Project: Quantitative Systems Biology And Model Simulations
Current• Led a team of 8 people in a cross collaborative project to develop and calibrate a novel, realistic, and multiscale mechano-chemical models of epithelial morphogenesis to infer general design principles that operate across multiple length and time scales (Manuscript in revision at Nature Communications) • Worked towards development and calibration of a subcellular element model for decoupling several factors of cytoskeletal regulation in generation and maintenance of organ shape (Manuscript published at PLOS Computational Biology)• Worked within a mixed team of applied mathematicians and biologists to develop an analytical partial differential equation-based network representation of interactions between morphogens, Rho family of GTPases and regulators of tissue mechanics. (Manuscript in preparation).• Participated in cross-functional teams to develop a cloud computing project for managing 13,000+ image datasets, applying bioinformatics, data processing, and data science methods to identify 4 lead therapeutic candidates using Python and MATLAB (Manuscript under review; arxiv preprint available)• Created a vertex model of epithelial morphogenesis, simulating the biophysical processes regulated by Piezo channels. The model was used to validate the experimental data predicting mechanosensitive Ca2+ channel Piezo's contribution in regulating robustness in organ growth. Developed numerous tools using MATLAB for automated quantitative analysis of large 3D fixed tissue and live imaging datasets. (Manuscript in preparation)