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Semantic to intelligent web era: building blocks, applications, and current trends

Published: 28 October 2013 Publication History

Abstract

The Web has known a very fast evolution: going from the Web 1.0, known as Web of Documents where users are merely consumers of static information, to the more dynamic Web 2.0, known as social or collaborative Web where users produce and consume information simultaneously, and entering the more sophisticated Web 3.0, known as the Semantic Web by giving information a well-defined meaning so that it becomes more easily accessible by human users and automated processes. Fostering service intelligence and atomicity (the ability of autonomous services to interact automatically), remains one of the most upcoming challenges of the Semantic Web. This promotes the dawn of a new era: the Intelligent Web (Web 4.0), known as the Internet of Things (IoT), an extension of the Semantic Web where (physical/software) objects and services autonomously interact in a multimedia virtual environment, provided with embedded communication capabilities, common semantics and addressing schemes, promoting the concept of Digital Web Ecosystems where every where (human and software) agents collaborate, interact, compete, and evolve autonomously in order to automatically solve complex and dynamic problems. This paper briefly describes the recent evolution of the Web providing an overview of the technological breakthroughs contributing to this evolution, covering: knowledge bases and semantic data description, XML-based data representation and manipulation technologies (i.e., RDF, RDFS, OWL, and SPARQL) as well as the main challenges toward achieving the Intelligent Web: connectivity, semantic heterogeneity, collective knowledge management, collective intelligence, as well as data sustainability and evolution. We also present some of the main application domains characterizing the Intelligent (Semantic) Web, from information retrieval and content analysis, to systems status monitoring and improving business life-cycle through ubiquitous computing.

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Tope Omitola

As the semantic web slowly transforms into the Internet of Things, it is ideal to have the foundational technologies of both summarized in one place. This paper cogently describes the technologies underpinning the semantic web and the Internet of Things. The motivations listed for the development of the semantic web, such as data integration and data accessibility, are broadly correct. The tools of the semantic web-such as the representational languages, including the resource description framework (RDF) and the web ontology language (OWL), and data access languages, including SPARQL-are treated in sufficient depth for a reader to understand. The three main challenges to realizing the semantic web and Internet of Things visions are enumerated. First, fast ubiquitous access will need to be provided at a cheap enough price. Second, in the Internet of Things world, processes, terminals, and data will be heterogeneous; the interoperability of these entities will be a pressing problem. The concept of linked data is useful to mitigate the challenge of semantic interoperability. Third, the Internet of Things will enable a high level of service collaboration, so the issue of effective service composability needs to be solved. Some of the major application domains where the semantic web can be useful are enumerated. Domains such as information retrieval and extraction, machine translation, lexicography, and content analysis are succinctly described. All in all, this paper gives a good introduction to the semantic web and its evolution to the Internet of Things, providing breadth rather than depth. However, it makes up for its lack of depth with a very extensive bibliography. Online Computing Reviews Service

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MEDES '13: Proceedings of the Fifth International Conference on Management of Emergent Digital EcoSystems
October 2013
358 pages
ISBN:9781450320047
DOI:10.1145/2536146
  • Conference Chairs:
  • Latif Ladid,
  • Antonio Montes,
  • General Chair:
  • Peter A. Bruck,
  • Program Chairs:
  • Fernando Ferri,
  • Richard Chbeir
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  • Luxembourg Green Business Awards 2013: Luxembourg Green Business Awards 2013
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  • Pro Newtech: Pro Newtech
  • CTI: Centro de Tecnologia da Informação Renato Archer

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Published: 28 October 2013

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Author Tags

  1. OWL
  2. RDF
  3. SPARQL
  4. XML
  5. data semantics
  6. intelligent services
  7. internet of things
  8. knowledge base
  9. semantic web
  10. web

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MEDES '13
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  • LBBC
  • IPv6 Luxembourg Council
  • Luxembourg Green Business Awards 2013
  • LUXINNOVATION
  • Pro Newtech
  • CTI

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MEDES '13 Paper Acceptance Rate 56 of 122 submissions, 46%;
Overall Acceptance Rate 267 of 682 submissions, 39%

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  • (2022)The Knowledge Graph As The Interoperability Foundation For An Augmented Reality Application: The Case At The Dutch Land Registry2022 ITU Kaleidoscope- Extended reality – How to boost quality of experience and interoperability10.23919/ITUK56368.2022.10003053(1-8)Online publication date: 7-Dec-2022
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