AUTO: Adaptive Congestion Control Based on Multi-Objective Reinforcement Learning for the Satellite-Ground Integrated Network
Xu Li, Feilong Tang, Jiacheng Liu, Laurence T. Yang, Luoyi Fu, Long Chen
Abstract
The satellite-ground integrated network is highly heterogeneous with diversified applications. It requires congestion control (CC) to achieve consistent high performances in both long-latency satellite networks and large-bandwidth terrestrial networks and cope with different application requirements. However, existing schemes can hardly achieve these goals, for they cannot balance the objectives of CC (i.e., throughput, delay) adaptively and are not objective-configurable. To address these limitations, we propose and implement a novel adaptive CC scheme named AUTO, based on Multi-Objective Reinforcement Learning (MORL). It is environment-adaptive by training a MORL agent and a preference adaptation model. The first can generate optimal policies for all possible preferences (i.e., the relative importance of objectives). The latter automatically selects an appropriate preference for each environment, by taking a state sequence as input to recognize the environment. Meanwhile, AUTO can satisfy diversified application requirements by letting applications determine the input preference at will. Evaluations on emulated networks and the real Internet show that AUTO consistently outperforms the state-of-the-art in representative network environments and is more robust to stochastic packet loss and rapid network changes. Moreover, AUTO can achieve fairness against different CC schemes.
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Cited by top-tier papers6
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Builds on3
- Classic Meets Modern: a Pragmatic Learning-Based Congestion Control for the InternetSoheil Abbasloo, Chen-Yu Yen, H. Jonathan ChaoSIGCOMM 2020 · 257 citations
- Dynamically Adaptive Cooperation Transmission among Satellite-Ground Integrated NetworksFeilong TangINFOCOM 2020 · 59 citations
- TACK: Improving Wireless Transport Performance by Taming AcknowledgmentsTong Li, Kai Zheng, Ke Xu, Rahul Arvind Jadhav et al.SIGCOMM 2020 · 54 citations
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