Simran Kumar Email & Phone Number

Buffalo, New York, United States

Demonstrated expertise in advanced 3D cell culturing techniques, notably increasing in efficiency in spheroid and assembloid formation for engineering in vitro liver models. Spearheaded high-content imaging studies, elucidating hepatic mesenchymal interactions, identifying crucial cellular and molecular sequences that enhance understanding of morphogenesis and migration. Moreover, contributed significantly to process optimization, leading to a boost in efficiency and reproducibility, resulting in a publication under peer review. Authored detailed standard operating procedures (SOPs) for molecular biology techniques and biochemical assays, improving training quality and experiment consistency. My commitment to mentorship is reflected in training and guiding new lab members, elevating lab proficiency, and bolstering overall research productivity with an increase in successful experiment outcomes.

Buffalo, New York, United States

Investigated the intricacies of colloidal dispersion aggregation mechanisms and kinetics within gelatin particles, employing turbidimetric studies through UV-vis spectrophotometry to unveil comprehensive profiles of morphological patterns and interaction insights. Utilizing confocal fluorescent imaging, meticulously detailed the morphologies of three gelatin-based colloidal gels using precise aggregation analysis for material characterization. Moreover, extracted three structural parameters from colloidal cluster data, providing novel insights into the influence of gel morphology on spatial microenvironments conducted advanced image skeletonization techniques, enabling the analysis of endothelial cell networks across these colloidal gels and shedding light on how their mechanical and morphological properties impact endothelial organization.

Buffalo, New York, United States

Preparied cell suspensions derived from squamous carcinoma cells for mice inoculations, thereby facilitating the assessment of tumor responses to interstitial photodynamic therapy. Developed tissue-mimicking phantoms specifically engineered for evaluating the light distribution of a novel optical surface applicator (OSA) in intraoperative photodynamic therapy. Documentation of significant enhancements in cure rates, confirming the efficacy of the OSA as a valuable therapeutic light source, improving treatment precision and efficacy in clinical settings.

Master Of Science - Ms, Bioengineering And Biomedical Engineering, 3.9

Bachelor'S Degree, Biomedical/Medical Engineering