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334 Semantic as an Interoperability Enabler in Internet of Things Fig. 9.8 Digcovery architecture. the interfaces with the client applications/users through Web Services such as Restful or through Enterprise communications interfaces such as JSON/XML or specific interfaces for third party platforms such as the presented example of Global Sensor Network (GSN) platform used in the OpenIoT EU FP7 Project. The dark blue components present the key components designed, proposed and developed in order to provide a homogenous an interoperable environment to discover, look-up and register services and resources. The main element is the digcovery, which is the global discovery platform. This platform is used to locate the different domains and the wide deployed directories with the different resources. The following elements are the directories, which contains the resources and services description from each one of the domains, these directories are not technology dependent, therefore this will be connected with any other platform through a driver. The considered platforms and the considered drivers are for the platforms such as the EPC Information System for RFID tags, and the handle system from CNIR for Digital Objects Identifiers (DOI). Finally, it has been also proposed a Smart Object Discovery Protocol based on current IPv6-based discovery protocols in order to enable the interaction between IPv6-enabled devices and the directory from its domain.
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Internet of Things: Converging Tech
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Internet of Things: Converging Tech
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Dedication “A rock pile ceases to
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Editors Biography Dr. Ovidiu Vermes
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Foreword The Bright Future of the I
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Contents Foreword The Bright Future
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Contents xiii 5 Security and Privac
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1 Driving European Internet of Thin
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1.2 Time for Convergence 3 • Only
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1.3 Towards the IoT Universe(s) 5
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2 Internet of Things Strategic Rese
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2.1 Internet of Things Vision 9 Fig
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2.1 Internet of Things Vision 11 Im
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2.1 Internet of Things Vision 13 Fi
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2.1 Internet of Things Vision 15 Fi
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2.2 IoT Strategic Research and Inno
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comprising a number of components s
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2.3 IoT Applications 39 be possible
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2.3 IoT Applications 41 Fig. 2.17 A
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2.3 IoT Applications 43 Fig. 2.18 S
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2.3 IoT Applications 45 Fig. 2.20 E
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2.3 IoT Applications 47 Energy (IoE
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2.3 IoT Applications 49 momentary t
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2.3 IoT Applications 51 Fig. 2.23 S
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2.3 IoT Applications 53 new range o
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2.3 IoT Applications 55 Fig. 2.24 E
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2.3 IoT Applications 57 • Data ne
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2.3 IoT Applications 59 Fig. 2.26 I
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2.4 Internet of Things and Related
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2.5 Infrastructure 69 tiny chips. T
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2.5 Infrastructure 71 knowledge, e.
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2.6.1.1 Complexity of the Networks
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2.6 Networks and Communication 75 s
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2.6 Networks and Communication 77 2
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2.7 Processes 79 based on events th
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2.8 Data Management 81 centrally, i
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2.8 Data Management 83 Device event
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2.8 Data Management 85 computing pl
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2.8 Data Management 87 open platfor
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2.8 Data Management 89 • The comb
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2.8 Data Management 91 expected res
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2.9 Security, Privacy & Trust 93 So
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2.10 Device Level Energy Issues 95
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2.11 IoT Related Standardisation 10
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2.11.4 Interoperability in the Inte
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2.12 Recommendations on Research To
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Internet of Things Timelines Table
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Table 2.1. (Continued ) Development
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Table 2.2. Internet of Things Resea
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Table 2.2. (Continued ) Research ne
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Table 2.2. (Continued ) Research ne
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References 145 [21] H. Grindvoll, O
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References 147 [57] A. S. Rao, M. P
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References 149 [101] C.A.R. Hoare,
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References 151 [143] INSPIRE, EU FP
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3 IoT Applications — Value Creati
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3.2 IoT Applications for Industry
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3.3 Future Factory Concepts 163 Ima
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3.3 Future Factory Concepts 165 Fig
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3.3 Future Factory Concepts 167 tim
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3.3 Future Factory Concepts 169 the
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3.4 Brownfield IoT: Technologies fo
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3.5 Smart Objects, Smart Applicatio
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3.5 Smart Objects, Smart Applicatio
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3.6 Four Aspects in your Business t
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3.7 Auto_ID — Value Creation from
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3.8 What the Shopping Basket Can Te
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3.9 IoT For Oil and Gas Industry 19
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3.9 IoT For Oil and Gas Industry 19
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3.10 Opinions on IoT Application an
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3.10 Opinions on IoT Application an
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References 205 [4] Building Value f
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4 Internet of Things Privacy, Secur
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4.1 Introduction 209 purchases were
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4.2 Overview of Activity Chain 05
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4.3 Contribution From FP7 Projects
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4.4 Conclusions 223 The involvement
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5 Security and Privacy Challenge in
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5.1 Security, Privacy and Trust in
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5.2 First Steps Towards a Secure Pl
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5.3 Smartie Approach 237 SMARTIE wi
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5.3 Smartie Approach 239 Security a
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References 241 The idea of the IoT
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References 243 [20] Mo Mansouri, Al
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6 A Common Architectural Approach f
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6.2 Defining a Common Architectural
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6.2 Defining a Common Architectural
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6.3 The iCore Functional Architectu
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References 257 with VO Lifecycle Ma
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7 Internet of Things Standardisatio
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7.1 Introduction 261 Fig. 7.1 Resea
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7.2 M2M Service Layer Standardisati
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7.2 M2M Service Layer Standardisati
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7.3 OGC Sensor Web for IoT 267 beco
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7.3 OGC Sensor Web for IoT 269 IoT
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7.4 IEEE and IETF 271 IPv6, which c
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7.5 ITU-T 273 terminology, common r
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7.6 Conclusions 275 As highlighted
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8 Simpler IoT Word(s) of Tomorrow,
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A simple representation of interope
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8.1 Introduction 281 will in the ta
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8.2 Physical vs Virtual 283 Require
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8.3 Solve the Basic First — The P
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8.4 The Data Interoperability 291 F
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8.5 The Semantic Interoperability 2
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8.6 The Organizational Interoperabi
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8.7 The Eternal Interoperability [2
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8.8 The Importance of Standardisati
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8.9 The Need of Methods and Tools a
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8.10 The Important Economic Dimensi
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Page 716: 344 Index convergence of informatio
Page 720: 346 Index manufacturing industry, 1
Page 724: 348 Index user data, 240 UWB, 35, 9
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