Devina Jaiswal

Devina Jaiswal serves as an Associate Professor of Biomedical Engineering at Western New England University, based in Sleith Hall with contact details including phone (413-782-1618) and email (devina.jaiswal@wne.edu). Her academic foundation includes advanced degrees from Pennsylvania State University and the University of Connecticut, establishing her expertise in biomaterials and cellular mechanics.

Her educational background comprises:

• M.S. from Pennsylvania State University
• Ph.D. from the University of Connecticut

Dr. Jaiswal's research centers on Tissue Engineering, BioMEMS, Drug Delivery, and Mechanobiology, with emphasis on mechanical micro-heterogeneity in biomimetic systems. She pioneers label-free characterization techniques and microtweezers-based stiffness analysis for 3D spheroids, bridging engineering principles with biological applications to advance regenerative medicine and cancer therapeutics through innovative biomaterial design.

Her publication record (2012-2018) demonstrates consistent focus on mechanical properties of biomaterials and cellular microenvironments. Key themes include nanofiber matrix development for tissue scaffolds, osteoblast response to topographical cues, and micromagnetic cell manipulation systems. These works reveal strong interdisciplinary integration across biomedical engineering, materials science, and cell biology with direct applications in drug delivery optimization and tumor microenvironment modeling.

No scientific awards are mentioned in the provided text.

While specific advisees and grant funding details are not enumerated, her extensive co-authorship with researchers like Kazunori Hoshino and Kevin P. Claffey indicates active mentorship of graduate students and participation in collaborative research projects. The publication patterns suggest involvement in sustained grant-supported investigations into biomaterial mechanics and cellular response mechanisms.

Dr. Jaiswal operates within a specialized laboratory environment focused on biomaterials characterization and cellular mechanics, utilizing microtweezers and micromagnetic systems for real-time single-cell analysis. Her research group maintains strong interdisciplinary connections with collaborators across multiple institutions, driving innovation in tissue engineering platforms and diagnostic microsystems.