Farshad Barazandeh
Amirkabir University of Technology, Sharif University of Technology
Papers
9
Total Citations
76
H-Index
5
About
Farshad Barazandeh is a pioneering researcher in bio-inspired robotics, with a primary focus on snake-like locomotion systems and micro-robotics for in-pipe inspection. His most influential work, "How self-locking reduces actuators torque in climbing snake robots" (19 citations), established a mathematical framework for optimizing torque in concertina movement, demonstrating how self-locking mechanisms can dramatically reduce energy consumption and actuator size. This foundational insight into snake robot efficiency is complemented by his broader investigation of snake muscular anatomy, where he developed novel models that replace traditional wheel-based designs with linear actuators mimicking biological muscles. Barazandeh’s contributions extend to micro-robotics, where he introduced an innovative in-pipe microrobot design utilizing ionic polymer-metal composite (IPMC) legs (11 citations), addressing a critical gap in modeling and simulation for miniature inspection systems. His work on the snake muscular system’s effect on actuator torque (14 citations) and his design of snake robots according to vertebrate anatomy (12 citations) have collectively shaped the field of serpentine robotics. Through his comparative design studies using AHP methodology and his engineering observations of colubrid snake lateral undulation, Barazandeh has consistently bridged biological principles with practical robotic applications, advancing both theoretical understanding and real-world implementation of bio-inspired locomotion systems.
Research Focus
Key Achievements
Top Papers
- 1How self-locking reduces actuators torque in climbing snake robots19 citations · 2007
- 2The Effect of Snake Muscular System on Actuators’ Torque14 citations · 2010
- 3Design and control of a snake robot according to snake anatomy12 citations · 2008
- 4Modelling of a novel in-pipe microrobot design with IPMC legs11 citations · 2011
- 5Design and fabrication of a novel quick-change system7 citations · 2000
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- 7Investigation of self-locking in concertina movement4 citations · 2007
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