Graduate School of Biomedical Sciences

EmailEmail    |   Bookmark Page Bookmark  |   RSS Feeds RSS  |   Print Page Print  

Biochemistry

Degree Offered
Doctor of Philosophy


Dual-Degree Program
Students with outstanding academic records who have been accepted into the MD program may apply for admission to a combined-degree program leading to the MS and MD or to the PhD and MD degrees. Completion of the dual-degree program usually requires a minimum of seven years.
 

Program Admission Requirements
In addition to the general Graduate School admission requirements, this program has additional specific requirements.

Admission to the Biochemistry Graduate Program is through the Interdisciplinary Program in Biomedical Sciences (IDP). After completion of the first-year curriculum of that program, students who choose to complete their dissertation research project with faculty of the Biochemistry Department will have the opportunity to continue their graduate studies by selecting from among a wide range of courses that are offered within the Biochemistry Department as well as other programs at MCW. Courses to be taken are based on the student’s interests in consultation with the student’s dissertation committee.


Fields of Research
The following areas of research are available in the department:

  • Protection of the immature and mature heart during surgery. Cardioplegic components and cyanosis.
    (Dr. Baker)
  • Cancer cell signaling in neurological malignancies (Dr. Chan)
  • Diabetes, beta cell biology, inflammation innate immunity, cell signaling, cell fate decisions. (Dr. Corbett)
  • Molecular mechanisms underlying the functioning of mannose 6-phosphate receptors (MPRs) in mammalian cells. (Dr. Dahms)
  • Molecular regulation of nutrient utilization in metabolic syndrome, atherosclerosis and inherited diseases of fat metabolism.
  • Structural biochemistry of multi-protein machinery (RNA polymerases and associated factors) involved in gene transcription and RNA processing in the eukaryote. (Dr. Fu)
  • Oxidative stress, reactive oxygen/nitrogen species, cell membrane lipids, lipid peroxidation and mechanisms of oxidative apoptosis. (Dr. Girotti)
  • The role of metabolic modifications such as acetylation. The role of topological stress in DNA. The role of accessory proteins in modulating histone DNA interactions. (Dr. Jackson)
  • Structure-function relationship of enzymes and receptors using X-ray diffraction methods. (Dr. Kim)
  • Characterization of molecular mechanisms of protein dynamics and protein-protein interactions using solution NMR and other biophysical techniques.
  • To determine changes in protein phosphorylation and glycosylation during angiogenesis using mass spectrometry-based technologies. Proteomics of congestive heart defects. (Dr. Mirza)
  • In vivo mechanisms controlling developmental and cardiovascular specific gene expression (Dr. Misra)
  • Mechanistic differences of Ras/Raf-induced growth inhibition vs. proliferation at molecular levels. (Dr. Park)
  • Protease and protease inhibitors in the cornea. Structure-function of maspin and its effects on carcinoma and corneal cells. (Dr. Twining)
  • Structural biology of immunological signaling molecules and the use of NMR spectroscopy in structural proteomics. (Dr. Volkman)
  • Signaling pathways that mediate the hemostatic responses of blood platelets. (Dr. White)


Overall Course Requirements
A requirement of this program is to fulfill two credits in Bioethics by completing Course (10222) Ethics and Integrity in Science and Course (10444) Research Ethics Discussion Series.  For course descriptions of 10222 and 10444 see listing within the Bioethics Program.
 



Courses

02207 Enzyme Kinetics and Receptor Binding: Theory and Practice. 1 credit.
This course teaches both the theoretical framework and practical aspects of enzyme kinetics and receptor binding studies. Topics covered include basic steady state kinetics including the determination and meaning of Km and Vmax values for simple and multisubstrate reactions, determination binding properties and kinetic consequences of common reversible inhibitors (competitive, non-competitive, uncompetitive, mixed), slow-on, slow-off inhibitors and irreversible inactivators. Dissociation constants and procedures for determining them will be discussed for both enzymes and macromolecular receptors. Practical methodologies for determining pre-steady state kinetics will be presented. Practical aspects of designing kinetic studies will be discussed and later sessions of the course will involve reading and student-led discussions of studies in the literature that illustrate ways in which studies of enzyme kinetics or receptor binding advanced the study of particular enzymes and other macromolecules. Over the six-week duration of the course each student will prepare a short report in which he or she describes the design and, if possible, execution of a series of kinetic or receptor binding studies that draw on the teachings of the course and are related to the work each proposes to carry out for a dissertation.

02211 Medical Genetics. 2 credits.
This course is an introduction to genetics and serves as a prerequisite for Physiological Genomics and other advanced genetics and genomics courses. Through literature review, students will gain an understanding of the genetic basis of diseases and learn to communicate with individuals in multiple disciplines relevant to genetics of complex diseases.

02222 Advanced Protein Chemistry. 3 credits.
With complete sequences for the genomes of human and many other species now available, much of the attention in molecular biological research is rapidly turning to the characterization of organism-wide collections of gene products, often referred to as functional genomics or proteomics. Just as the human genome project catalyzed generational advanced in DNA-sequencing technology, current trends demand improved methods for efficient cloning, production and physical characterization of recombinant proteins. With the changing nature of protein characterization in mind, this course will focus on the practical aspects of protein production and characterization, including the steps most commonly encountered in the development of strategies for three-dimensional structural characterization by NMR or X-ray crystallography. New methods and optimization of standard approaches for high-throughput applications will be emphasized, including techniques ranging from chromatography and electrophoresis to mass spectrometry, fluorescence and NMR spectroscopy.

02230 Biomolecular NMR: Structure and Molecular Recognition. 1 credit.
Prerequisite: 02222.

Nuclear magnetic resonance spectroscopy (NMR) is a powerful tool for the interrogation of biomolecular structure and interactions at atomic resolution. Structural genomics efforts have produced refinements in the methodology for three-dimensional protein structure determination, such that new structures can be solved in a matter of weeks using increasingly automated processes. This course begins with a description of the quantum mechanical basis for multidimensional NMR using the product operator formalism. This powerful operator algebra rigorously predicts the propagation of the nuclear spin wavefunction under a time-independent Hamiltonian operator governing interactions between nuclear spins and between spins and static or transient magnetic fields, enabling the development of increasingly complex pulse sequences for multidimensional, multinuclear NMR measurements of biomolecules. Simple pulse sequences for magnetization transfer and isotope editing are described using product operators and combined into more complex two- and three-dimensional pulse schemes for triple-resonance correlation of nuclei in proteins. Systematic application of these NMR methods to the sequence-specific assignment of isotopically enriched proteins will then be linked to the interpretation of other of types NMR data (nuclear Overhauser effect; scalar and dipolar couplings) that report directly on tertiary structure. The balance of the course will consist of practical, hands-on training in basics of 2D/3D NMR data acquisition, processing and analysis, as well as interactive computer tutorials on the chemical shift assignment and 3-D structure determination processes.

02235 Biomolecular NMR: Protein Dynamics and Binding. 1 credit.
Prerequisites: 02222 and enrollment in 02230 Biomolecular NMR: Structure and Molecular Recognition.

NMR spectroscopy is one of the most powerful tools of contemporary structural biology. Multiple NMR applications enable structural, thermodynamic and kinetic analysis of proteins and nucleic acids under physiological conditions with site-specific resolution. The course “Biomolecular NMR: Protein Dynamics and Binding” discusses applications of NMR to protein dynamics, conformational transitions and ligand binding. The topics include NMR line shape analysis and spin relaxation methods that are used to extract structural, thermodynamic and kinetic parameters of conformational transitions and ligand binding in proteins. The course is directed to students who would like to utilize NMR spectroscopy as a part of the dissertation research.

02240 Contemporary X-ray Crystallography.  1 credit.
Prerequisite: Completion of IDPBS course curriculum.
X-ray crystallography is the main method that is used to elucidate three-dimensional structures of macromolecules and biomolecular complexes, and capable of revealing structural details at high resolutions. Powered by modern synchrotron-based light sources and state-of-the-art computer programs, contemporary crystallographic research has provided mechanistic insights into complex cellular functions such as gene transcription and translation. While crystallographic computer programs are openly available, the use of these packages by biologists who do not have a theoretical comprehension of crystallography can be unproductive. This course is designed to teach non-crystallographers the capability to intelligently use crystallographic programs that are available in the form of bundled software. Attendees will learn systematically the central theory behind the crystallographic tools in use today, and hence grow an appreciation of the physical process that takes place during an experiment to determine the structure of a protein or nucleic acid. A central aim of this is to generate stimulating discussions that will help the students grasp the essence of macromolecular crystallography.

02248 Structural Basis - Macromolecules. 1 credit.
Prerequisites:  Biochemistry of the Cell (course #16201) or equivalent, or consent of the course director.
With the explosion of the number of three-dimensional structures of biological macromolecules that have been determined, it is imperative to learn how to study their structures in detail and learn the molecular basis for their functions.  This course discusses the mechanism of action and the relationship between structure and function of selected groups of biological macromolecules.  The molecules studied range form enzymes (both soluble and membrane-bound) to proteins involved in signal transduction and in epigenetic gene regulation.   At the end of the course, the student will attain the skills to analyze the relationship between structures and functions of proteins.

02251 Advanced Molecular Genetics. 3 credits.
The background to six different specific topics in molecular genetics is presented in an initial lecture followed by several discussion sessions in which research papers from that area are presented and critically evaluated. Emphasis is placed on developing the ability to critically read and evaluate experimental approaches and data from original research papers. Examples of topics include: the DNA binding properties of proteins; regulation of gene expression at the translation level; mechanisms of DNA replication; regulation of gene expression by enhancer elements; and DNA transposition mechanisms.

02776 Special Topics in Biochemistry. 1 credit.
This is an advanced course that is designed to cover topics of particular relevance to the graduate students within the department. The students provide input regarding the topics to be covered, which vary depending on their current interests. Examples of recent topics are: Enzyme Kinetics and Receptor Binding; Theory and Practice; Structural Basis of Macromolecular Interactions; Oxidative Signaling in Cancer. The format of the course involves lecture as well as student-led discussions of the topics.

02295 Reading and Research. 1-9 credits.

02301 Seminar. 1 credit.
Students are given practice in presenting and evaluating their research data. Solutions to research problems encountered are also discussed. Seminar is required beginning in the second semester and continues throughout each student’s program.

02399 Doctoral Dissertation. 9 credits.
 

Contact Information

Graduate School of
Biomedical Sciences
8701 Watertown Plank Rd.
Milwaukee, WI 53226

Phone: 414-955-8218
Fax: 414-955-6555
gradschool@mcw.edu

Please wait while we gather your results.

MCW Biochemistry News

Protein Foundry, a new company, launches at MCW

July 11 - Protein Foundry, a new company manufacturing and marketing protein molecules, had its official launch Thursday, July 10, at the Medical College of Wisconsin.

Dr. Brian Volkman asked to serve on NIH study section

April 30 - Brian Volkman, PhD, Professor of Biochemistry, has been appointed to the National Institutes of Health’s Macromolecular Structure and Function C Study Section.

MCW receives grant supporting research in neurodegenerative disease

April 30 - The Medical College of Wisconsin has received a three-year, $740,000 grant from the National Institutes of Health’s National Institute of Neurological Disorders and Stroke funding research investigating how neurons clear toxic proteins involved in neurodegenerative disease.

MCW researcher to study mechanisms involved in diabetes

April 30 - The Medical College of Wisconsin (MCW) has received a four-year, $1.4 million grant from the National Institutes of Health’s National Institute of Diabetes and Digestive and Kidney Diseases to study the biochemical causes of beta cell destruction in diabetes.

webmaster@mcw.edu
© 2014 Medical College of Wisconsin
Page Updated 03/27/2014