Vivek B. Shenoy

This study develops a model linking nuclear hydration to chromatin phase organization and mechanics, showing how osmotic and mechanical cues influence chromatin structure through water content and histone dynamics.

The paper identifies a membrane-feedback mechanism that converts single-channel mechanosensing into self-organized Piezo1 clusters through density and tension-dependent interactions.

The paper introduces IntravChip, a microfluidic platform to study tumor cell intravasation and collect intravasated cells, showing it can quantify intravasation rates and test anti-metastatic drugs.

The paper develops a model linking matrix stiffness and ligand density to cellular bioenergetics in cancer cells, showing how mechanical forces influence metabolic pathways and contractility.

This study identifies metabolic starvation-induced cell swelling as the primary driver of solid stress in tumors, revealing a mechanical basis for genomic instability and treatment resistance.

This study shows that long-term flow can maintain and remodel microvascular networks in a microphysiological system for 51 days, reducing inflammation and enabling vascular remodeling.

This study shows that microtubule forces, not the LINC complex, drive nuclear damage in LMNA cardiomyopathy and that disrupting microtubules can rescue cardiac function.

This study combines theoretical modeling and high-resolution imaging to reveal how chromatin-lamina interactions and environmental cues influence LAD formation and thickness in hMSCs.

O-SNAP extracts and classifies chromatin features from SMLM data, detecting subtle changes in chromatin organization across biological transitions.

The paper develops a polymer model integrating super-resolution imaging and epigenomic sequencing to show how epigenetic reactions shape 4D chromatin organization and influence gene expression and metastatic potential.

This study investigates how viscoelastic substrate properties influence cell migration, revealing transitions between sub-diffusive and super-diffusive behavior through a new glassy motor-clutch model.

This study identifies actin polymerization as the mechanism driving lumen formation in human epiblast models, showing it initiates lumen opening and transitions to pressure-driven growth as the lumen expands.

The paper develops a model showing how dynamic self-reinforcement of gene expression leads to cellular mechanical memory, linking mechanical history to long-term phenotypic changes.