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Langtian Qin

PhD Student in Computer Science (CS)
University of California, Irvine
qlt315@mail.ustc.edu.cn / qlt315@126.com / langtiq@uci.edu


Short Bio

I am a Computer Science PhD student at UC Irvine (UCI), advised by Prof. Marco Levorato. I obtained my M.S. in Electrical Engineering at University of Science and Technology of China (USTC) in 2024, advised by Prof. Hancheng Lu and Prof. Feng Wu. I was a graduate visiting student at UC San Diego (UCSD), hosted by Prof. Xinyu Zhang in 2023. I worked as a research intern with Prof. Hamid Sadjadpour and Prof. Zouheir Rezki at UC Santa Cruz (UCSC) in 2022. Prior to this, I received my B.E. in Information Engineering from Xidian University (XDU) in 2021.

My research interests lie in wireless communication and networking systems, with a focus on theoretical analysis, optimization and system implementation of next-generation wireless architectures like Semantic Communications / Cell-Free & User-Centric MIMO / Wireless Mobile Edge Computing (MEC) / mmWave Networks / Ultra Reliable Low Latency Communications (URLLC), etc.

News

Preprints

  1. arXiv
    Yuang Chen, Hancheng Lu, Chang Wu, Langtian Qin, Xiaobo Guo
    arXiv e-prints

  2. arXiv
    Baolin Chong, Hancheng Lu, Yuang Chen, Langtian Qin, Fengqian Guo
    arXiv e-prints

  3. arXiv
    Yuang Chen, Hancheng Lu, Langtian Qin, Chang Wu, Chang Wen Chen
    arXiv e-prints

Publications

  1. TMC
    Langtian Qin, Hancheng Lu, Yuang Chen, Baolin Chong, Feng Wu
    IEEE Transactions on Mobile Computing, 2024.

  2. TCCN
    Langtian Qin, Hancheng Lu, Yuang Chen, Zhuojia Gu, Dan Zhao, Feng Wu
    IEEE Transactions on Cognitive Communications and Networking, vol. 10, no. 4, pp. 1452-1466, Aug. 2024.

  3. TVT
    Langtian Qin, Hancheng Lu, Yuang Chen, Baolin Chong, Fengqian Guo
    IEEE Transactions on Vehicular Technology, vol. 73, no. 7, pp. 9984-9999, Jul. 2024.

  4. TMC
    Langtian Qin, Hancheng Lu, Yao Lu, Chenwu Zhang, Feng Wu
    IEEE Transactions on Mobile Computing, vol. 23, no. 5, pp. 6455-6469, May 2024.

  5. ComMag
    Langtian Qin, Hancheng Lu, Feng Wu
    IEEE Communications Magazine, vol. 61, no. 1, pp. 114-120, Jan. 2023.

  6. CL
    Qi Meng, Hancheng Lu, Langtian Qin
    IEEE Communications Letters, 2024.

  7. TCOM
    Baolin Chong, Fengqian Guo, Hancheng Lu, Langtian Qin
    IEEE Transactions on Communications, 2024.

  8. TWC
    Baolin Chong, Hancheng Lu, Langtian Qin, Zhenyu Xue, Fengqian Guo
    IEEE Transactions on Wireless Communications, 2024.

  9. TCOM
    Chang Wu, Hancheng Lu, Yuang Chen, Langtian Qin
    IEEE Transactions on Communications, vol. 72, no. 6, pp. 3393-3407, Jun. 2024.

  10. TWC
    Yuang Chen, Hancheng Lu, Langtian Qin, Chenwu Zhang, Chang Wen Chen
    IEEE Transactions on Wireless Communications, vol. 23, no. 7, pp. 8044-8058, Jul. 2024.

  11. ComMag
    Yuang Chen, Hancheng Lu, Langtian Qin, Yansha Deng, Arumugam Nallanathan
    IEEE Communications Magazine, vol. 62, no. 6, pp. 90-96, Jun. 2024.

Projects

  1. UCMEC
    To break through the transmission and computing capability bottleneck of cellular-based mobile edge computing (MEC), we propose a novel MEC framework called User-Centric MEC (UCMEC), which can provide users with efficient, reliable, low-cost user-centric wireless transmission and edge computing services. To further exploit the benefits of UCMEC, we propose various algorihms to optimize the task offloading and resource allocation strategies in UCMEC under different scenarios.

  2. mmWave
    To overcome the simulation-to-reality gap, we use deep reinforcement learning-based models to configure the network simulator, letting the simulator accurately reflect the performance trace of the mmWave network testbed. Based on the enhanced simulator, we aim to explore hybrid simulation to enable efficient network control like interference management, base station association, routing, etc.

  3. URLLC
    We investigate the fundamentals and performance tradeoffs of the neXt-generation ultra-reliable and lowlatency communication (xURLLC) from the perspective of stochastic network calculus (SNC). By leveraging and promoting SNC, we provide a quantitative statistical quality of service (QoS) provisioning analysis and derive the closed-form expression of some critical performance metrics in xURLLC networks. Based on the proposed theoretical framework, we design several low-complexity algorithms to optimize the xURLLC network performance metrics like energy efficiency, delay violation probability, etc.

Awards

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Conference Reviewers

Journal Reviewers