Design of A PHY-MAC Cross-layer DRX Scheduling Scheme Considering System Level Power Model in LTE-A networks

碩士 === 國立臺南大學 === 電機工程學系碩博士班 === 104 === In the recent years, with high popularity of smart mobile devices, how to extend their battery life is always an important issue. According to the experiment, for a 3G handheld device, the wireless interface consumes the largest proportion of the total power...

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Main Authors: Shuang-Cheng Yang, 楊雙丞
Other Authors: Jen-Jee Chen
Format: Others
Language:zh-TW
Published: 2016
Online Access:http://ndltd.ncl.edu.tw/handle/78huyw
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spelling ndltd-TW-104NTNT04420192019-05-15T22:53:46Z http://ndltd.ncl.edu.tw/handle/78huyw Design of A PHY-MAC Cross-layer DRX Scheduling Scheme Considering System Level Power Model in LTE-A networks LTE-A網路下設計考慮實際耗電模型的跨層睡眠排程方法 Shuang-Cheng Yang 楊雙丞 碩士 國立臺南大學 電機工程學系碩博士班 104 In the recent years, with high popularity of smart mobile devices, how to extend their battery life is always an important issue. According to the experiment, for a 3G handheld device, the wireless interface consumes the largest proportion of the total power (up to 40%). In particular, the 4G and 5G wireless communications will provide higher data rate. As a result, the wireless interface in these devices will consume much more power than that in a 3G device. Specifically, emerging cloud computing and IoT applications also increase the operation time of wireless modems in a mobile device. In this case, how to maximize wireless interfaces’ energy efficiency and design effective energy-saving sleep scheduling mechanism become a critical issue. In this thesis, we design cross-layer energy-saving sleep scheduling mechanisms in LTE-A/B4G uplink by jointly considering system level energy consumption of wireless interfaces and QoS (Quality of Service) requirements of traffic flows. The design considers the Medium Access Control (MAC) Layer multi-user sleep scheduling (via the settings of DRX/DTX parameters) and the Physical Layer power and radio resource allocations at the same time. Furthermore, to maximize the energy efficiency, we also exploit the tolerable packet drop rate and delay bound of traffic flows. When the channel condition is bad for a mobile device, the packet data delivery can be postponed and wait for a better channel quality if its packet drop rate can be guaranteed. Last but not the least, the proposed method is compatible with the 3GPP LTE-A standard. Jen-Jee Chen 陳建志 2016 學位論文 ; thesis 50 zh-TW
collection NDLTD
language zh-TW
format Others
sources NDLTD
description 碩士 === 國立臺南大學 === 電機工程學系碩博士班 === 104 === In the recent years, with high popularity of smart mobile devices, how to extend their battery life is always an important issue. According to the experiment, for a 3G handheld device, the wireless interface consumes the largest proportion of the total power (up to 40%). In particular, the 4G and 5G wireless communications will provide higher data rate. As a result, the wireless interface in these devices will consume much more power than that in a 3G device. Specifically, emerging cloud computing and IoT applications also increase the operation time of wireless modems in a mobile device. In this case, how to maximize wireless interfaces’ energy efficiency and design effective energy-saving sleep scheduling mechanism become a critical issue. In this thesis, we design cross-layer energy-saving sleep scheduling mechanisms in LTE-A/B4G uplink by jointly considering system level energy consumption of wireless interfaces and QoS (Quality of Service) requirements of traffic flows. The design considers the Medium Access Control (MAC) Layer multi-user sleep scheduling (via the settings of DRX/DTX parameters) and the Physical Layer power and radio resource allocations at the same time. Furthermore, to maximize the energy efficiency, we also exploit the tolerable packet drop rate and delay bound of traffic flows. When the channel condition is bad for a mobile device, the packet data delivery can be postponed and wait for a better channel quality if its packet drop rate can be guaranteed. Last but not the least, the proposed method is compatible with the 3GPP LTE-A standard.
author2 Jen-Jee Chen
author_facet Jen-Jee Chen
Shuang-Cheng Yang
楊雙丞
author Shuang-Cheng Yang
楊雙丞
spellingShingle Shuang-Cheng Yang
楊雙丞
Design of A PHY-MAC Cross-layer DRX Scheduling Scheme Considering System Level Power Model in LTE-A networks
author_sort Shuang-Cheng Yang
title Design of A PHY-MAC Cross-layer DRX Scheduling Scheme Considering System Level Power Model in LTE-A networks
title_short Design of A PHY-MAC Cross-layer DRX Scheduling Scheme Considering System Level Power Model in LTE-A networks
title_full Design of A PHY-MAC Cross-layer DRX Scheduling Scheme Considering System Level Power Model in LTE-A networks
title_fullStr Design of A PHY-MAC Cross-layer DRX Scheduling Scheme Considering System Level Power Model in LTE-A networks
title_full_unstemmed Design of A PHY-MAC Cross-layer DRX Scheduling Scheme Considering System Level Power Model in LTE-A networks
title_sort design of a phy-mac cross-layer drx scheduling scheme considering system level power model in lte-a networks
publishDate 2016
url http://ndltd.ncl.edu.tw/handle/78huyw
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