through case presentations and student participation.
This is an elective for the Technology Transfer Certifi cation Program.
PHYS 202 Spring, 3 credits
Introductory Physics II Warren J.Eresian
A continuation of PHYS 201. Topics will include heat and thermodynamics, electricity and magnetism, optics, quantum theory, nuclear physics and radioactivity.
This course has no laboratory.
SPAN 102 Spring, 2 credits
Spanish for Beginners II Angela Rodriguez
Continuation of SPAN 101. Presentation and role-play situations are included to reach a higher profi ciency level. Narration in the past is introduced.
Prerequisite: SPAN 101 or equivalent. Audio program is available.
Registration limited to 25 students
Failure to re-register for the second semester could result in cancellation
of that semester due to low enrollment.
STAT 200 Year, 3 credits each semester
Introduction to
Experimental Statistics Ghideon Ghebregiorgis*
Henry S. Hsu
This course introduces the statistical concepts and methods as applied to the data encountered in biomedical and behavioral sciences. It emphasizes the basic skills of experimental design, quantitative analysis of data and
statistical inferences. Topics covered in the fi rst semester include: probability theory and distributions; population parameters and their sample estimates; descriptive statistics for central tendency and dispersion; hypothesis testing
and confi dence intervals for means, variances and proportions. Topics covered in the second semester include: the chi-square statistic and categorical data analysis; linear correlation and regression model; one- and two-way analysis
of variance with multiple comparisons; analysis of covariance; nonparametric methods; survival analysis. This course is designed for health science researchers and clinicians who have little or no previous statistics courses. Some mathematical background is required; working knowledge of algebra preferred. Material covered in the first semester is necessary to satisfactorily undertake the second semester; researchers with statistics literacy, who would like to continue from where most beginning statistical courses end, can join the second semester to extend the scope of their knowledge of advanced methods.
Registration is limited to 25 students.