Papers
6
Total Citations
46
H-Index
3
About
Kshitish Kumar Dash is a robotics and intelligent systems researcher whose work centers on solving one of the most fundamental challenges in robotic automation: the inverse kinematics problem. His research consistently applies computational intelligence techniques — including neural networks, neuro-fuzzy systems, and soft computing methodologies — to determine optimal joint configurations for complex robotic manipulators, particularly 6-degree-of-freedom industrial robots. Dash's most impactful contribution, his 2011 neural network-based solution to the inverse kinematic problem (21 citations), demonstrated how machine learning approaches could overcome the inherent non-uniqueness and computational complexity that plague traditional analytical methods, especially as robotic systems scale in joint complexity. Complementing this, his work on heuristics-based multi-robot task allocation using genetic algorithms (10 citations) extended his expertise into cooperative robotics, addressing deployment and scheduling challenges in heterogeneous multi-robot environments. Throughout the late 2010s, Dash continued refining inverse kinematics solutions through neuro-fuzzy integration and broader soft computing frameworks, building a cohesive and progressive body of research. His collective contributions offer practical, intelligent alternatives to classical robotic control methods, making his work particularly valuable to researchers and engineers designing next-generation industrial automation systems.
Research Focus
Key Achievements
Top Papers
- 1A neural network based inverse kinematic problem21 citations · 2011
- 2A heuristics based multi-robot task allocation10 citations · 2011
- 3Inverse Kinematics Solution of a 6-DOF Industrial Robot7 citations · 2018
- 4
- 5Inverse Kinematics Analysis of an Industrial Robot Using Soft Computing3 citations · 2019
- 6Kinematic Model Design of a 6 DOF Industrial Robot2 citations · 2019