Potential based routing as a secondary best-effort routing for Information Centric Networking (ICN)

Eum, Suyong; Nakauchi, Kiyohide; Murata, Masayuki; Shoji, Yozo; Nishinaga, Nozomu

doi:10.1016/j.comnet.2013.08.010

Cited by 21 publications

(8 citation statements)

References 15 publications

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“…Since forwarding planes can adapt short-term changes, control planes in NDN can be more focused on long-term changes occurring in a network [7]. Therefore, new unconventional but effective routing algorithms can be applied [6,[8][9][10][11][12].…”

Section: Routing In Named Data Networkingmentioning

confidence: 99%

On Sharing an FIB Table in Named Data Networking

Mun

Lim

2019

Applied Sciences

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As a new networking paradigm, Named Data Networking (NDN) technology focuses on contents, and content names are used as identifiers for forwarding and routing, as opposed to IP addresses in the current Internet. NDN routers forward packets by looking up a Forwarding Information Base (FIB), each entry of which has a name prefix and output faces. An FIB should have the information to forward Interest packets for any contents. Hence, the size of an FIB would be excessively large in NDN routers, and the traffic for building an FIB would be significant. In order to reduce the traffic associated with building an FIB table and memory requirement for storing an FIB table, this paper proposes a new efficient method which combines the routing of network connectivity and the building of a forwarding engine using Bloom filters. We propose to share the summary of an FIB using a Bloom filter rather than to advertise each name prefix. The forwarding engine of the proposed scheme is a combination of Bloom filters, and hence the memory requirement of the forwarding can be much smaller than the regular FIB. Simulation results using ndnSIM under real network topologies show that the proposed method can achieve nearly the same performance as the conventional link state algorithm with 6-8% of the traffic for distributing the connectivity information and 5-9% of the memory consumption.

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Section: Routing In Named Data Networkingmentioning

confidence: 99%

On Sharing an FIB Table in Named Data Networking

Mun

Lim

2019

Applied Sciences

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“…On the other hand, each ICN node with a copy of data object floods the advertisement message periodically (soft state) within limited area so that it adaptively changes the scope of advertisement depending on its capability or willingness to server user requests, e.g., a high capacity node may create large numbers of potential fields which have large advertisement scope to serve more user requests. The control overhead issue of the PBR in terms of soft and hard state mechanisms is evaluated in our previous work [17].…”

Section: Routingmentioning

confidence: 99%

Design of ICN-enabled IEEE 802.11 wireless access points

Eum

Shoji

Murata

et al. 2014

2014 European Conference on Networks and Communications (EuCNC)

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This article introduces the idea of ICN-enabled IEEE 802.11 wireless access points (APs) as nano data centers. After elaborating its design, we evaluate the performance with trace-based simulation and prototype-based experiment. The evaluation shows that even a small size cache, e.g. 1Gbyte nearby mobile users can reduce traffic load by 15%, which enables mobile operators to reduce operational cost in the mobile back-haul areas. Moreover, a mobile user can download content files with less delay and interruption, especially when the performance of network becomes degraded or unstable. The synergy between ICN supporting mobility as the norm and widely deployed broadband IEEE 802.11 wireless access points makes this proposal attractive as a potential application scenario for ICN.

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“…12,13 The CCN architecture 5,[14][15][16][17][18][19] decouples the content from the location and works like a virtual content distributor all over the network. Ant colony-based routing [20][21][22] restricts the Interest Packet dissemination and content distribution, but the overhead and the complexity of the algorithm are high due to the collection of global information. Several proxy-based approaches 23,24 were proposed to provide seamless connectivity toward the content when the end users are mobile and change its location frequently.…”

Section: Related Workmentioning

confidence: 99%

Efficient data delivery based on content-centric networking for Internet of Things applications

Bosunia

Hasan

Nasir

et al. 2016

International Journal of Distributed Sensor Networks

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Content-centric networking is a new networking paradigm for efficient data distribution in various environments including wireless sensor networks. It is likely that everything which benefits from networking will be connected. Recently, we have seen a huge proliferation of heterogeneous wireless devices, sensors, and distributed applications. These devices may generate a vast amount of time-constrained data. Content-centric networking is greatly useful to increase the data availability and the efficiency of data delivery. Internet of Things will enable all the communication devices to be interconnected and make the data generated by or associated with devices or objects globally accessible. In this article, we propose a possible architecture, necessary components, and related mechanisms for efficient data delivery in the wireless Internet of Things environment, which is based on content-centric networking. We also present simulation results to show the feasibility of the proposed architecture.

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Potential based routing as a secondary best-effort routing for Information Centric Networking (ICN)

Cited by 21 publications

References 15 publications

On Sharing an FIB Table in Named Data Networking

On Sharing an FIB Table in Named Data Networking

Design of ICN-enabled IEEE 802.11 wireless access points

Efficient data delivery based on content-centric networking for Internet of Things applications

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