P-36 Investigation of 1,3-Dipolar Cycloadditions Mechanisms: Synthesis of Thiolactomycin and Derivatives
Abstract
Due to increasing resistance to pharmaceuticals among infectious bacterial strains and cancers, it has become necessary to research new antibiotic and chemotherapy treatments. Thiolactones are effective against resistant strains of tuberculosis and staphylococcus. Thiolactomycin is a thiolactone compound shown to have selective activity against fatty acid synthase (FAS) enzymes which enables it to be an effective treatment for urinary tract infections and intraperitoneal bacterial infections. FAS has also become a target for carcinomas of the breast, ovary, colon, prostate and endometrium. Higher levels of FAS are expressed in carcinomas compared to normal tissues. Derivatives of thiolactomycin, including thiotetromycin have similar antibiotic properties. Our purpose was to synthesize cyclic thiolactone derivates using a simple, affordable mechanism. To date we have investigated 1,3-dipolar cycloaddition chemistry.
Location
Buller Hallway
Start Date
3-7-2014 2:30 PM
End Date
3-7-2014 4:00 PM
P-36 Investigation of 1,3-Dipolar Cycloadditions Mechanisms: Synthesis of Thiolactomycin and Derivatives
Buller Hallway
Due to increasing resistance to pharmaceuticals among infectious bacterial strains and cancers, it has become necessary to research new antibiotic and chemotherapy treatments. Thiolactones are effective against resistant strains of tuberculosis and staphylococcus. Thiolactomycin is a thiolactone compound shown to have selective activity against fatty acid synthase (FAS) enzymes which enables it to be an effective treatment for urinary tract infections and intraperitoneal bacterial infections. FAS has also become a target for carcinomas of the breast, ovary, colon, prostate and endometrium. Higher levels of FAS are expressed in carcinomas compared to normal tissues. Derivatives of thiolactomycin, including thiotetromycin have similar antibiotic properties. Our purpose was to synthesize cyclic thiolactone derivates using a simple, affordable mechanism. To date we have investigated 1,3-dipolar cycloaddition chemistry.
Acknowledgments
Undergraduate Research Scholar
Advisor: Lisa Ahlberg, Chemistry & Biochemistry