WP # 3: Complexity – Industry Connections
WP3 makes the connection of STREPs to technological application areas and in particular to infrastructure networks. The effort is to make the connection between real life situations and the Complexity STREPs ideas such as multi-level analysis and network properties. We will measure the success of our interface with the industry by the participation of industrial partners to WP3. We hope to have major organizations maintaining a significant level of cooperation with the STREPs. We will invest much effort that the knowledge transferred by the STREPs will induce practical applications. We will document these eventual applications in our reports and publish it to a wider audience (WP1).
- Leading institution:
- ENEA - ENTE PER LE NUOVE TECNOLOGIE, L'ENERGIA E L'AMBIENTE - ROMA, ITALY
- WP leader:
- Dr. Sandro Bologna
- bologna(at)casaccia.enea.it
Objectives
The objectives of this WP are to:
- make the connection between young researchers working in the Complexity STREPS and the industrial applications,
- facilitate common PhD projects between complexity STREPs and industry.
The analysis of large and complex systems and, particularly, that of their interdependencies is a challenging domain on both a theoretical and a technological points of view, as was highlighted by some of the STREPs. Because of their intrinsic non-linearity, of the non-deterministic and time-dependent behaviour, complex infrastructures, in their actual configurations, lead the existing control models to be mostly inadequate. The various aspects of interactive infrastructure networks present a number of theoretical and practical challenges in modelling, simulation, prediction, and analysis in coupled and uncoupled systems. These systems comprise an heterogeneous mixture of dynamic, interactive, and often non-linear entities, unscheduled discontinuities, and several other significant effects. Existing mathematical models of such systems are vague and no methodologies for the understanding of the behaviour of these complex networks exist. A new direction has to be imparted to technology to provide tools that might capitalize the most recent issues coming from different STREPs and different scientific areas (mainly physics, biology, maths). The science of complex systems is considered particularly relevant to the study of these systems, since their topological properties up to the modelling of their emerging behaviour. Additionally, in many complex networks, the human factor on one side results to be the most prone to errors, on the other side is, in turn, the most adaptable in management and recovery. Thus, modelling these networks will need to include the bounded rationality of actual human thinking, modelling the interactions between technological networks and social networks.
Unfortunately, the science of infrastructure interdependencies is relatively immature. It is our belief that in order to achieve further progress, one has to insure the contact between the practitioners in this field and between complexity research such as the STREPs.
The present WP is thus aimed at transferring knowledge forth and back between real technological applications, the theoretical work such as that of the STREPs, This is a multi-disciplinary approach where single specific entities, driven by rules belonging to given contexts (sociology, biology, communication engineering etc.) are described within some unifying operational model and, then, coupled to other entities for the building up of comprehensive model of some real-world compartment.
In particular, the activities proposed will be related to:
- creating a discussion forum within GIACS and between the STREPs to define the conceptual framework for the initiation of common research projects,
- ensuring that young researchers from either side (industry / university research) can be exposed, apply and be accepted in the appropriate frameworks of the other side,
- ensuring that the main problems of the industrial applications are exposed to the young complexity researchers in STREPs.
Instruments
Information will be required from the GIACS/STREPs partners and from industrial partners acting in the relevant areas. Based on this the researchers and the industries likely to interact will be invited to a meeting.
At this meeting, the possible common issues are to be presented to the scientific and technology communities in the frame of one of the dissemination workshops organized by GIACS, in a special session specifically devoted to this topic. The presentation will produce a first feedback providing further insights and connections between possible partners (possibly including major industrial members of the Italian Working Group on Critical Infrastructure Protection; among others Telecom Italia, the major operator of the Italian telecommunication network, GRTN, the operator of the Italian electricity network, RFI, the operator of the Italian railway network, plus representatives of different Ministries).
A further level of interaction will be supporting bilateral visits between likely coworkers from industry and STREPs.
Attachements
- ENEA first six months report
- ENEA second six months report
- ENEA third six months report
- ENEA fourth six months report
- ENEA Periodic Report 15.01.07-14.07.08
- GIACS WP3 periodic report
Deliverables:
- GIACS deliverable 3.1 - Gathering relevant data (people, institutions) for the possible cooperation industry-STREPS
- GIACS deliverable 3.2 - Support of visits leading to common Complexity PhD industry-STREPS.
- GIACS deliverable 3.3 - Session in workshop organized to put together complexity and technology for initiating common PhD projects: industry-STREPS
Selection of relevant papers for Complexity Science
Industrial Applications
- Cascade-based attacks on complex networks - Adilson E. Motter and Ying-Cheng Lai
- Modeling Blackout Dynamics in Power Transmission Networks with Simple Structure - B. A. Carreras, V. E. Lynch, M. L. Sachtjen, I. Dobson, D. E. Newman
- Statistical Physics of Vehicular Traffic and Some Related Systems - Debashish Chowdhury, Ludger Santen, Andreas Schadschneider
- Traffic and related self-driven many-particle systems - Dirk Helbing
- Effect of Congestion Costs on Shortest Paths Through Complex Networks - Douglas J. Ashton, Timothy C. Jarrett, and Neil F. Johnson
- Evaluating North American electric grid reliability using the Barabasi–Albert network model - David P. Chassin, Christian Posse
- A Spectral Analysis of the Internet Topology - Danica Vukadinovic, Polly Huang, Thomas Erlebach
- On the propagation of congestion waves in the Internet - Jozsef Steger, Peter Vaderna, Gabor Vattay
- Stability and Topology of Scale-Free Networks under Attack and Defense Strategies - Lazaros K. Gallos, Reuven Cohen, Panos Argyrakis, Armin Bunde, and Shlomo Havlin
- A dynamical model for the study of complex systems's interdependence - Limor Issacharoff, Sandro Bologna, Vittorio Rosato, Giovanni Dipoppa, Roberto Setola, Enrico Tronci
- Tolerance of scale-free networks against attack-induced cascades - Liang Zhao, Kwangho Park, Ying-Cheng Lai, and Nong Ye
- On Power-Law Relationships of the Internet Topology - Michalis Faloutsos, Petros Faloutsos, Christos Faloutsos
- A topological analysis ofthe Italian electric power grid - Paolo Crucitti, Vito Latora, Massimo Marchiori
- Small-world properties of the Indian railway network - Parongama Sen, Subinay Dasgupta, Arnab Chatterjee, P. A. Sreeram, G. Mukherjee, and S. S. Manna
- Structural vulnerability of the North American power grid - Reka Albert, Istvan Albert, and Gary L. Nakarado
- Statistical Mechanics of Complex Networks - Reka Albert and Albert-Laszlo Barabasi
- Scale-free behavior of the Internet global performance - R. Percacci and A. Vespignani
- Searching complex networks efficiently with minimal information - S. Carmi, R. Cohen and D. Dolev
- Scaling laws in the spatial structure of urban road networks - Stefan Lammer, Bjorn Gehlsen, Dirk Helbing
- k-core organization of complex networks - S. N. Dorogovtsev, A. V. Goltsev, and J. F. F. Mendes
- Vulnerability and protection of infrastructure networks - Vito Latora and Massimo Marchiori
- Topological properties of high-voltage electrical transmission networks - V. Rosato, S. Bologna, F. Tiriticco
- Influence of the topology on the power flux of the Italian high-voltage electrical network - V.Rosato, L.Issacharoff and S.Bologna
- Growth mechanisms of the AS-level Internet network - V. Rosato and F. Tiriticco
