Papers
14
Total Citations
117
H-Index
7
About
Jyoti Ohri is a prominent researcher specializing in intelligent control systems, robotic manipulator control, and optimization-based controller design. Her work sits at the intersection of classical control theory and advanced computational intelligence, with a particular focus on developing robust, high-performance controllers for complex nonlinear systems. Ohri's most significant contributions center on Sliding Mode Control (SMC) and its intelligent variants. Her 2013 paper introducing a Fuzzy Sliding Mode Controller with global stabilization and a novel exponential dynamic sliding function incorporating PID earned 18 citations, establishing her as an authority in hybrid control architectures. She has systematically addressed longstanding challenges in robotic control, including chattering reduction, friction compensation, and trajectory tracking accuracy under nonlinear dynamics. A recurring theme in her research is the integration of optimization techniques — particularly Particle Swarm Optimization (PSO) — to auto-tune controller parameters, eliminating tedious trial-and-error approaches. Her work on PSO-tuned PID and SMC controllers, evolutionary optimized neural networks, and fuzzified PSO-SVM controllers reflects a consistent drive toward intelligent, adaptive control frameworks. Her 2020 experimental validation of PSO-optimized LQR control for flexible link manipulators further demonstrates her commitment to real-world applicability. With over 90 cumulative citations across her top publications, Ohri's research offers valuable insights for engineers and students working at the forefront of intelligent robotics and control engineering.
Research Focus
Key Achievements
Top Papers
- 1
- 2Sliding Mode Control (SMC) of Robot Manipulator via Intelligent Controllers16 citations · 2016
- 3
- 4FUZZY ADAPTIVE DYNAMIC FRICTION COMPENSATOR FOR ROBOT14 citations · 2008
- 5
- 6
- 7
- 8
- 9
- 10Fuzzified PSO-SVM controller for motion control of robotic manipulator3 citations · 2016