Ali Dhinojwala
Papers
9
Total Citations
955
H-Index
7
About
Ali Dhinojwala is a distinguished polymer scientist and materials researcher whose work sits at the fascinating intersection of biomimetics, surface science, and adhesion. Based at the University of Akron, he has built a remarkable career drawing inspiration from nature to engineer advanced functional materials. Dhinojwala is perhaps best known for pioneering gecko-inspired adhesives, developing carbon nanotube-based synthetic gecko tapes capable of supporting shear stresses nearly four times greater than an actual gecko's foot — work that garnered over 430 citations and demonstrated transformative potential for robotics and medical devices. His laboratory has also made significant contributions to understanding spider silk's extraordinary mechanical properties, including its humidity-driven actuation and supercontraction behavior, advancing our knowledge of high-performance biomaterials. Beyond biomimetics, Dhinojwala has advanced fundamental understanding of soft adhesion and friction, elucidating how surface roughness and elastic modulus govern energy dissipation — research with direct implications for tires, soft robotics, and biomedical adhesives. His development of superhydrophobic carbon nanotube coatings for steel further demonstrates his ability to translate fundamental insights into practical engineering solutions. With hundreds of citations across diverse disciplines, Dhinojwala represents an exceptional bridge between biology-inspired discovery and real-world materials innovation.
Research Focus
Key Achievements
Top Papers
- 1Carbon nanotube-based synthetic gecko tapes438 citations · 2007
- 2Spider silk as a novel high performance biomimetic muscle driven by humidity157 citations · 2009
- 3Superhydrophobic Conductive Carbon Nanotube Coatings for Steel124 citations · 2009
- 4Linking energy loss in soft adhesion to surface roughness121 citations · 2019
- 5Supercontraction forces in spider dragline silk depend on hydration rate71 citations · 2009
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- 7Dependence of adhesive friction on surface roughness and elastic modulus19 citations · 2022
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