Agency: Cordis | Branch: FP7 | Program: CP-FP | Phase: SPA.2013.2.2-01 | Award Amount: 3.48M | Year: 2013
GANSAT GaN powered Ka-band high-efficiency multi-beam transceivers for SATellites GaN technologies appear to be a key element for the space industry. Their use in the power amplification stage of satellites will represent a significant progress versus actual designs and benefit to broadcast systems. In addition, the good noise feature opens the door to high performing low noise amplifiers and local oscillators used in broadband system. Last but not least the intrinsic robustness of the technology and the high integration of the equipments will enable the design of new advanced application using micro/mini satellites. The latter being the most challenging towards the technology has been chosen as the primary target of the GaNSat Project. The project addresses significant challenges in high-frequency high-power satellite radio transceivers: 1 - Enhanced robustness and functionality of radio transceivers at Ka band 2 - Space qualification of GaN MMICs 3 - High-efficiency high-power multi-beam active TX/RX antenna 4 - High-efficiency high-linearity PA 5 - New linearization technique
Agency: Cordis | Branch: FP7 | Program: CP-FP | Phase: SEC-2012.5.2-1 | Award Amount: 4.78M | Year: 2013
Public Protection and Disaster Relief (PPDR) agencies in EC member states are relying on digital Private Mobile Radio (PMR) networks for mission-critical voice and data communication. These networks are highly resilient and properly dimensioned to cope with crisis and emergency handling, and are well protected against monitoring and intrusion by means of encryption, authentication and integrity. The two main standards for digital PMR networks in Europe are TETRA (TErrestrial Trunked RAdio) and TETRAPOL.The majority of these networks are based on mature technology, requiring old-fashion synchronous links (backbone), and using proprietary hardware solutions that eventually become obsolete. These networks also provide limited inter-technology coverage providing very ineffective management of emergency events, both at the national level and in cross-border regions. The main goal of SALUS is to design, implement and evaluate a next generation communication network for Public Protection and Disaster Relief (PPDR) agencies, supported by network operators and industry, which will provide security, privacy, seamless mobility, QoS and reliability support for mission-critical PMR voice and broadband data services. The project covers the full techno-economic scope regarding development and deployment of the next generation PPDR networks by focusing on the integration with / migration to 4G wireless communications developments targeting three critical scenarios 1) city security, 2) disaster recovery, and 3) temporary protection. Salus will address key research challenges such as enterprise architectures, economic and business analysis, and a number of technical aspects concerning QoS, resilience, inter-systems handover (secure, seamless and fast), enhanced security, privacy mechanisms in heterogeneous network infrastructure, and multicast broadband PPDR services.
Agency: Cordis | Branch: FP7 | Program: MC-IEF | Phase: FP7-PEOPLE-2013-IEF | Award Amount: 147.21K | Year: 2014
Irreversible processes, such as resetting a logical register in a computer, result in heat dissipation. Landauers principle, linking information theory and thermodynamics, states that there is a minimum amount of heat dissipation, proportional to the reduction in the entropy of the logical register, imposed by the laws of thermodynamics. To possibly beat Landauers limit, we must first gain a better understanding of it. As quantum mechanics is our most fundamental theory of matter, such a deeper understanding of Landauers principle, which is based on classical physics, requires that it be reformulated in the quantum language. In this proposal we therefore aim to investigate how heat dissipation may be lowered beyond Landauers limit by utilising quantum mechanical phenomena, specifically that of quantum uncertainty. The objectives may be enumerated thusly: (i) Uncertainty in the form of environmental noise; (ii) Uncertainty by using non-orthogonal quantum states as the logical 0 and 1; (iii) The interplay between uncertainty and quantum correlations between the logical register and some third-party system. This project is very timely as it will fit into the emerging research area of quantum thermodynamics, while at the same time being original and innovative. It also has the potential for impact beyond fundamental science. According to the SMART2020 study, information and communications technologies (ICT) account for 2-5 % of global energy consumption; a number which will undoubtedly grow as ICT takes on a more prominent role in the global economy. According to recent studies, the minimum power dissipation per unit area of the fundamental building block of todays computers the CMOS FET transistor is orders of magnitude larger than Landauers limit. The ICT industry is therefore endeavouring to devise systems which will narrow this gap, a task which will benefit greatly from the ability to operate beyond Landauers limit.
Agency: Cordis | Branch: H2020 | Program: RIA | Phase: EUB-3-2015 | Award Amount: 1.50M | Year: 2016
FUTEBOL composes a federation of research infrastructure in Europe and Brazil, develops a supporting control framework, and conducts experimentation-based research in order to advance the state of telecommunications through the investigation of converged optical/wireless networks. Current wireless trends (cell densification, coordinated communication, massive MIMO) pose a new set of challenges that require the joint consideration of optical and wireless network architectures. These problems are of direct impact to emerging economies such as Brazil, with highly heterogeneous infrastructure capabilities and demand, as well as to more established markets such as the EU, which aims to regain its leadership in the next generation of telecommunication technologies. FUTEBOL establishes the research infrastructure to address these research challenges through innovation over this infrastructure, with a consortium of leading industrial and academic telecommunications institutions. In this capacity, the methodology of the FUTEBOL project is organized into three steps: i) the composition of federated research infrastructure suited for integrated optical/wireless experimentation, ii) the development of a converged control framework to support experimentation on the federated research infrastructure, and iii) the direct advancement of telecommunications through research using the developed research infrastructure and control framework. The steps of FUTEBOL relate to one another in a layered manner: the end-user driven advancement of telecommunications relies on the development of the FUTEBOL converged control framework, which, in turn, requires the composition of federated research infrastructure. In this way, FUTEBOL directly addresses the agreed priority areas of Brazil and Europe cooperation to guide future innovation in the area of ICT. By leveraging and extending the prior work of the FIRE programme and FIBRE project, FUTEBOL expedites industry-centric innovation.
Agency: Cordis | Branch: H2020 | Program: RIA | Phase: ICT-14-2014 | Award Amount: 5.66M | Year: 2015
The objective of SPEED-5G is to research and develop technologies that address the well-known challenges of predicted growth in mobile connections and traffic volume. A major challenge is the cost of meeting the objective, in terms of both infrastructure and deployment. Today, lack of dynamic control across wireless network resources is leading to unbalanced spectrum loads and a perceived capacity bottleneck. These will be solved by SPEED-5G through eDSA (extended DSA), which is resource management with three degrees of freedom: densification, rationalized traffic allocation over heterogeneous wireless technologies, and better load balancing across available spectrum. SPEED-5G will investigate indoor and indoor/outdoor scenarios where capacity demands are the highest, but also where the eDSA will be the most effective at exploiting co-operation across technologies and bands. The project will focus on two major innovations which are currently missing: resource management techniques across technology silos, and medium access technologies to address densification in mostly unplanned environments. It will leverage flexible radio approaches expected in 5G (e.g. FBMC). SPEED-5G has a very strong consortium, with a mix of operators, industrial partners, SMEs and leading European research institutes. They bring considerable knowledge and technology background to the project in architecture, resource management, protocols, radios, standardization, trials and tests, along with the most advanced of trial facilities, like the 5GIC centre. The SPEED-5G innovations will be considered in an architectural framework consistent with the 5GPPP. They will be researched, implemented and trialled in SPEED-5G in order to reach high level of maturity and confidence. This will guarantee impact on the 5GPPP program as a whole, on standards and on European technical leadership.