基于智能自适应机器学习的移动热点省电算法

Kavin Kumar Thangadorai, Raj Kumar Saranappa, Abdus Sarif Ahmed, K. Murugesan, Manbir Singh Soni, Radhika Mundra, Manjunath Neelappa Sataraddi, Srihari Sriram, Varun Singh, B. S. Kumar, Mayuresh Patil, D. Das
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引用次数: 0

摘要

在当前的Wi-Fi技术趋势下,移动热点(MHS)或软接入点(S-AP)是我们日常生活中不可或缺的一部分。在任何时候,MHS都可以作为具有蜂窝回程网络(3G/4G/5G)的移动设备(智能手机,平板电脑)的Wi-Fi热点启用,并为笔记本电脑,电视等客户端设备提供互联网接入。与Wi-Fi接入点(通常是供电设备)不同,MHS是作为电池供电设备启用的。此外,MHS消耗更高的功率,并被报告为主要的客户声音(VoC)问题之一。由于高功耗,许多客户对MHS功能及其持续使用持怀疑态度。除了少数文献外,没有针对MHS及其电源管理的特定IEEE 802.11标准。在本文中,我们提出了一种基于机器学习(ML)的智能MHS省电(I-MHSPS)算法,该算法使用Wi-Fi参数,如RSSI,信噪比,TX功率和信道条件。此外,我们还使用了其他上下文参数,如客户行为、电池电量、应用程序使用情况和互联网回程,以提高我们算法的准确性。在I-MHSPS中,我们提出了智能发射功率控制(I-TPC):基于客户端附近的MHS TX功率调节,智能超功耗节省(I-UPS):为MHS操作应用不同的系统功率水平和智能低功耗加密(I-LPE):为短距离MHS启用低功耗加密。在我们的第一个实验中,与现有的方法相比,I-TPC的想法减少了大约10-16%的功耗。在I-UPS的第二次实验中,我们在MHS操作中应用了不同的系统功率水平,并且在没有任何性能下降的情况下节省了大约22%的功率。此外,在第三个实验中,使用I-LPE方法,我们观察到数据包加密所需的功率降低了20%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Intelligent and Adaptive Machine Learning-based Algorithm for Power Saving in Mobile Hotspot
In current Wi-Fi technology trend, Mobile Hotspot (MHS) or Soft Access Point (S-AP) is an integral part of our day-to-day life. At any time, MHS could be enabled as Wi-Fi Hotspot in mobility devices (smart phone, tablet) with cellular backhaul network (3G/4G/5G) and provides Internet access to client devices such as laptop, TV etc. Unlike Wi-Fi Access Point, which is typically a powered device, MHS is enabled as battery-operated device. In addition, MHS consumes higher power and reported as one of the primary Voice of Customer (VoC) issue. Due to high power consumption, many customers are skeptical about MHS feature and its continuous usage. Apart from few literatures, there is no specific IEEE 802.11 standard for MHS and its power management. In this paper, we have proposed a Machine Learning (ML) based Intelligent MHS Power Save (I-MHSPS) algorithm using Wi-Fi parameters such as RSSI, SNR, TX power and channel condition. In addition, we have used other contextual parameters such as client behavior, battery level, application usage and internet backhaul to improve the accuracy of our algorithm. In I-MHSPS, we have proposed Intelligent Transmit Power Control (I-TPC): MHS TX power regulation based on client vicinity, Intelligent Ultra Power Save (I-UPS): Applying different system power level for MHS operation and Intelligent Low Power Encryption (I-LPE): Enabling low power encryption for short range MHS. In our first experiment with I-TPC idea has reduced power consumption by 10-16% approximately when compared to existing methodologies. In second experiment for I-UPS, we have applied different system power levels for MHS operation and achieved power saving around 22% without any performance degradation. Further, in third experiment, using I-LPE method, we have observed the power required for encryption of data packets reduced by 20%.
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