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Jianjun Luo

Researcher at Northwestern Polytechnical University

Publications -  100
Citations -  1743

Jianjun Luo is an academic researcher from Northwestern Polytechnical University. The author has contributed to research in topics: Control theory & Computer science. The author has an hindex of 19, co-authored 87 publications receiving 984 citations.

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A fast trajectory planning framework with task-priority for space robot

TL;DR: A task-priority handling strategy incorporated with a full-fledged Quadratic Programming(QP) procedure to solve the planning problem with sequential tasks and enables a rapid adaptation of the space manipulators motion, which makes this strategy feasible for real-time planning.
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Obstacle avoidance handling and mixed integer predictive control for space robots

TL;DR: Simulations of the space robot unfolding its manipulator and tracking the end-effector’s desired trajectories with the existence of obstacles and physical limits are presented to demonstrate the effectiveness of the proposed obstacle avoidance strategy and MIPC control method of space robots.
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Event-driven adaptive fault-tolerant tracking control for uncertain mechanical systems with application to flexible spacecraft:

TL;DR: An event-driven neural network–based fault-tolerant tracking control scheme is investigated for uncertain mechanical systems with performance guaranteed in the presence of unknown actuator faults and external disturbances.
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A novel nonlinear control for tracking and rendezvous with a rotating non-cooperative target with translational maneuver

TL;DR: In this paper, a novel modified θ − D control method was proposed to incorporate position, attitude and flexural motion into one unified control frame for flexible chaser spacecraft to track and rendezvous with a rotating non-cooperative target accompanied by translational maneuver.
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Parameterized nonlinear suboptimal control for tracking and rendezvous with a non-cooperative target

TL;DR: Numerical results demonstrate that the computational efficiency and tracking performance accuracy are superior to existing methods and an adaptive form is capable of offsetting unknown parameters.