The University of Zaragoza, sometimes referred to as Saragossa University is a university located in Zaragoza, in the Aragon region of Spain. Founded in 1542, it is one of the oldest universities in Spain, with a history dating back to the Roman period. The university has over 40,000 students in its 22 faculties. The university is the only public university in the region. Its activity is spread along the three provinces of Aragon, with teaching campuses and research centres in Huesca, Teruel and Zaragoza. Wikipedia.
Agency: European Commission | Branch: H2020 | Program: ECSEL-IA | Phase: ECSEL-02-2014 | Award Amount: 48.05M | Year: 2015
The goal of the InForMed project is to establish an integrated pilot line for medical devices. The pilot line includes micro-fabrication, assembly and even the fabrication of smart catheters. The heart of this chain is the micro-fabrication and assembly facility of Philips Innovation Services, which will be qualified for small/medium-scale production of medical devices. The pilot facility will be open to other users for pilot production and product validation. It is the aim of the pilot line: to safeguard and consolidate Europes strong position in traditional medical diagnostic equipment, to enable emerging markets - especially in smart minimally invasive instruments and point-of-care diagnostic equipment - and to stimulate the development of entirely new markets, by providing an industrial micro-fabrication and assembly facility where new materials can be processed and assembled. The pilot line will be integrated in a complete innovation value chain from technology concept to high-volume production and system qualification. Protocols will be developed to ensure an efficient technology transfer between the different links in the value chain. Six challenging demonstrators products will be realized that address societal challenges in: Hospital and Heuristic Care and Home care and well-being, and demonstrate the trend towards Smart Health solutions.
Agency: European Commission | Branch: H2020 | Program: MSCA-ITN-ETN | Phase: MSCA-ITN-2016 | Award Amount: 3.83M | Year: 2016
The European chemical industry faces some very serious challenges if it is to retain its competitive position in the global economy. The new industries setting up in Asia and the Near East are based on novel process-intensification concepts, leaving Europe desperately searching for a competitive edge. The transition from batch to continuous micro- and milliflow processing is essential to ensure a future for the European fine-chemicals and pharmaceuticals industries. However, despite the huge interest shown by both academia and industrial R&D, many challenges remain, such as the problems of reaction activation, channel clogging due to solids formation and the scaling up of these technologies to match the required throughput. COSMIC, the European Training Network for Continuous Sonication and Microwave Reactors, takes on these challenges by developing material- and energy-efficient continuous chemical processes for the synthesis of organic molecules and nanoparticles. The intersectoral and interdisciplinary COSMIC training network consists of leading universities and industry participants and trains 15 ESRs in the areas of flow technology, millifluidics and external energy fields (ultrasound and microwaves). These energy fields can be applied in structured, continuous milli-reactors for producing high-value-added chemicals with excellent yield efficiencies in terms of throughput, waste minimization and product quality that simply cannot be achieved with traditional batch-type chemical reactors. The chemical processes that are at the heart of COSMICs game-changing research are catalytic reactions and solids-forming reactions. COSMICs success, which is based on integrating chemistry, physics and process technology, will re-establish European leadership in this crucial field and provide it with highly trained young experts ready for dynamic careers in the European chemical industry.
Agency: European Commission | Branch: H2020 | Program: SGA-RIA | Phase: FETFLAGSHIP | Award Amount: 89.00M | Year: 2016
This project is the second in the series of EC-financed parts of the Graphene Flagship. The Graphene Flagship is a 10 year research and innovation endeavour with a total project cost of 1,000,000,000 euros, funded jointly by the European Commission and member states and associated countries. The first part of the Flagship was a 30-month Collaborative Project, Coordination and Support Action (CP-CSA) under the 7th framework program (2013-2016), while this and the following parts are implemented as Core Projects under the Horizon 2020 framework. The mission of the Graphene Flagship is to take graphene and related layered materials from a state of raw potential to a point where they can revolutionise multiple industries. This will bring a new dimension to future technology a faster, thinner, stronger, flexible, and broadband revolution. Our program will put Europe firmly at the heart of the process, with a manifold return on the EU investment, both in terms of technological innovation and economic growth. To realise this vision, we have brought together a larger European consortium with about 150 partners in 23 countries. The partners represent academia, research institutes and industries, which work closely together in 15 technical work packages and five supporting work packages covering the entire value chain from materials to components and systems. As time progresses, the centre of gravity of the Flagship moves towards applications, which is reflected in the increasing importance of the higher - system - levels of the value chain. In this first core project the main focus is on components and initial system level tasks. The first core project is divided into 4 divisions, which in turn comprise 3 to 5 work packages on related topics. A fifth, external division acts as a link to the parts of the Flagship that are funded by the member states and associated countries, or by other funding sources. This creates a collaborative framework for the entire Flagship.
Agency: European Commission | Branch: H2020 | Program: RIA | Phase: LCE-11-2015 | Award Amount: 5.99M | Year: 2016
WASTE2FUELS aims to develop next generation biofuel technologies capable of converting agrofood waste (AFW) streams into high quality biobutanol. Butanol is one of the most promising biofuels due to its superior fuel properties compared to current main biofuels, bioethanol and biodiesel. In addition to its ability to reduce carbon emissions, its higher energy content (almost 30% more than ethanol), its ability to blend with both gasoline and diesel, its lower risk of separation and corrosion, its resistance to water absorption, allowing it to be transported in pipes and carriers used by gasoline, it offers a very exciting advantage for adoption as engines require almost no modifications to use it. The main WASTE2FUELS innovations include: Development of novel pretreatment methods for converting AFW to an appropriate feedstock for biobutanol production thus dramatically enlarging current available biomass for biofuels production Genetically modified microorganisms for enhancing conversion efficiencies of the biobutanol fermentation process Coupled recovery and biofilm reactor systems for enhancing conversion efficiencies of Acetone-Butanol-Ethanol fermentation Development of new routes for biobutanol production via ethanol catalytic conversion Biobutanol engine tests and ecotoxicological assessment of the produced biobutanol Valorisation of the process by-products Development of an integrated model to optimise the waste-to-biofuel conversion and facilitate the industrial scale-up Process fingerprint analysis by environmental and techno-economic assessment Biomass supply chain study and design of a waste management strategy for rural development By valorising 50% of the unavoidable and undervalorised AFW as feedstock for biobutanol production, WASTE2FUELS could divert up to 45 M tonnes of food waste from EU landfills, preventing 18 M tonnes of GHG and saving almost 0.5 billion litres of fossil fuels.
Visbal R.,University of Zaragoza |
Gimeno M.C.,University of Zaragoza
Chemical Society Reviews | Year: 2014
This review covers the advances made in the synthesis of luminescent transition metal complexes containing N-heterocyclic carbene (NHC) ligands. The presence of a high field strength ligand such as an NHC in the complexes gives rise to high energy emissions, and consequently, to the desired blue colour needed for OLED applications. Furthermore, the great versatility of NHC ligands for structural modifications, together with the use of other ancillary ligands in the complex, provides numerous possibilities for the synthesis of phosphorescent materials, with emission colours over the entire visible spectra and potential future applications in fields such as photochemical water-splitting, chemosensors, dye-sensitised solar cells, oxygen sensors, and medicine. © 2014 the Partner Organisations.
Roubeau O.,University of Zaragoza
Chemistry - A European Journal | Year: 2012
One-dimensional coordination FeII polymers constructed through triple N1,N2-1,2,4-triazole bridges form a unique class of spin-crossover materials, the synthetic versatility of which allows tuning the spin-crossover properties, the design of gels, films, liquid crystals, and nanoparticles and single-particle addressing. This Minireview provides the first complete overview of these very attractive switchable materials and their most recent developments. The spin-crossover toolbox: A complete and concise overview of all the spin-crossover [Fe(Rtrz)3][A]x systems reported is provided (Rtrz is a 4-substituted-1,2,4-triazole; A=monovalent anion). The structural and magneto-optical properties of these one-dimensional coordination polymers are summarised, as well as their implementation into other phases of matter or nanostructured objects. The most relevant and recent developments based on this very attractive class of switchable materials are highlighted. Copyright © 2012 WILEY-VCH Verlag GmbH & Co. KGaA, Weinheim.
Laguna-Bercero M.A.,University of Zaragoza
Journal of Power Sources | Year: 2012
New and more efficient energy conversion systems are required in the near future, due in part to the increase in oil prices and demand and also due to global warming. Fuel cells and hybrid systems present a promising future but in order to meet the demand, high amounts of hydrogen will be required. Until now, probably the cleanest method of producing hydrogen has been water electrolysis. In this field, solid oxide electrolysis cells (SOEC) have attracted a great interest in the last few years, as they offer significant power and higher efficiencies compared to conventional low temperature electrolysers. Their applications, performances and material issues will be reviewed. © 2011 Elsevier B.V. All rights reserved.
Agency: European Commission | Branch: H2020 | Program: MSCA-RISE | Phase: MSCA-RISE-2016 | Award Amount: 711.00K | Year: 2017
Nowadays, among of the main challenges in the rational and efficient use of the energy, the energy harvesting, energy saving and energy conversion are key points in the research and application of electronic devices. The optimization of device performances making them more powerful with less energy consumption while keeping an affordable production cost is mandatory. The present project will address those challenges by means of designing suitable materials for implementing on devices able to reduce the energy consumption. Nanotechnology, Oxide and Superconducting Spintronics will be the competitive edge technologies triggering the interconnection and cooperation between international labs and technological companies, from Europe and overseas by means of sharing knowledge, cross-linked working and innovation, gaining capacities towards this mission. SPICOLOST project will tackle this challenge with two parallel approaches: i) with suitable heterostructures with high efficiency conversion of thermal energy in electricity, taking the advantage of harvesting, the so called thermoelectric thermopile device based on Seebeck and Spin Seebeck Effects; and ii) producing multicomponent nanostructured materials for magneto-electronic and superconducting devices capable of fast signal processing minimizing the energy dissipation by control the magnetic switching, and then consuming less energy. It is expected to produce advances in experimental fabrication processes, better control of interface properties of hybrid heterostructures and explaining them with suitable theoretical framework that conduct to novel discoveries due to the synergy between Superconducting and Spintronic.
Agency: European Commission | Branch: H2020 | Program: MSCA-ITN-EID | Phase: MSCA-ITN-2016 | Award Amount: 1.25M | Year: 2017
Bone injuries represent a high cost for the European health system, requiring corrective surgery to fix the bones. Traditionally, their treatment relies on classical orthopaedic techniques but, nowadays, it is possible to design and fabricate custom-made implants. Thanks to the current advance in image-based technologies, the reconstruction of models that are exact copies of patient specific bones is possible. Thus, this methodology is appropriate for preoperative surgical planning, but currently lacks of a predictive capacity. It presents a low impact for quantitatively determine the effectiveness of different treatments on bone regeneration and, consequently, the patient recovery. CURABONE aims to bridge this gap, integrating and extending numerical simulation technologies based on image analysis to achieve a predictive methodology, to optimize patient-specific treatment of bone injuries and rehabilitation therapies. Therefore, CURABONE will focus on the establishment of a currently non-existent, but essential multi-validation platform at different scale levels for the creation of bone models. At organ level, patient-specific loads will be quantified from image-based analysis and musculoskeletal rigid-body modelling. At implant level, Finite Element analyses (FEA) of bone and implant/scaffold will be evaluated. At cell level, in-vitro experiments will be developed under controlled microenvironmental conditions in bioreactors to estimate the cell response under different mechanical conditions. All this information obtained from validation at different scales will be integrated in a computational model with a predictive capacity. Hence, CURABONE will not only develop patient-specific musculoskeletal modelling based on FEA and bone adaptive algorithms, but will also bring a step-forward to validate these models at different scales together with supervision of different orthopaedic hospitals expert on bone injuries.
Agency: European Commission | Branch: H2020 | Program: MSCA-ITN-ETN | Phase: MSCA-ITN-2016 | Award Amount: 3.62M | Year: 2016
The energy crisis, environmental pollution and global warming are serious problems that are of great concern throughout the world. Around 40% of the worlds energy consumption is dedicated to the production of materials and chemicals. Thus, there is a need to develop high-performance materials based on renewable resources, simpler to synthesise and cost effective. Carbon materials derived from renewable resources (e.g., biomass) are ideal candidates to meet these needs. The main objective of our proposed Innovative Training Network is to develop new scientific knowledge, capability, technology, and commercial products for biomass-derived carbons (BCs); thus impacting the way that Europe uses and innovates with sustainable carbon materials. This will be accomplished through outstanding research and training programmes for fourteen early-stage researchers (ESRs). Our proposed research programme is feasible given the varied expertise and knowledge of the academic and industrial participants. We expect that GreenCarbon will improve our ability to rationally design a range of functionalised BC-derived materials using different individual and synergistically coupled processes and expand their practical applications. Our research programme comprehensively covers all aspects from precursors (the nature of biomass) to processing (thermochemical conversion, porosity development, chemical functionalisation) and application (e.g., CO2 capture, heterogeneous catalysis and chemicals from biomass) enabling a unique design of engineered sustainable BC materials. At the same time, our training programme is designed with the aim to empower the ESRs through the provision of a comprehensive and coherent training package, which includes complementary competencies and knowledge in all the science, engineering and business skills so as to be capable of deploying new technologies within different environments both inside and outside of academia.