COVID-19: UB Planning and Response • Updated 7/24/2020
Find your home in UB Chemistry! We're here to help you every step of the way.
Already enrolled in UB? Get details about advisement, forms and other resources for current students.
My research focuses on elucidating lipid involvement in cellular senescence. An improved understanding of lipid function has the potential to introduce druggable lipid-related protein targets, paving the way for new therapeutic strategies.
My research focuses on the development of mass spectrometry based analytical methods than can facilitate identification, structural elucidation and trace quantification of micropollutants in environmental samples.
My research revolves around the synthesis, functionalization and application of 1,3-dienes to ultimately be applied towards the total synthesis of nannocystin A. My recent publication is an example of functionalizing 1,3 dienes that will be utilized en route to my final goal.
My current research involves creating core/shell nanoparticle architectures and enhancing the visible and NIR emission for in vivo imaging and sensing.
My research is about looking at the global occurrence of micropollutants such as pharmaceuticals, pesticides, and other chemicals of emerging concern in the aquatic environment using liquid chromatography mass spectrometry. We collaborate with engineers and other scientists to study the development of environmental antimicrobial resistance, pharmaceutical removal efficiencies of wastewater treatment plants, and the eco-toxicological effects of these compounds on aquatic life.
Labeling mammalian and fungal cells with MRI contrast agents to study the behavior of contrast agents due to compartmentalization in the cells for potential applications in cell therapy imaging and infection diagnosis.
"My research was based in the discovery and development of organic methodologies which can be applied in the synthesis of biologically active molecules."
I am currently preparing, developing novel titration methods for, and assessing the reactivity of solid-supported isocyanide-based metal scavengers for rapid removal of transition metal complexes from solution. These materials are useful in the lab for both arresting transition metal catalysts and removing the toxic – and sometimes detrimentally reactive – metal complexes from solution via filtration.
