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Jingtao Tang (汤景韬)

todd.j.tang@gmail.com
reso1  /  Google Scholar
reso1.github.io/blog


Education


Research Interests


Academic Service


Talks

AI/CRV Nectar Track (May. 2026): Space-Time Graphs of Convex Sets for Multi-Robot Motion Planning & GHOST: Solving the Traveling Salesman Problem on Graphs of Convex Sets

SFU-Robotics Seminar (Dec. 2025): A Tutorial on GCS for Mixed Discrete—Continuous Planning in Robotics

NWRS (Jun. 2025): Large-Scale Multi-Robot Coverage Path Planning on Grids with Path Deconfliction


This website is hosted on GitHub Pages (Jekyll Minimal theme by orderedlist)

About Me

I am a Ph.D. candidate in the AIRob Lab at Simon Fraser University, advised by Professor Hang Ma. I develop structure-exploiting AI planning methods, combining heuristic search, combinatorial optimization, and Graphs of Convex Sets (GCS). My work applies these methods to multi-robot systems and automated engineering design. I am also interested in automated planning applications in transportation, manufacturing, and construction. My earlier research at the Shenzhen Institute of Artificial Intelligence and Robotics for Society and East China Normal University was advised by Professors Tin Lun Lam and Xinyu Zhang.


Research

Large scale MRMP instances on STGCS
📌 Search-Based Spatiotemporal and Multi-Robot Motion Planning on Graphs of Space-Time Convex Sets | 🌐 Homepage | icon ArXiv |  Code

👥 Jingtao Tang, Zining Mao, Lufan Yang, Hang Ma

💡 TL;DR: Fast continuous-space planning for robots moving through dynamic, crowded environments using search on space-time convex regions.

GHOST project animation
📌 GHOST: Solving the Traveling Salesman Problem on Graphs of Convex Sets | 🌐 Homepage | icon ArXiv |  Code

👥 Jingtao Tang, Hang Ma

📢 AAAI-26

💡 TL;DR: An optimal hierarchical framework for the Traveling Salesman Problem on Graphs of Convex Sets.

STGCS project animation
📌 Space-Time Graphs of Convex Sets for Multi-Robot Motion Planning | 🌐 Homepage | icon ArXiv |  Code

👥 Jingtao Tang, Zining Mao, Lufan Yang, Hang Ma

📢 IROS-25 | RSS-25 Workshop on MRS (Best Paper Award)

💡 TL;DR: A time-optimal deterministic spatiotemporal planner for multi-robot motion planning.

LS-MCPP project animation
📌 Large-Scale Multirobot Coverage Path Planning on Grids with Path Deconfliction | 🌐 Homepage | icon ArXiv |  Code

👥 Jingtao Tang, Zining Mao, Hang Ma

📢 AAAI-24 | IEEE Transactions on Robotics (T-RO), vol. 41, pp. 3348-3367, 2025

💡 TL;DR: An algorithmic pipeline to plan conflict-free coverage paths for multiple robots on grids.

MCFS project animation
📌 Multi-Robot Connected Fermat Spiral Coverage | icon ArXiv |  Code

👥 Jingtao Tang, Hang Ma

📢 ICAPS-24

💡 TL;DR: A decomposition-free multi-robot coverage path planning algorithm that generates smooth and continuous trajecories for arbitrarily-shaped workspaces.

STC project animation MIP-MCPP project image
📌 Mixed Integer Programming for Time-Optimal Multi-Robot Coverage Path Planning With Efficient Heuristics | 🌐 Homepage | icon ArXiv |  Code

👥 Jingtao Tang, Hang Ma

📢 IEEE Robotics and Automation Letters (RA-L) 8.10 (2023): 6491-6498.

💡 TL;DR: A mixed-integer program for min-max tree cover problem and grid-based multi-robot coverage path planning.

Worker-Station HMRS project animation
📌 Learning to Coordinate for a Worker-Station Multi-robot System in Planar Coverage Tasks | 🌐 Homepage | icon ArXiv

👥 Jingtao Tang, Yuan Gao, Tin Lun Lam

📢 IEEE Robotics and Automation Letters (RA-L) 7.4 (2022): 12315-12322.

💡 TL;DR: A DRL-based decentralized planning for collaborative coverage task of a heteogeneous multi-robot system.

Ecological restoration robot project animation
📌 MSTC*: Multi-robot Coverage Path Planning under Physical Constrain | 🌐 Homepage | icon ArXiv |  Code

👥 Jingtao Tang, Chun Sun, Xinyu Zhang

📢 ICRA-21

💡 TL;DR: planning problems from an ambitious project: robot swarms for large-scale ecological restoration task.

360 VR projection project animation
📌 Hybrid Projection for Encoding 360 VR Videos | 🌐 Homepage | icon Paper

👥 Jingtao Tang, Xinyu Zhang

📢 IEEE-VR-19

💡 TL;DR: A hybrid projection format for efficient encoding/decoding panarama VR videos.