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Chemical Biology

What is Chemical Biology?

Researchers in chemical biology use the power of chemistry to explore fundamental biological processes in new and exciting ways. In our department, chemical biologists are discovering new treatments to thwart the impacts of diseases like COVID-19, ALS, HIV, and cancer.

Chemistry is a central pillar of our department’s mission. As such, we have a program completely dedicated to it! Run by Dr. Paul Thompson, The Program in Chemical Biology (PCB) unites scientists across UMass Chan in their mission to tackle important biological questions using the tools of chemistry.

What is the impact of our research in Chemical Biology?

  • Drug delivery may be improved by nanotechnology designed and tested in our department. Find out more here.
  • Ion channel research is furthered by the development and implementation of new chemical probes in our department. Understanding ion channel biology is critical to the development of new treatments for diseases like cardiac arrhythmia, hearing loss, and much more. Find out more here.
  • New therapies for autoimmune diseases are being discovered by chemists in our department. Find out more here.

 

Who's studying Chemical Biology?

  • Akbar Ali

    Akbar Ali, PhD

    Associate Professor of Biochemistry & Molecular Biotechnology; Director of the Synthetic Chemistry Facility; Manager of the Small Molecule NMR Facility; Member of the Schiffer Lab

    Type: Primary

    Areas of Research: Chemical Biology

    Research Interest: The Ali team develops antiviral drug candidates using structure-based design strategies to avoid resistance.

    Broader Impact: HIV, HCV, cancer, influenza, dengue, COVID-19

    Office Location: LRB 840
    Lab Location: LRB 860 C
    Phone: 508-856-8873

    Lab Page

  • Celia Schiffer

    Celia Schiffer, PhD

    Chair & Arthur F. and Helen P. Koskinas Professor of Biochemistry and Molecular Biotechnology, and Director of the Institute for Drug Resistance

    Type: Primary

    Areas of Research: Biophysics & Macromolecular Structures, Chemical Biology, Computational Biochemistry

    Research Interest: The Schiffer Lab studies the molecular basis for drug resistance and has developed a new paradigm for avoiding drug resistance when targeting enzymes in structure-based drug design.

    Research Tools:
     protein crystallography, CryoEM/CryoET, molecular dynamics simulations, homology modeling, enzymatic assays and medicinal chemistry,

    Broader Impact: RNA Viruses (HIV, HTLV, Influenza, Coronaviruses, Enteroviruses, Flaviviruses) and Cancer

    Office Location: LRB 928
    Lab Location: LRB 840 D; 860 C; 960 E; 970 C, D, L, M
    Phone: 508-856-8008
      
    Lab Page

  • Gang Han

    Gang Han, PhD

    Professor of Biochemistry & Molecular Biotechnology

    Type: Primary

    Areas of Research: Biochemical Mechanisms, Cellular Biochemistry, Chemical Biology

    Research Interest: The Han lab uses a multidisciplinary approach to develop nanomaterials for use in chemistry and biology research and in drug delivery.

    Office Location: LRB 806
    Lab Location: LRB 870 U
    Phone: 508-856-3297


    Lab Page

  • Paul Thompson

    Paul Thompson, PhD

    Director of the Program in Chemical Biology; Professor of Biochemistry & Molecular Biotechnology

    Type: Primary

    Areas of Research: Biochemical Mechanisms, Biophysics & Macromolecular Structures, Chemical Biology

    Research Interest: The Thompson lab is a leader in the field of chemical biology and exploits these techniques to study biomedically-important enzymes and proteins including the Protein Arginine Deiminases, STING and SARM1.

    Key Words:
    Drug discovery, deimination, autoimmunity, rheumatoid arthritis, citrullination, enzymology

    Research Tools: Enzymology, medicinal chemistry, chemical biology, proteomics, inhibitor design

    Broader Impact: rheumatoid arthritis, sepsis, lupus, STING-associated vasculopathy in infancy, ALS, peripheral neuropathies, cancer.

    Office Location: LRB 825
    Lab Location: LRB 860 B, C, E
    Phone: 508-856-8492
     
    Lab Page

  • Stephen Miller

    Stephen Miller, PhD

    Professor of Biochemistry & Molecular Biotechnology

    Type: Primary

    Areas of Research: Biochemical Mechanisms, Cellular Biochemistry, Chemical Biology

    Research Interest: The Miller Lab develops optical imaging probes, ranging from the design of new fluorescent molecules to engineered luciferins and luciferases for in vivo bioluminescence imaging. 

    Key Words: bioluminescence, fluorescence, near-infrared, imaging, probes, chemical biology 

    Research Tools: fluorescence microscopy, synthetic organic chemistry, bioluminescence imaging, AAV transduction, mouse models, mammalian cell culture, spectrophotometry, NMR, mammalian cell culture, M. musculus (mouse)

    Broader Impact: optical probes are broadly applicable to study many different diseases

    he/him/his
    Office Location: LRB 805
    Lab Location: LRB 870 X
    Phone: 508-856-8865

    Lab Page

  • William E. Royer

    William E. Royer, PhD

    Professor Emeritus of Biochemistry & Molecular Biotechnology

    Type: Primary

    Areas of Research: Biochemical Mechanisms, Biophysics & Macromolecular Structures, Chemical Biology

    Research Interest: The Royer lab uses their expertise in X-Ray Crystallography to study how the assembly of macromolecules regulates biological function.
     

    Key Words: Structural Biology, X-ray Crystallography, Protein Assembly and regulation.

    Research Tools: X-Ray Crystallography

    Broader Impact: Cancer

    he/him/his
    Office Location: LRB 921
    Lab Location: LRB 970 G, W
    Phone: 508-856-6912

    Lab Page

  • William R. Kobertz

    William R. Kobertz, PhD

    Professor Biochemistry & Molecular Biotechnology

    Type: Primary

    Areas of Research: Biochemical Mechanisms, Cellular Biochemistry, Chemical Biology

    Research Interest: The Kobertz Lab develops new tools to study the roles of glycosylation in ion channel localization and function. 

    Broader Impact: Cardiac arrythmias, hearing loss

    Office Location: LRB 804
    Lab Location: LRB 840 C
    Phone: 508-856-8861

    Lab Page

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Relevant Blog Posts

  • STING miniature.jpg

    Taking the STING out of Disease -Biochemistry & Molecular Biotechnology (BMB) Department

    Dr. Paul Thompson of the Biochemistry & Molecular Biotechnology department at UMass Chan Medical School recently published a newly discovered inhibitor of STING signaling that could be a promising new treatment option for various diseases including lupus, SAVI, and ALS.

    Read more
  • an orange background with a green blob with green clovers growing on it

    St. Patrick's Day, Snakes and biochemiStry!

    Happy St. Patrick's Day! Join us to learn about the biochemistry of snake venoms, and how they might be used to treat a variety of human diseases!

    Read more
  • from Paul Thompson's lab, Structure of the Peptidyl arginine deiminase (PAD) 2 that catalyze the conversion of arginine residues to citrulline residues on target proteins in the presence of calcium ions.

    BMB highlights research on PAD enzymes for Autoimmune Disease Awareness Month

    For Autoimmune Disease Awareness Month, we are featuring the work of Dr. Paul Thompson in our department. The goal of his research is to develop drugs to inhibit a family of proteins called PAD's that play a major role in the pathology of many different autoimmune diseases.

    Read more
  • on a light blue background, an image of a coronavirus on the left and an image of the main protease (Mpro) of most coronaviruses on the right

    Coming up with new ways to treat COVID-19 is at the *heart* of BMB.

    #newscience alert! Several groups in our department collaborated to characterize coronavirus proteases and compounds that could be used to inhibit them to prevent future outbreaks. In this special Valentine's Day post, you'll find highlights from these two publications and beautiful representations of a coronavirus protease that looks like a heart. We love biochemistry!

    Read more