263 research outputs found
Future Internet Technologies: A Review
In this paper, we do a review of Future Internet technologies (ICN and NDN architecture). We discuss examples of edge computing and IoT. We chose these areas because they are very important topics in today research. We also discuss provider mobility, P2P architectures, sync, and simulation tools. We discuss open questions for research
Imagining the Internet in Future
In this paper, we imagining the Future Internet (ICN and NDN architecture). We discuss examples of edge computing and IoT. We chose these areas because they are very important topics in today research. We also discuss provider mobility, P2P architectures, sync, and simulation tools. We discuss open questions for research
Incrementando as redes centradas à informaçãopara uma internet das coisas baseada em nomes
The way we use the Internet has been evolving since its origins. Nowadays,
users are more interested in accessing contents and services with high demands
in terms of bandwidth, security and mobility. This evolution has triggered
the emergence of novel networking architectures targeting current, as
well as future, utilisation demands. Information-Centric Networking (ICN) is a
prominent example of these novel architectures that moves away from the current
host-centric communications and centres its networking functions around
content.
Parallel to this, new utilisation scenarios in which smart devices interact with
one another, as well as with other networked elements, have emerged to constitute
what we know as the Internet of Things (IoT). IoT is expected to have
a significant impact on both the economy and society. However, fostering the
widespread adoption of IoT requires many challenges to be overcome. Despite
recent developments, several issues concerning the deployment of IPbased
IoT solutions on a large scale are still open.
The fact that IoT is focused on data and information rather than on point-topoint
communications suggests the adoption of solutions relying on ICN architectures.
In this context, this work explores the ground concepts of ICN
to develop a comprehensive vision of the principal requirements that should
be met by an IoT-oriented ICN architecture. This vision is complemented with
solutions to fundamental issues for the adoption of an ICN-based IoT. First,
to ensure the freshness of the information while retaining the advantages of
ICN’s in-network caching mechanisms. Second, to enable discovery functionalities
in both local and large-scale domains. The proposed mechanisms are
evaluated through both simulation and prototyping approaches, with results
showcasing the feasibility of their adoption. Moreover, the outcomes of this
work contribute to the development of new compelling concepts towards a
full-fledged Named Network of Things.A forma como usamos a Internet tem vindo a evoluir desde a sua criação.
Atualmente, os utilizadores estão mais interessados em aceder a conteúdos
e serviços, com elevados requisitos em termos de largura de banda, segurança
e mobilidade. Esta evolução desencadeou o desenvolvimento de novas
arquiteturas de rede, visando os atuais, bem como os futuros, requisitos de
utilização. As Redes Centradas à Informação (Information-Centric Networking
- ICN) são um exemplo proeminente destas novas arquiteturas que, em vez
de seguirem um modelo de comunicação centrado nos dispositivos terminais,
centram as suas funções de rede em torno do próprio conteúdo.
Paralelamente, novos cenários de utilização onde dispositivos inteligentes interagem
entre si, e com outros elementos de rede, têm vindo a aparecer e
constituem o que hoje conhecemos como a Internet das Coisas (Internet of
Things - IoT ). É esperado que a IoT tenha um impacto significativo na economia
e na sociedade. No entanto, promover a adoção em massa da IoT ainda
requer que muitos desafios sejam superados. Apesar dos desenvolvimentos
recentes, vários problemas relacionados com a adoção em larga escala de
soluções de IoT baseadas no protocolo IP estão em aberto.
O facto da IoT estar focada em dados e informação, em vez de comunicações
ponto-a-ponto, sugere a adoção de soluções baseadas em arquiteturas
ICN. Neste sentido, este trabalho explora os conceitos base destas soluções
para desenvolver uma visão completa dos principais requisitos que devem ser
satisfeitos por uma solução IoT baseada na arquitetura de rede ICN. Esta visão
é complementada com soluções para problemas cruciais para a adoção
de uma IoT baseada em ICN. Em primeiro lugar, assegurar que a informação
seja atualizada e, ao mesmo tempo, manter as vantagens do armazenamento
intrínseco em elementos de rede das arquiteturas ICN. Em segundo lugar,
permitir as funcionalidades de descoberta não só em domínios locais, mas
também em domínios de larga-escala. Os mecanismos propostos são avaliados
através de simulações e prototipagem, com os resultados a demonstrarem
a viabilidade da sua adoção. Para além disso, os resultados deste
trabalho contribuem para o desenvolvimento de conceitos sólidos em direção
a uma verdadeira Internet das Coisas baseada em Nomes.Programa Doutoral em Telecomunicaçõe
Future Internet Technologies: ICN and NDN
Future Internet Technologies have been popular and research has been conducted in Information Centric Networking (ICN) and Named Data Networking (NDN) for several years now. We discuss several researches in the area of the Internet of the future in ICN and NDN. Our goal is to help the community explore these researches
Edge Computing, IoT and Future Internet
In this paper, we discuss researches in Edge Computing, Internet of Things (IoT), and Future Internet Technologies (ICN and NDN). We chose these areas because they are hot topics in today research
Information Centric Networking and Named Data Networking: The Future of the Internet
Future Internet Technologies have been used and research has been conducted in Information Centric Networking (ICN) and Named Data Networking (NDN) for years. We discuss researches in the areas of the Internet of the future in ICN and NDN. We think that ICN and NDN are the future of the Internet
The Emerging of the Future Internet
In this paper, we discuss researches in the emerging of Future Internet (ICN and NDN). We also talk about edge computing and IoT. We chose these areas because they are hot topics in today research
Named Data Networking in Vehicular Ad hoc Networks: State-of-the-Art and Challenges
International audienceInformation-Centric Networking (ICN) has been proposed as one of the future Internet architectures. It is poised to address the challenges faced by today's Internet that include, but not limited to, scalability, addressing, security, and privacy. Furthermore, it also aims at meeting the requirements for new emerging Internet applications. To realize ICN, Named Data Networking (NDN) is one of the recent implementations of ICN that provides a suitable communication approach due to its clean slate design and simple communication model. There are a plethora of applications realized through ICN in different domains where data is the focal point of communication. One such domain is Intelligent Transportation System (ITS) realized through Vehicular Ad hoc NETwork (VANET) where vehicles exchange information and content with each other and with the infrastructure. To date, excellent research results have been yielded in the VANET domain aiming at safe, reliable, and infotainment-rich driving experience. However, due to the dynamic topologies, host-centric model, and ephemeral nature of vehicular communication, various challenges are faced by VANET that hinder the realization of successful vehicular networks and adversely affect the data dissemination, content delivery, and user experiences. To fill these gaps, NDN has been extensively used as underlying communication paradigm for VANET. Inspired by the extensive research results in NDN-based VANET, in this paper, we provide a detailed and systematic review of NDN-driven VANET. More precisely, we investigate the role of NDN in VANET and discuss the feasibility of NDN architecture in VANET environment. Subsequently, we cover in detail, NDN-based naming, routing and forwarding, caching, mobility, and security mechanism for VANET. Furthermore, we discuss the existing standards, solutions, and simulation tools used in NDN-based VANET. Finally, we also identify open challenges and issues faced by NDN-driven VANET and highlight future research directions that should be addressed by the research community
Producer mobility support scheme for indirection-based mobility approach in named data networking
Named Data Networking (NDN) is a clean-slate future Internet architecture proposed to support content mobility by using hierarchical naming instead of IP addresses for routing. The hierarchical naming structure of NDN offers more benefits in supporting consumer mobility. However, the movements of producer inflict changes in routing name prefix hierarchy, which makes the entire network unaware of the new location of the producer. Thus, it causes some significant challenges, such as
unnecessary Interest packet losses, high handoff latency, high signaling overhead cost, poor utilization of bandwidth, and path stretching. The aim of this research is to propose a Producer Mobility Support Scheme (PMSS) in order to minimize the handoff latency, signaling cost, improve data packets delivery via optimal path once a content producer relocated. The proposed PMSS model includes the formulated Mobility Weighted Function to incorporate movement behavior of the mobile producer. Also, Mobility Interest packet was designed to convey binding information
and Broadcasting Strategy to facilitate handoff processes by updating the intermediate routers. Therefore, modeling and simulation methodologies were used in the design and performance evaluation of PMSS for rigorous investigation. The analytical result of PMSS scheme outperforms Optimal Producer Mobility for
Larger-scale scheme with 50% lower handoff latency and signaling cost. Moreover, it minimizes 46% handoff signaling cost and improves 32% data path optimization as compared to the Kite scheme. The simulation results show that the proposed PMSS
scheme minimizes 40% handoff latency, 28% packets delay, 28% unnecessary Interest packets loss, and improves 20% throughput. This study contributes to the development of the movement behavior model and mobility update packets. The findings have significant implication to support seamless mobility and the integration of NDN with other networks without additional mechanism
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