TY - JOUR
T1 - A Context-Aware Green Information-Centric Networking Model for Future Wireless Communications
AU - Nguyen, Quang Ngoc
AU - Arifuzzaman, Mohammad
AU - Yu, Keping
AU - Sato, Takuro
N1 - Funding Information:
This work was supported in part by the 5G! Pagoda Project through the European Commission’s H2020 Program under Grant 723172 and the SCOPE Project of The Ministry of Internal Affairs and Communications of Japan and in part by the EU-JAPAN Green ICN Project initiative by EC Seventh Frame-Work Programme under Grant 608518 and NICT under Contract 167.
Publisher Copyright:
© 2013 IEEE.
PY - 2018/4/18
Y1 - 2018/4/18
N2 - This research proposes a novel wireless information-centric networking (ICN) architecture, namely, Context-Aware Green ICN Model (CAGIM), which can adapt the power consumption of network nodes to optimized values according to the associated link utilization. The power adaption in ICN nodes is conducted through dynamically adjusting the link-rate corresponding to content popularity and traffic load to reduce wasteful energy consumption. Moreover, we propose a smart popularity-based caching strategy, called distinguished caching scheme (DCS), with the introduction of hot and cold-caching partitions of ICN node's cache storage for popular and non-popular content objects, respectively. DCS improves the content diversity of the cache storage by adjusting, for each content, the number of chunks to be cached at ICN nodes based on its type and popularity level. DCS thus can further decrease the network system power consumption, thanks to its improved cache hit that reduces network traffic load. Toward the goal of realizing a context-aware green wireless network system with efficient content delivery, we also design a Wi-Fi Direct based scheme as an alternative approach to minimize power consumption and latency by sharing essential/important content objects via direct communications with power-saving mechanisms in the case that wireless local area network connections are not available. The evaluation results show that CAGIM can improve network efficiency by reducing both hop-count and power consumption considerably compared with existing wireless network systems with different well-known caching schemes. This proposal enables a flexible and efficient content delivery mechanism for future networks with various real-life scenarios, like Green building, Green company, and Green campus content accesses.
AB - This research proposes a novel wireless information-centric networking (ICN) architecture, namely, Context-Aware Green ICN Model (CAGIM), which can adapt the power consumption of network nodes to optimized values according to the associated link utilization. The power adaption in ICN nodes is conducted through dynamically adjusting the link-rate corresponding to content popularity and traffic load to reduce wasteful energy consumption. Moreover, we propose a smart popularity-based caching strategy, called distinguished caching scheme (DCS), with the introduction of hot and cold-caching partitions of ICN node's cache storage for popular and non-popular content objects, respectively. DCS improves the content diversity of the cache storage by adjusting, for each content, the number of chunks to be cached at ICN nodes based on its type and popularity level. DCS thus can further decrease the network system power consumption, thanks to its improved cache hit that reduces network traffic load. Toward the goal of realizing a context-aware green wireless network system with efficient content delivery, we also design a Wi-Fi Direct based scheme as an alternative approach to minimize power consumption and latency by sharing essential/important content objects via direct communications with power-saving mechanisms in the case that wireless local area network connections are not available. The evaluation results show that CAGIM can improve network efficiency by reducing both hop-count and power consumption considerably compared with existing wireless network systems with different well-known caching schemes. This proposal enables a flexible and efficient content delivery mechanism for future networks with various real-life scenarios, like Green building, Green company, and Green campus content accesses.
KW - Adaptive link rate (ALR)
KW - D2D content sharing
KW - future Internet (FI)
KW - information-centric networking (ICN)
KW - name data networking (NDN)
KW - next-generation wireless communications
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U2 - 10.1109/ACCESS.2018.2828462
DO - 10.1109/ACCESS.2018.2828462
M3 - Article
AN - SCOPUS:85045768221
SN - 2169-3536
VL - 6
SP - 22804
EP - 22816
JO - IEEE Access
JF - IEEE Access
ER -