Joined the faculty in 2004
Postdoctoral, Memorial Sloan-Kettering Cancer Center
Ph.D., Massachusetts Institute of Technology
A.B., Princeton University
Read Justin Miller's Curriculum Vitae
Courses Routinely Taught:
Organic Chemistry I (CHEM 240)
Organic Chemistry II (CHEM 241)
Courses Taught Occasionally:
Intro. General Chemistry (CHEM 110)
Bonding with Food: The Chemistry of Food Preparation, Production, and Policy (CHEM 304)
Organic Chemistry III, Advanced Organic Structure and Mechanism (CHEM 447)
Current Scholarly Interests
Bioorganic and synthetic organic chemistry, particularly on the solid phase
Synthesis of bioactive cyclic depsipeptides
Synthesis of functionalized peptide acyl donors
Solid-phase resins for peptide acyl donor synthesis
Current Research Students:
Wade Perkins '12
Heli Shah '13
Xiaoyu Zang '13
Leila Peraro '13
Nicole Zanghi '14
Recent Peer-Reviewed Publications:
(Note: HWS Undergraduate co-authors in bold)
N. A. Calandra, Y. L. Cheng, K. A. Kocak, and J. S. Miller. "Total Synthesis of Spiruchostatin A via Chemoive Macrocyclization using an Accessible Enantiomerically Pure Latent Thioester." Org. Lett. 2009, 11(9), 1971-1974.
R. J. Moreau, C. R. Schubert, K. A. Nasr, M. Torok, J. S. Miller, R. J. Kennedy, and D. S. Kemp. "Context-Independent, Temperature-Dependent Helical Propensities for Amino Acid Residues." J. Am. Chem. Soc. 2009, 131(36), 13107-13116.
V. Y. Dudkin, J. S. Miller, A. S. Dudkina, C. Antczak, D. A. Scheinberg, and S. J. Danishefsky. "Toward a Prostate Specific Antigen-Based Prostate Cancer Diagnostic Assay: Preparation of Keyhole Limpet Hemocyanin-Conjugated Normal and Transformed Prostate Specific Antigen Fragments." J. Am. Chem. Soc. 2008, 130(41), 13598-13607.
G. E. Job, R. J. Kennedy, Heitmann, B., J. S. Miller, S. M. Walker, and D. S. Kemp. "Temperature- and Length-Dependent Energetics of Formation for Polyalanine Helices in Water: Assignment of wAla(n,T) and Temperature-Dependent CD Ellipticity Standards." J. Am. Chem. Soc. 2006, 128(25), 8227-8233.
Current and Recent External Grants:
National Science Foundation #1044396, $180,000 (2011-2014): "NSF-TUES: Transforming Cell Biology and Organic Chemistry through Incorporation of the HDACi Cancer Therapeutic Laboratory Project (with Carle, Mowery, and Pelkey)
National Institute of Health Academic Research Enhancement Award (NIH-AREA) #1R15CA152869-01, $355,523 (2010-2013): "Synthesis of Anticancer HDAC Inhibitor Natural Products and Analogs"
National Science Foundation #0722178, $342,000 (2007-2010): "MRI: Acquisition of an NMR Spectrometer to Maintain Active Undergraduate Education and Research Programs" (with de Denus and Pelkey)
Research Corporation Cottrell College Science Award, $55,218 (2005-2009): "Solid-Phase Synthesis of Cyclic, Cysteine-Containing Natural Products and Analogues"
Camille and Henry Dreyfus Start-up Award, $30,000 (2004-2009): "Solid-Phase Synthesis of Peptide Bioconjugates and Peptidic Natural Products"
Member, American Chemical Society (1996-Present)
Member, Sigma Xi Science Research Society (2005-Present)
Reviewer, NSF (2007-Present)
Research in the Miller group targets enhanced techniques for the synthesis of proteins and other peptidic molecules. The new synthetic methodology developed in the Miller laboratory is currently being used to synthesize the structurally related, depsipeptidic (at least one ester linkage), cysteine-containing, potential anticancer chemotherapeutics Spiruchostatin A, FK228, and FR 901,375, along with structural analogs of these natural products. This class of molecules exhibits anticancer activity due to histone deacetylase (HDAC) inhibition, which in turn modulates gene expression.
The synthetic methodology employed by the Miller group combines solid-phase synthesis and chemoselective ligation into a single, versatile tool. During solid-phase synthesis, chemical reactants are attached to small beads, thus making reaction products easier to handle and purify for use in subsequent reactions. Chemoselective ligation provides a means for stitching together two fragments of a molecule under mild, selective conditions. The combination of these two approaches will ultimately provide synthetic access to proteins and other compounds that were difficult or even impossible to make using older techniques.
The Miller group is also studying new solid-phase resins capable of supporting the synthesis of peptidic molecules and other materials containing at least one cysteine residue or a similar functional group. Along with the synthesis of the potential anticancer agents above, these resins will find a range of applications involving efficient synthetic routes towards other valuable, biologically relevant targets and their analogs.
Philosophy of Teaching:
My experiences as a teacher, a mentor to students in a laboratory, and a researcher have shaped my understanding of what it means to be an effective professor, both inside and outside of the classroom. My goal as a professor is to educate and inspire: to help my students become skillful, thoughtful and passionate scientists and individuals.
An educator needs to connect with students, to understand them as people and to appreciate their thought processes. An engaging, entertaining, well organized lecture can be an excellent teaching technique, in conjunction with other course components-assignments, office hours, online resources, and periodic evaluation of student progress and instructor effectiveness. I have found, however, that we need to go beyond these traditional techniques, as no single teaching style suits all students perfectly. Students take a course for a variety of reasons-it might count towards a major, it could be a pre-med requirement or a pre-requisite for another major, or it might be merely for fun. Students also approach material with different learning styles. Given this variety of perspectives, the challenge facing a professor is to make the subject relevant, interesting, and approachable for every student, so that each is able to answer the question, "What have I learned, and why is it worthwhile?" Simple chemical demonstrations-polymerization to make synthetics or plastics, or photoinduced color changes in T-shirts or sunglasses-can illuminate concepts in a meaningful, entertaining way while bridging the gap to the real world. Variable assignment formats beyond traditional exams and problem sets, including group problem sets, poster sessions, and group presentations, can also help to reach every student.
An effective educator needs not only to engage students, but to anticipate and address their difficulties. I have found supervised problem solving, in groups or individually, to be an excellent method for unearthing and addressing misconceptions. Another problem is that many students get caught up in rote memorization and lose sight of how various topics in a course relate to each other to form a coherent discipline. A course should therefore be united through underlying principles and common themes-resonance and frontier molecular orbitals in organic chemistry, for example-that reinforce basic ideas while providing explanations for more complicated ones. Evaluation tools, including exams and problem sets, must also be formulated to assess a student's ability to deal critically with course material, and not simply to repeat what has been covered in the textbook, in class, or in lab. Current literature is another tool for illuminating material by highlighting applications of both simple and advanced chemical concepts, making a course not only more engaging, but more accessible and more meaningful to all students.
Scientific literature is in fact an essential educational tool. Beyond the classroom, scientific discovery is often achieved through collaboration. Science therefore requires communication skills, including the ability to convey one's own ideas effectively to others, both orally and in writing, and to assess critically the work of other scientists. Current literature is the perfect tool for teaching these skills, as it contains examples of both excellent and mediocre scientific writing-and science. It is also a perfect tool with which to teach more advanced students how to evaluate scientific communication with appropriate skepticism.
The laboratory is another vital component of scientific education, for students must learn not only what has been done, but how to do science themselves. The experience of assembling, running, and analyzing a reaction or calculation that succeeds in producing the desired result is indispensable, and nothing can replace the experience gained through carrying out a similar, well-planned process that eventually fails, whether the reason be a simple error or unforeseen chemical consequences. Students learn what works in the real world and how to achieve scientific discovery on their own through their personal successes and failures in the laboratory, both teaching and research.
Buckminster Fuller wrote, "I am not a thing-a noun. I seem to be a verb, an evolutionary process..." To be inspired by teaching is to know that it cannot be staticthat every experience, whether in the classroom, in a conversation with a student, or in the laboratoryteaches us something about what we can do differently, and, hopefully, better. I look forward to continuing to work with colleagues who share this passion and dedication, and with whom I can work to continue to develop an understanding of how students learn, and how we can best teach and inspire them.