DocumentCode :
616003
Title :
An energy-aware multipath-TCP-based content delivery scheme in heterogeneous wireless networks
Author :
Shengyang Chen ; Zhenhui Yuan ; Muntean, Gabriel-Miro
Author_Institution :
Performance Eng. Lab., Dublin City Univ., Dublin, Ireland
fYear :
2013
fDate :
7-10 April 2013
Firstpage :
1291
Lastpage :
1296
Abstract :
IETF-proposed Multipath TCP (MPTCP) extends the standard TCP and allows data streams to be delivered across multiple simultaneous connections and consequently paths. The multipath capability of MPTCP provides increased bandwidth for applications in comparison with the classic single-path TCP, which makes it highly attractive for the current consumer mobile devices that support more than one radio interfaces (e.g. 3G, WiFi, Bluetooth, etc.). However, MPTCP does not consider energy consumption aspects which are highly important for these devices. This paper proposes eMTCP, a novel energy-aware MPTCP-based content delivery scheme which balances support for increased throughput with energy consumption awareness. eMTCP is located at upper transport layer in mobile devices and requires no additional modifications of the MPTCP-enabled server. eMTCP increases the energy efficiency of mobile devices by offloading traffic from the more energy-consuming interfaces to others. Simulation-based experiments employing an eMTCP model which sends data streams via the 3GPP Long Term Evolution (LTE) and IEEE 802.11 (WiFi) interfaces show an increase of up to 14% in energy efficiency when using eMTCP in comparison with MPTCP and of up to 66% in terms of quality in comparison with single-path TCP.
Keywords :
3G mobile communication; Long Term Evolution; energy consumption; transport protocols; wireless LAN; 3GPP Long Term Evolution; IEEE 802.11 interfaces; IETF; LTE; MPTCP; WiFi; consumer mobile devices; eMTCP; energy consumption awareness; energy-aware multipath-TCP-based content delivery scheme; heterogeneous wireless networks; multipath capability; multiple simultaneous connections; upper transport layer; Energy consumption; Energy efficiency; IEEE 802.11 Standards; Long Term Evolution; Mobile handsets; Protocols; Throughput; Long Term Evolution (LTE); Multipath TCP; WiFi; energy consumption; traffic offloading;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Wireless Communications and Networking Conference (WCNC), 2013 IEEE
Conference_Location :
Shanghai
ISSN :
1525-3511
Print_ISBN :
978-1-4673-5938-2
Electronic_ISBN :
1525-3511
Type :
conf
DOI :
10.1109/WCNC.2013.6554750
Filename :
6554750
Link To Document :
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