Socrates Varakliotis
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Research Subjects
Socrates Varakliotis has a total of 8 co-authors. Here are the top co-authors by number of shared publications:
- Andrea Basso
AT&T Labs — Research, 200 Laurel Ave., Middletown, NJ 07748, USA
1 shared publication - Antonio Fernando Gomez Skarmeta
Department of Information and Communications Engineering, Faculty of Computer Science, University of Murcia, 30100 Murcia, Spain
1 shared publication - Antonio J. Jara
Libelium, Murcia, Spain
1 shared publication - Florin Lohan
Digital Media Institute, Tampere Univ. of Technology, Tampere, Finland
1 shared publication - Pedro Moreno Sanchez
Department Information and Communication Engineering (DIIC), Faculty of Computer Science, University of Murcia, Murcia 30100, Spain
1 shared publication Peter Kirstein
1 shared publication
Latest Publications
- 1 January 2014
- Published by European Alliance for Innovation n.o.
Handling the Internet of Things with Care
- 1 January 2014
- Published by European Alliance for Innovation n.o.
Handling the Internet of Things with Care
- Open Access
IPv6 Addressing Proxy: Mapping Native Addressing from Legacy Technologies and Devices to the Internet of Things (IPv6)
Sensors utilize a large number of heterogeneous technologies for a varied set of application environments. The sheer number of devices involved requires that this Internet be the Future Internet, with a core network based on IPv6 and a higher scalability in order to be able to address all the devices, sensors and things located around us. This capability to connect through IPv6 devices, sensors and things is what is defining the so-called Internet of Things (IoT). IPv6 provides addressing space to reach this ubiquitous set of sensors, but legacy technologies, such as X10, European Installation Bus (EIB), Controller Area Network (CAN) and radio frequency ID (RFID) from the industrial, home automation and logistic application areas, do not support the IPv6 protocol. For that reason, a technique must be devised to map the sensor and identification technologies to IPv6, thus allowing homogeneous access via IPv6 features in the context of the IoT. This paper proposes a mapping between the native addressing of each technology and an IPv6 address following a set of rules that are discussed and proposed in this work. Specifically, the paper presents a technology-dependent IPv6 addressing proxy, which maps each device to the different subnetworks built under the IPv6 prefix addresses provided by the internet service provider for each home, building or user. The IPv6 addressing proxy offers a common addressing environment based on IPv6 for all the devices, regardless of the device technology. Thereby, this offers a scalable and homogeneous solution to interact with devices that do not support IPv6 addressing. The IPv6 addressing proxy has been implemented in a multi-protocol Sensors 2013, 13 6688 card and evaluated successfully its performance, scalability and interoperability through a protocol built over IPv6.
Open AccessIPv6 Addressing Proxy: Mapping Native Addressing from Legacy Technologies and Devices to the Internet of Things (IPv6)
Sensors utilize a large number of heterogeneous technologies for a varied set of application environments. The sheer number of devices involved requires that this Internet be the Future Internet, with a core network based on IPv6 and a higher scalability in order to be able to address all the devices, sensors and things located around us. This capability to connect through IPv6 devices, sensors and things is what is defining the so-called Internet of Things (IoT). IPv6 provides addressing space to reach this ubiquitous set of sensors, but legacy technologies, such as X10, European Installation Bus (EIB), Controller Area Network (CAN) and radio frequency ID (RFID) from the industrial, home automation and logistic application areas, do not support the IPv6 protocol. For that reason, a technique must be devised to map the sensor and identification technologies to IPv6, thus allowing homogeneous access via IPv6 features in the context of the IoT. This paper proposes a mapping between the native addressing of each technology and an IPv6 address following a set of rules that are discussed and proposed in this work. Specifically, the paper presents a technology-dependent IPv6 addressing proxy, which maps each device to the different subnetworks built under the IPv6 prefix addresses provided by the internet service provider for each home, building or user. The IPv6 addressing proxy offers a common addressing environment based on IPv6 for all the devices, regardless of the device technology. Thereby, this offers a scalable and homogeneous solution to interact with devices that do not support IPv6 addressing. The IPv6 addressing proxy has been implemented in a multi-protocol Sensors 2013, 13 6688 card and evaluated successfully its performance, scalability and interoperability through a protocol built over IPv6.
- 1 May 2001
- Published by Wiley in European Transactions on Telecommunications
- Vol. 12 (3) , 247-255
Transport of MPEG—4 over IP/RTP
- 1 May 2001
- Published by Wiley in European Transactions on Telecommunications
- Vol. 12 (3) , 247-255
Transport of MPEG—4 over IP/RTP