Papers
10
Total Citations
74
H-Index
4
About
Fahad Islam is a roboticist whose research focuses on motion planning for high-dimensional, complex systems, particularly in real-time and constrained environments. His major contributions lie in developing algorithms that balance optimality, speed, and reliability. His most cited work, "Dynamic Multi-Heuristic A*" (2015, 33 citations), addresses the challenge of high-dimensional motion planning by combining multiple heuristic sources to improve solution quality without sacrificing computational efficiency. He has also advanced sampling-based planning with the "Adaptive RRT*-Smart" algorithm (2013, 15 citations), which enhances path optimality in cluttered environments. Islam’s impact extends to real-world applications: his work on "Provably Constant-time Planning and Re-planning for Real-time Grasping Objects off a Conveyor Belt" (2020) and "Provable Indefinite-Horizon Real-Time Planning for Repetitive Tasks" (2019) demonstrates provable performance guarantees for time-critical industrial tasks like warehouse picking and truck unloading. He has also pioneered interactive planning frameworks, such as "Online, Interactive User Guidance for High-dimensional, Constrained Motion Planning" (2018), which allows human input to guide robot motion. Additionally, his development of a modular framework for the semi-autonomous RISE wheelchair (2018, 5 citations) highlights his commitment to assistive robotics. With a total of over 70 citations across his top papers, Islam’s work bridges theoretical guarantees and practical deployment, making him a key contributor to modern motion planning.
Research Focus
Key Achievements
Top Papers
- 1Dynamic Multi-Heuristic A*33 citations · 2015
- 2
- 3
- 4
- 5
- 6Whole-body motion planning for humanoid robots with heuristic search3 citations · 2016
- 7Provable Indefinite-Horizon Real-Time Planning for Repetitive Tasks3 citations · 2019
- 8Safe-radius based motion planning of hexapod using RRT-connect2 citations · 2015
- 9
- 10Planning, Learning and Reasoning Framework for Robot Truck Unloading2 citations · 2020