Papers
6
Total Citations
86
H-Index
5
About
Xin Zhao is a robotics and automation researcher whose work spans autonomous navigation, robotic motion planning, trajectory optimization, and reinforcement learning. His research addresses some of the most challenging problems in modern robotics, particularly enabling machines to move and operate with greater precision, efficiency, and human-like fluidity. Among his most influential contributions is his 2023 work on obstacle avoidance path planning for autonomous tractors using the minimum snap algorithm, which has already garnered 33 citations, reflecting its immediate relevance to agricultural robotics and autonomous systems. His 2020 paper on model-accelerated reinforcement learning for high-precision robotic assembly (21 citations) demonstrated novel approaches to closing the gap between simulated training and real-world robotic performance. Zhao has made notable strides in high-dimensional motion planning, developing an Auto-Encoder-based dimensionality reduction framework that allows dual-arm robots to achieve more natural, human-like movement, and proposing Gaussian Mixture Model-enhanced multi-RRT methods to improve sampling efficiency in complex environments. His trajectory planning research, spanning polynomial-based methods and belt grinding force generation, further underscores his commitment to practical, high-precision robotic applications. Collectively, his publications position him as a versatile and impactful contributor to intelligent robotics systems.
Research Focus
Key Achievements
Top Papers
- 1
- 2Model accelerated reinforcement learning for high precision robotic assembly21 citations · 2020
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- 5Dimensionality Reduction for Motion Planning of Dual-arm Robots7 citations · 2018
- 6