Mahesh Ganesan
Indian Institute of Technology Hyderabad, University of Michigan, National Institute of Technology Tiruchirappalli, Avery Dennison (United States)
About
Mahesh Ganesan is an Assistant Professor in the Department of Chemical Engineering at the Indian Institute of Technology, Hyderabad (IITH). Prior to joining IITH, Mahesh was a Research Assistant Faculty at the University of Michigan, Ann Arbor working with Prof. Mike Solomon. He is interested in studying the micro-structural features of soft materials and how that relates to their macroscopic properties such as rheology and structural color. His projects have involved working with polymer solutions, biopolymer complexes, pressure sensitive adhesives, colloidal assemblies and fractal gels and other related materials.
Mahesh holds a PhD in Chemical Engineering and MS in Mathematics from the University of Michigan, Ann Arbor. Prior to his current employment, Mahesh worked as a Research Scientist in the Global Material Sciences team at the Performance Tapes divison of Avery Dennison Corporation.
Employment
-
Indian Institute of Technology Hyderabad Assistant Professor2022 - Present
-
University of Michigan Assistant Research Scientist2019 - 2021
-
Avery Dennison (United States) Research Scientist2016 - 2019
-
University of Michigan Postdoctoral Research Fellow2015 - 2016
Education
-
University of Michigan MS2012 - 2014
-
University of Michigan PhD2009 - 2015
-
University of Michigan MS2009 - 2011
-
National Institute of Technology Tiruchirappalli BTech2005 - 2009
Projects & Funding
Projects & funding information is unavailable.
Publications (19)
- Multilayer Tape Save
- Multilayer tape constructions for low-temperature vibration damping with tunable adhesion Save
- Partial coverage multilayer damping laminate Save
- Rheology of Candida albicans fungal biofilms Save
- Microstructure and elasticity of dilute gels of colloidal discoids Save
- Multilayer constrained-layer damping Save
- Multilayer constrained-layer damping Save
- Shape anisotropy enhances the elasticity of colloidal gels through mechanisms that act multiplicatively Save
- Yield stress behavior of colloidal gels with embedded active particles Save
- High-density equilibrium phases of colloidal ellipsoids by application of optically enhanced, direct current electric fields Save