The Computational Chemistry and Biology (CCB) Core Facility provides a wide array of advanced tools and services for computational-based simulations and modeling of chemical and biological systems. Located on the Anschutz Medical Campus of the University of Colorado in the new Skaggs School of Pharmacy and Pharmaceutical Sciences building, the CCB Core offers specialized expertise to researchers in both academia and the biotech/pharmaceutical industry to:
A major goal of the CCB Core is to aid in the discovery and design of novel small molecule drugs by rapidly identifying and refining promising compounds utilizing a variety of strategies.
The CCB Core specializes in the production of clear, concise, publication-quality graphics for grant submissions, manuscripts, reviews, and presentations.
The CCB Core can perform early assessment of novel drug candidates by calculating predicted absorption, distribution, metabolism, excretion, and toxicity (ADMET) properties for collections of molecules
The CCB Core utilizes validated scientific tools to aid in every step of macromolecule research.
Determining the structure and properties of a macromolecule, such as enzymes, antibodies, DNA, or RNA, is fundamental to understanding structure-activity relationships, protein-protein interactions, DNA/RNA binding, and small molecule design.
Email Address:[email protected]
Primary Phone:303-724-6431
Computational Chemistry and Biology Core Facility
Pharmacy and Pharmaceutical Sciences Building
12850 East Montview Boulevard
Lab: V20-2210, 2420E(S)
Office: V20-2102
Aurora, CO 80045
My laboratory studies the design, synthesis and biological evaluation of small-molecule antitumor agents that act on molecular targets associated with the pathology of cancer. Our current research efforts are focused on developing agents for the treatment of brain tumors. The effective treatment of brain tumors presents a number of challenges, the therapeutic agent needs to cross the blood-brain barrier, localize to a specific region of the brain and exhibit tumor selectivity.