Graduate Study at the Chemistry-Biology Interface

Washington University School of Medicine and Department of Chemistry

augmented by a

"Chemistry-Biology Interface" (CBI) Training Grant

awarded by the National Institutes of Health  2T32GM008785

Hyperlink Menu

·       Introduction

·       Training faculty (by area)

·       Training faculty (alphabetical)

·       Trainees (current and former)

·       Program of Study

·       Seminar Series

·       Contact and Application Forms

Introduction

Chemistry and biology have evolved during the past fifty years in what might be considered "opposite" directions. Chemistry has long been concerned with atomic and molecular detail. As the level of chemical understanding has increased, so has the ability of chemists to approach or address larger problems. A major field of chemical endeavor is currently "supramolecular" chemistry in which molecular assemblies rather than individual bonds or molecules are the focus. Correspondingly, the study of biology has increasingly focused on individual proteins, nucleic acids, or amino acids. Technology is currently available to the biologist that permits site-directed changes of amino or nucleic acids within a larger structure. Thus, these two branches of science now appear to be on a convergent path.

A major accomplishment of modern biology is gene sequencing. In the fullness of time, genetic codes for all organisms will be recorded and this will permit us to understand and identify the range of proteins for which these sequences code. Increasingly, chemical science will be a critical tool for the sophisticated biologist. The need for enhanced interactions between biology and chemistry is obvious. Indeed, the future of the biomedical enterprise depends on access to effective collaborations with chemists. The study of science at the chemistry-biology interface is designed to help meet this future need.

Washington University offers a graduate student an opportunity to undertake cutting-edge research that involves analytical, inorganic, organic, and physical chemistry with a direct interface to biology. The Washington University School of Medicine is one of the top medical schools in the country and hundreds of faculty, medical residents, post doctoral fellows, graduate students, technicians, and undergraduates are involved in research projects at the forefront of science. The chemical sciences within the Medical School are expanding and already present a student the opportunity to obtain a graduate degree in analytical, inorganic, organic, or physical chemistry while working in a stimulating biological environment.

Students wanting a classical chemical background can expand their horizons by exposure to biology and biochemistry courses. Those students primarily interesting in biochemistry or biophysics can gain direct experience in chemistry but a combination of coursework and a brief "sabbatical" to work in a chemical laboratory.

The community of students enrolled in the "CBI Pathway" on both campuses are brought together by two joint, student-run programs: a monthly seminar and a bi-weekly journal club. The outside speaker for the monthly seminar program is invited by the CBI Pathway students, who host and entertain him or her. Likewise, the journal club is student organized. Primary responsibility for the programs is assumed by the NIH Training grantees as an additional part of that honor.

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Faculty Associated with the CBI program

Faculty Grouped According to General Research Areas (* = Secondary Research Mentor)

 

Biochemical mechanisms of disease:

R. Gross, S. Hultgren, T. Pandita*, J. Roti Roti, Emil Unanue

Biomolecular spectroscopy:

J. Ackerman, M. Gross, D. Holten, J. Schaefer

Bioinorganic Chemistry

C. Anderson, G. Gokel, D. Holten, J. Kappock, H. Pakrasi

Biomedical Imaging

S. Achilefu,* J. Ackerman, C. Anderson, J. Lewis,* B. Rogers,* M. Welch

Bioorganic and Pharmaceutical Chemistry:

C. Anderson, D. Covey, D. Elbert, G. Gokel, G. Marshall, J. Maurer, K. Moeller, B. Rogers,* S. Sakiyama-Elbert, J. Taylor, M. Welch, K. Wooley

Biomaterials and Nanochemistry

D. Elbert, J. Maurer, S. Sakiyama-Elbert, K. Wooley

Computational Chemistry and Molecular Modeling:

J. Ponder, G. Marshall

Enzymology, Regulation and Signaling:

C. Frieden, Joe Kappock, J. M. Petrash, H. Pakrasi, C. Pikaard, R. Quatrano, J. Roti Roti, P. Schlesinger, J.-S. Taylor,  J. Turk, O. Yu*

Ion channels and membranes:

G. Gokel, R. Gross, J. Maurer, J. Schaefer, P. Schlessinger, J. Turk, K. Wooley

Macromolecular Interactions, Molecular Recognition and Design:

S. Achilefu,* J. Baenziger, D. Covey, G. Gokel, S. Hultgren, J. Lewis,* G. Marshall, J. Mauer, K. Moeller, J.-S. Taylor, K. Wooley

Natural Products Synthesis and Biosynthesis

V. Birman, D. Covey, K. Moeller, O. Yu*

Neurochemistry and Neurobiology

T. Holy. J. Maurer, S. Sakiyama-Elbert

Nucleic Acid Biochemistry and Gene Expression:

T. Pandita,* C. Pikaard, R. Quatrano, J. Roti Roti, Shelly Sakiyama-Elbert, J. Taylor, O. Yu*

Photosynthesis

D. Holten, H. Pakrasi

Plant Biochemistry

H. Pakrasi, C. Pikaard, R. Quatrano, O. Yu*

Protein folding, stability and assembly:

C. Frieden, M. Gross, S. Hultgren, J. Kappock, J. Ponder, J. Schaefer

Protein structure-function relationships:

J. Gordon, D. Holten, S. Hultgren, J. Kappock, J. M. Petrash, J. Schaefer, J. Taylor

Tissue Engineering

Don Elbert, Shelly Sakiyama-Elbert

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Training Faculty Listed Alphabetically

SC = steering committee, PM = primary,  or SM = secondary research mentor.

 

Name and Degree

Rank

Primary Appointment

 

Research Interests

Role

Achilefu, Samuel, Ph.D.

Associate Professor

Radiology

Design and synthesis of drugs and molecular probes

 SM

Ackerman, Joseph, Ph.D.

Professor and Chair

Chemistry

Development and application of magnetic resonance imaging and spectroscopy techniques

 PM, SM

Anderson, Carolyn, Ph.D.

Assistant Professor

 

Radiology

Development of radiopharmaceuticals for cancer diagnosis and therapy

 PM, SM

Baenziger, Jacques, M.D., Ph.D.

Professor

Pathology           

The role of carbohydrates in protein and cellular recognition

 PM, SM

Birman, Vladimir, Ph.D.

Assistant Professor

Chemistry

Natural products synthesis

 PM, SM

Covey, Douglas, Ph.D.

Professor

Molecular Biology & Pharmacology

Medicinal chemistry of steroids and allosteric modulators of ion channels

SC, PM, SM

Don Elbert

Assistant Professor

Biomedical Engineering

drug delivery, cell and tissue engineering, combinatorial chemistry

PM

Frieden, Carl, Ph.D.

Professor and Interim Head

Biochemistry & Molecular Biophysics

Protein structure/function; protein folding; actin; enzymology

PM, SM

Gokel, George, Ph.D.

Professor

Molecular Biology & Pharmacology

Synthetic organic chemical model systems used to understand biological phenomena

 SC, PM, SM

Gordon, Jeffrey, M.D.

Professor and Head

Molecular Biology & Pharmacology

Epithelial cell homeostasis in developing and adult mouse gut; protein N-myristoylation in S. cerevisiae

 PM, SM

Gross, Michael, Ph.D.

Professor

Professor

Chemistry

Instrument and methods development in mass spectrometry and application to biomolecules

 SC, PM, SM

Gross, Richard, M.D., Ph.D.

Professor

Medicine

The molecular mechanisms through which biologic membranes participate in cellular activation processes

 PM, SM

Holten, Dewey, Ph.D.

Professor

Chemistry

Primary photochemistry of wild-type and mutant photosynthetic reaction centers

 PM, SM

Holy, Timothy, Ph.D.

Assistant Professor

Anatomy and Neurobiology

Neural mechanisms of pheromone detection

 PM, SM

Hultgren, Scott, Ph.D.

Professor

Molecular Microbiology

Molecular basis and consequences of host-pathogen interactions; biogenesis of virulence factors

 PM, SM

Kappock, Joseph, Ph.D.

Assistant Professor

Chemistry

Mechanism of acid tolerance, and desaturases

 PM, SM

Lewis, Jason, Ph.D.

Assistant Professor

Radiology

Radiopharmaceuticals for diagnosis and therapy

 SM

Marshall, Garland, Ph.D.

Professor

Biochemistry and Molecular Biophysics

Molecular recognition, drug design, peptide conformation, protein folding

 PM, SM

Maurer, Joshua, Ph.D.

Assistant Professor

Chemistry

Neuronal development and differentiation, biosensors,

 PM, SM

Moeller, Kevin, Ph.D.

Professor

Chemistry

Developing new methods for peptide mimetic and natural product synthesis

 PM, SM

Pakrasi, Himadri, Ph.D.

Professor

Plant Biology

Photosynthesis and metal biology

 PM, SM

Pandita, Tej

Associate Professor

Radiation oncology

Chromatin-telomere structure in relation to AT and radiation sensitivity 

 SM

Petrash, J. Mark, Ph.D.

Professor

Ophthalmology & Visual Sciences

Structure, function and evolution of proteins in the visual system

 PM, SM

Pikaard, Craig, Ph.D.

Professor

Plant Biology

Gene silencing and chromatin structure

 PM, SM

Ponder, Jay, Ph.D.

Associate Professor

Biochemistry & Molecular Biophysics

Computational chemistry, protein engineering, theoretical protein structure and folding

 PM, SM

Quatrano, Ralph, Ph.D.

Professor & Chair

Plant Biology

Regulation of gene expression in plants

 PM, SM

Rogers, Buck

Assistant Professor

Radiation Oncology

Radiopharmaceuticals for imaging and therapy

 SM

Roti Roti, Joseph, Ph.D.

Professor & Chair

Radiation Oncology

Nuclear protein interactions in the cellular response to ionizing radiation

 PM, SM

Schaefer, Jacob, Ph.D.

Professor

Chemistry

Using NMR to characterize structure and dynamics at single, specific sites in proteins

 PM, SM

Schlesinger, Paul, M.D., Ph.D.

Associate Professor

Cell Biology & Physiology

Receptor-mediated endocytosis, intracellular ion transport, chloride, protons

 SC, PM, SM

Sukayama-Elbert, Shelly, Ph.D.

Assistant Professor

Biomedical Engineering

Biomaterials for tissue engineering and drug, protein and gene delivery

 PM, SM

Taylor, John-Stephen, Ph.D.

Professor

Chemistry

Mechanism of UV mutagenesis, development of antisense and antigene chemotherapeutic and diagnostic agents

 SC, PM, SM

John Turk, M.D., Ph.D.

Professor

Internal Medicine

Lipid signaling events in insulin secretion

 PM, SM

Unanue, Emmanuel, M.D.

Professor and Chair

Immunology

Immunopathogenesis of autoimmune diabetes

 PM, SM

Welch, Michael, Ph.D.

Professor

Radiology

Use of radiopharmaceuticals to evaluate receptor and enzyme levels in vivo

 PM, SM

Wooley, Karen, Ph.D.

 

Professor

Chemistry

Organic and polymer synthesis: novel macromolecular architectures as mimetics of biological delivery agents; degradable polymers

SC, PM, SM

Yu, Oliver

Assistant Member

Danforth Center

Isoflavonoid biosynthesis

 SM

 

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CBI Pathway NIH Trainees

 

 

 

Lynette Cegelski

00-02

Chemistry

Charles (Andy) Boswell

00-02

Chemical Biology

Lori (Quick) Anderson

01-03

Chemical Biology

Matthew Becker

01-03

Chemistry

Jeff Turner

02-04

Chemistry

Michelle Weber

02-04

Chemical Biology

Jamie Bruns Scaglione

03-05

Chemical Biology

Maisie Joralemon

03-05

Chemistry

Micha Wilcox

04-06

Chemistry

Eric Miller

04-06

Biochemistry

 

Current CBI Pathway Members

 

Amy Caruano

Biological Chemistry

Eric Miller

Biochemistry

Jamie Scaglione

Biological Chemistry

Kristin Bullok

Biological Chemistry

Matthew Anderson

Biological Chemistry

Michelle Weber

Biological Chemistry

Stephany Shockley

Biological Chemistry

Alina Handorean

Chemistry

Brooke Van Horne

Chemistry

Gary Patti

Chemistry

Glenna Anderson

Chemistry

Jeffrey Turner

Chemistry

Lei You

Chemistry

Masie Jorelemon

Chemistry

Micha Wilcox

Chemistry

Richard Yang

Chemistry

Tsyr-Yan Yu

Chemistry

 

 

 

 

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Program of Training in the CBI Pathway

The supplemental training in the CBI Pathway is designed to enhance the student's exposure to parts of the chemistry-biology interface that are removed from the primary focus of their research and training. For example, chemistry students involved in organic synthesis might gain experience in cloning, mutagenesis, cell culture assays, protein purification, binding assays or enzymology. Conversely, Division students may gain experience in techniques or approaches such as mass spectrometry, solid-state NMR, polymer chemistry or organic synthesis. The rich research environment at Washington University provides many opportunities for such training.

The requirements of the CBI Pathway

CBI Electives

The elective courses most suitable for students in the CBI Pathway will be decided on an individual basis with the primary goal of enhancing their interdisciplinary education. In most cases, students will choose CBI Electives at the end of the first graduate year during an advising session with the CBI Governing Committee, and the courses will be taken in the second graduate year. The courses will be selected from the extensive offerings of the Chemistry Department and the Division of Biology and Biomedical Sciences. It is anticipated that many Department of Chemistry Ph.D. students in the pathway with an undergraduate background in biology will take Bio 5068: Fundamentals of Molecular Cell Biology as a CBI Elective. This course covers a broad range of important biological systems and processes at the molecular and cellular level. The CBI Governing Committee agrees that this course is the ideal single-most appropriate course for chemistry students in the pathway. This course is offered in the fall semester. Chemistry students with little training in biology may be advised to sit in on the undergraduate cell biology course during the summer or to read an introductory cell biology text prior to taking Bio 5068. Some chemistry students, depending on their research interests, may benefit from taking a different biology course, such as Advanced Genetics (Bio 5491), Nucleic Acids and Protein Biosynthesis (Bio 548) or Foundations of Immunology (Bio 5051).

Students in the Biochemistry and other DBBS Program might be advised to take Chem 451: Organic Chemistry III. This course provides the exposure to graduate level training in synthetic and mechanistic chemistry. The goal of the CBI elective requirement is to entice students to gain training in an area they ordinarily do not pursue. Other possible CBI Electives for DBBS students include Chem 555 (Chemical Biology), Chem 520 (Nucleic Acids Chemistry), Chem 557 (Advanced Organic Synthesis) Chem 453 (Bioorganic Chemistry), Chem 476 (Chemistry of Biological Membranes), Chem 562 (Statistical Thermodynamics) and Chem 571 (Quantum Chemistry and Spectra).

CBI Research Internship

The research internship is the most novel feature of the CBI Pathway. The primary goal of the internship is to broaden the student's thesis research experience. The research internship is designed to occur at a later stage of their training - a time when it will have a greater impact on their thesis work and career choices. This internship would take place in the third or fourth year of graduate school. In a favorable scenario, the research internship would be a natural outflow of the student's thesis research project and conducted in the laboratory of a collaborator. For example, a student in a chemistry laboratory may join the laboratory of a biological collaborator for up to three months to gain direct experience with a biological assay or technique complementary and relevant to the student's thesis research.

The internship is intended to serve as a tool for enhancing the research of students motivated for interdisciplinary training. Once the student has gained momentum on a thesis project and realizes that a technique in a different laboratory could benefit his/her work, the connection would be established with a CBI faculty member who specializes in the field of interest. This sets the internship apart from the laboratory rotations conducted by Division students. (Chemistry Department students do not participate in first year laboratory rotations.) The first-year rotations serve primarily as a screening tool for sampling and choosing potential thesis laboratories. In contrast, the CBI Research Internship serves as an educational tool for significant research advancement. The CBI Governing Committee feels strongly that this internship should be viewed as a central feature of an interdisciplinary, collaborative research project.

CBI Seminar Series and the Annual Retreat

The centerpiece of the program is a monthly CBI seminar is organized and hosted by students in the CBI training program which brings all the students any many of the faculty together 4 times/year. There is also a day and a half overnight yearly retreat at Trout Lodge, where CBI students are expected to present a poster or paper.  Students are also expected to present posters and papers at National Conferences.

April 18, 2005

Alexandros Makriyannis

Northeastern University

Mixing Chemistry and Biology:  Exciting Opportunities in Multidisciplinary Research

Mar. 21, 2005

Milan Mrksich

University of Chicago

Tailored Materials for Cell Biology.

May 10, 2004

Jeffrey Kelly

Skaggs/Scripps Institutes

Understanding the Energetics of AmyloIdosis and Manipulating the Landscape with Small Molecules and Trans- Suppression to Prevent Disease

April 5, 2004

John Talley

Microbia Corporation

Discovery of Cox2 Inhibitors

Mar. 8, 2004

Vladimir Torchilin

Northeastern University

Drug Targeting: Where and How?

Feb. 9, 2004

Thomas Meade

Northwestern University

The Chemistry of Biological Molecular Imaging

Feb. 2, 2004

Arthur Johnson

Texas A&M University

How Does a Bacterial Protein Toxin Form Huge Holes

Dec. 1, 2003

David Corey

University of Texas

Controlling Cellular Processes with Oligonucleotides and PNAs

Nov. 4, 2003

Carolyn Bertozzi

Berkeley

Chemical Approaches to Glycobiology

Oct. 13, 2003

Steven Regan

Lehigh University

Supramolecular Chemistry with a View towards Biology and Medicine

May 5, 2003

Craig Hawker

IBM

The Convergence of Biotechnology and Microfabrication . A Bottom's up Approach to Nanostructures

Mar. 24, 2003

James Leighton

Columbia

Strained Silacycles and Tandem Reactions in Organic Synthesis

Feb. 24, 2003

Marvin Caruthers

Boulder

Synthesis of DNA, RNA, and Analogs. Chemistry and Biochemistry

Jan. 27, 2003

David Tirrell

Cal Tech

Novel Macromolecules via Alternative Translations of the Genetic Code

Dec. 2, 2002

Jack Tanner

U. Missouri - Columbia

Crystal Structure of the Proline Dehydrogenase Domain of the Multifunctional PutA Flavoprotein

Nov. 25, 2002

Richard Roberts

Cal Tech

Trillions of Molecules, So Little Time: In Vitro Selection of Peptides and Proteins using MRNA Display

Oct. 14, 2002

Martin Newcomb

University of Illinois - Chicago

Multiple Mechanisms and Multiple Oxidation Hydroxylations Catalyzed by Cytochrome P450 Enzymes

Nov. 12, 2002

Chad Mirkin

Northwestern

Nanoparticle-Based Molecular Diagnostics: A New Frontier in Biodetection

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Career Development Workshops

Scientists from industry, government and academia are periodically invited to address relevant career issues and opportunities. Such workshops are often organized and co-sponsored by programs in the Division. The Department of Chemistry hosts at least two industrial research scientists per year to expose the students to industrial science and allow for initial contacts to made for potential employment opportunities.

CBI Pathway Calendar

May 1 of the first graduate year 
Interested students submit an application to join the CBI Pathway. Students are selected and admitted to the CBI Pathway by June 1. Pathway students receive curriculum advising from the CBI Governing Committee and choose CBI Electives

Mid September of the third graduate year
Application for training grant support for the CBI students is due and begins Oct. 1, contingent upon completion of the coursework, teaching requirements and preliminary or cumulative exams for one Ph.D. program. Students must propose a plan for the Research Internship to the CBI Governing Committee and complete CBI coursework and journal club requirement.

Fall of third and subsequent years
Pathway students must attend the BBB retreat and present a poster or talk on their research.

Mid September of subsequent years
Pathway students must submit a yearly progress report or final report to the Steering Committee.

Outline of the CBI Pathway for typical students:

Chemistry Department graduate students in the CBI pathway:


DBBS graduate students in the CBI Pathway:

Steering Committee Contact Information (click on name to send email)

Hilltop Campus

 

Medical School Campus

 

Michael Gross

935-4814

Douglas Covey

362-1726

John Taylor

935-6721

George Gokel

362-9297

Karen Wooley

935-7136

Paul Schlesinger

362-2223

CBI Program Application and Progress Forms

Application to join CBI program, (students in 2nd or 3rd yr) due May 1, 2005.

Application for a CBI training fellowship or renewal (students in 3rd or 4th yr) due mid September, 2005 (recommendation letters required for consideration).

Progress Report for members of CBI pathway and trainees (due mid September every year until requirements for the CBI pathway are all met), and then the report is a final report.

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