The concept of Content Networks (CN) has extended Content Distribution Network (CDN) research in order to also comprise other aspects beyond delivery optimization. One central element of this research is the recognition that users are ultimately interested in the content (or a piece of information) and not any specific copy. This resulted in research on content addressing that allows general content access, i.e., the goal is retrieving content (or information) rather than routing of packets between end hosts. This is called Content-Centric respectively Information-Centric Networking (CCN/ICN). For some time these concepts have been explored for the better provision of and access to content services.

To meet the increasing demand for wireless capacity, future networks are likely to consist of dense layouts of small cells. Thus, the number of concurrent users served by each base station (BS) is likely to be small which results in diminished gains from opportunistic scheduling, particularly under dynamic traffic loads. We propose user-initiated BS-transparent traffic spreading that leverages user-to-user communication to increase BS scheduling flexibility.

The delivery of live video streams over the plain old best-effort Internet is a major challenge. This talk deals with the issue of under-provisioning in the main delivery platforms, i.e. when the equipments that are in charge of delivering the video do not have enough upload capacity to serve all clients.

The objective of these symposia is to celebrate idea-sharing sessions on the importance of the technological medium of telematic networks in general, and of the REDIMadrid network in particular, for the development of leading research activity at World level. The collaborative support on the activity of distributed research groups, GRID environments, distributed super-computers and scientific databases are examples of its application to almost any field of scientific research. Two emerging areas of research will be the focus of attention: the e-medicine and the e-participation.

We consider Internet-based Master-Worker task computing systems, such as SETI@home, where a master sends tasks to potentially unreliable workers, and the workers execute and report back the result.

It is notoriously difficult to make distributed systems reliable. This becomes even harder in the case of the widely-deployed systems that are heterogeneous (multiple implementations) and federated (multiple administrative entities).

BitTorrent is the most successful Peer-to-Peer (P2P) application and is responsible for a major portion of Internet traffic. It has been largely studied using simulations, models and real measurements. Although simulations and modelling are easier to perform, they typically simplify analysed problems and in case of BitTorrent they are likely to miss some of the effects which occur in real swarms.

Nicolas Georganas received the Dip. Ing. (Diplom-Ingenieur - German equivalent of M.Sc. degree) in Electrical Engineering from the National Technical University of Athens (Athens, Greece) in 1966. He went on to achieve his Ph.D. in Electrical Engineering (Summa cum Laude) in 1970 from the University of Ottawa (Ottawa, Canada). In 2004, he was conferred a Dr-Ing. (Doktor Ingenieur) (honoris causa) in Electrical Engineering by the Technische Universität Darmstadt (Darmstadt, Germany). In 2007, he was awarded his second Ph.D. (honoris causa) in Electrical and Computer Engineering by the National Technical University of Athens. He currently holds the position of Distinguished University Professor in the School of Information Technology and Engineering (SITE) of the University of Ottawa. In addition to this, he is also a Visiting Researcher at IMDEA Networks and a Cátedra de Excelencia at University Carlos III of Madrid (UC3M). In 1986 he became the Founding Dean of the University of Ottawa’s Faculty of Engineering, and from 2005-08 served as Associate Vice-President, Research (External).

The use of centralized mobility management approaches – such as Mobile IPv6 – poses some difficulties to operators of current and future networks, due to the expected large number of mobile users and their exigent demands. All this has triggered the need for distributed mobility management alternatives, that alleviate operators’ concerns allowing for cheaper and more efficient network deployments.

The IEEE Standard 802.3az, namely Energy Efficient Ether- net (EEE), has been recently introduced to reduce the power consumed in LANs. Since then, researchers have proposed various traffic shaping techniques to leverage EEE in order to boost power saving. In particular, packet coalescing is a promising mechanism which can be used on top of EEE to tradeoff power saving and packet delay.