Zhen Huang's Laboratory

 

Prof. Huang

Lab Members

More Lab Pictures

Research

Enzymology

Teaching Chemistry

Chinese-American Chemistry & Chemical Biology Professors Association (CAPA)

 

 

Research Interests:

The research interests of my laboratory are at the interface of organic chemistry, biochemistry and molecular biology. Since nucleic Acids play the most important roles in living organisms, to discover how nucleic acids behave in vitro and in vivo is essential to understand their biochemical and biological  properties and to design and develop drugs and therapeutics for fighting cancers, viruses, and other diseases. Students who join in my laboratory will receive opportunities to learn Synthetic Organic Chemistry, Medicinal Chemistry, Therapeutics Design and Drug Discovery, Biochemistry, Bio-analytical Chemistry, Structural Chemistry, and techniques in Physical Chemistry, Molecular Biology and Structural Biology.

 

 

Position Open for Graduate Students & Post-doc with Crystallographic Background

 

 

Research Project I:

       Chemical and Enzymatic Synthesis of Selenium-Derivatized Nucleic Acids (SeNA) for X-ray Crystallography. The Se-derivatization dramatically facilitates both Crystallization & Phasing. Nucleic Acids Res., 2007, 477-485.

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 Fig. 1. Structure of Se-DNA (5’-GdUSeGTACAC-3’) with high resolution (1.28Å)

   Tetragonal space group, P43212; a=b=42.43 Å, c=22.614 Å.

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

                                       

                                         A                                                    B

 

Fig. 2. Superimposed comparison of the native and the derivatized DNA structures (red and green balls represent Se and Br, respectively). (A) the comparison of the Se-DNA (GdUSeGTACAC, 1Z7I in blue) and the native (GTGTACAC, 1DNS in pink). The Se-DNA structure is virtually identical to the native. (B) the comparison of the Br-DNA (GTGdUBrACAC, 2H05 in green) and the native (1DNS in pink). The Br-derivatization caused the local perturbation, including the backbone rotation by 108 degree.

 

 

                           

Fig. 3. The global and local structures of the 4-Se-T DNA [(5’-G-dUSe-G-SeT-ACAC-3’)2]. (A) The duplex structure of the modified DNA (2NSK, in cyan) is superimposed over the native (1DNS, in pink). (B) The comparison of the modified (in green) and native (in cyan) local T4 structures. (C) The Se-base pair of T4-A5 with the experimental electron density.  Journal of Am. Chem. Soc., 2007, 129, 4862-4863.

 

 

 

 

Research Project II:

RNA MicroArray and MicroChip Technologies

 

 

 

 

 

 

 

 

 

 

 

 

 

 Fig. 4. This RNA MicroChip Technology will be a direct, simple, rapid, selective, sensitive & cost-effective   

           detection & quantification system.

 

 

Contact Information and Mailing Address:

Zhen Huang, Ph.D.

Professor of Chemistry and Biochemistry
Department of Chemistry
Georgia State University
Room 540 General Classroom Building
38 Peachtree Center Ave.
Atlanta, Georgia 30303-3083

Office Location: 547 NSC

Phone: (404) 413-5535 (Office)
               (404) 413-5534 (Lab)
Fax:       (404) 413-5505

Email: Huang@gsu.edu
           or
chezh@langate.gsu.edu