Papers
6
Total Citations
84
H-Index
5
About
Siting Liu is a researcher whose work spans two compelling and increasingly relevant domains: intelligent mobile network systems and fault-tolerant deep learning. Liu's most significant contributions center on applying mean-field game theory to solve complex coordination challenges in mobile crowdsensing networks involving UAVs and mobile robots. Their landmark 2020 paper on joint sensing task assignment and collision-free trajectory optimization, which has garnered 30 citations, introduced an innovative framework enabling large-scale mobile vehicle networks to efficiently execute IoT sensing tasks while avoiding collisions — a critical challenge in real-world deployments. Building on this foundation, Liu extended the approach to multi-population mean-field games for mobile crowdsensing, further demonstrating versatility across different vehicle swarm configurations. Beyond networked robotics, Liu has made notable contributions to the reliability of deep learning systems, exploring hierarchical fault-tolerance strategies for safety-critical applications such as autonomous driving and robotics. Their 2022 special session paper on fault-tolerant deep learning, with 12 citations, highlights growing community recognition of this vital concern. Collectively, Liu's body of work — accumulating over 80 citations — reflects a researcher committed to making autonomous, intelligent systems both smarter and safer, addressing challenges that will only grow in importance as AI-driven systems become more deeply embedded in everyday life.
Research Focus
Key Achievements
Top Papers
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- 3Special Session: Fault-Tolerant Deep Learning: A Hierarchical Perspective12 citations · 2022
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- 6Fault-Tolerant Deep Learning: A Hierarchical Perspective3 citations · 2022