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tipo de financiamento |
European Comission |
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programa |
FP6-NMP |
acrónimo/
referência |
FAME |
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referência alternative |
500159 |
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grupo(s) de investigação |
1 - nanomateriais inorgânicos funcionais e híbridos orgânico-inorgânico;
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departamento |
Chemistry (DQ) |
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período de execução |
2004-10-01 - 2008-09-30 (
48 Meses )
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resumo/
palavras-chave |
FAME will assemble, structure, integrate and expand a world class-team exhibiting a critical mass of researchers in multifunctional Hybrids and Ceramics remaining at the forefront of this emerging and strategically important family of materials technologies for tomorrow. Today the hybrids and ceramics communities are too fragmented to face up to the international competition.
Breakthroughs for smart and novel functions in these new materials will be developed leading to miniaturisation of devices, reduced use of raw materials, lower weight and less energy demand for operation. FAME will be used as a tool to create a virtual European Multifunctional Materials Institute having a legal organisational and financial structure. This goal will be achieved through:
A) a Joint Programme of Integration leading to the implementation of the Institute.
B) a Joint Programme of Research consisting of planning and execution Research Projects offering multidisciplinary interaction between chemists, physicists, biologists, theoreticians, materials scientists and engineers.
C) a Joint Programme of Spreading of Excellence involving a new European Master Programme in Multifunctional Materials including distance-learning. Raising Public Participation and Awareness will be strongly taken into account.
D) FAME, which assembles 18 partners, will be based on a strong management structure under a Governing Council and through operational boards: Durable Integration, Science & Research Processes, Spreading of Excellence, Management and Coordination Team.
The University of Bordeaux 1 will be the financial and administrative coordinator. About 190 researchers and 60 PhD students in 7 countries (Belgium, France, Germany, Spain, UK, Portugal, Israel) are involved in FAME. Provision is made for a few more research partners later. So far, 30 industrial companies have manifested their interest to participate to the FAME research and educational actions. |
coordenador
/ip local |
João Rocha |
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ciceco status |
Parceiro |
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instituíção proponente |
Université Bordeaux 1 |
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instituições participante(s) |
CENTRE NATIONAL DE LA RECHERCHE SCIENTIFIQUE; France; CONSEJO SUPERIOR DE INVESTIGACIONES CIENTIFICAS; Spain; FRAUNHOFER-GESELLSCHAFT ZUR FORDERUNG DER ANGEWANDTEN FORSCHUNG E.V.; Germany; INSTITUT NATIONAL POLYTECHNIQUE DE GRENOBLE; France; MAX-PLANCK-GESELLSCHAFT ZUR FORDERUNG DER WISSENSCHAFTEN; Germany; MAX-PLANCK-INSTITUT FUR KOHLENFORSCHUNG; Germany; TECHNISCHE UNIVERSITAT DARMSTADT; Germany; THE HEBREW UNIVERSITY OF JERUSALEM; Israel; THE UNIVERSITY OF LIVERPOOL; United Kingdom; THE UNIVERSITY OF SHEFFIELD; United Kingdom; THE UNIVERSITY OF ST. ANDREWS; United Kingdom; UNIVERSIDADE DE AVEIRO; Portugal; UNIVERSITAT AUGSBURG; Germany; UNIVERSITE CATHOLIQUE DE LOUVAIN; Belgium; UNIVERSITE DE LIEGE; Belgium; UNIVERSITY COMPLUTENSE MADRID; Spain; UNIVERSITY OF BRISTOL; United Kingdom
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participação industrial |
Não |
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parceiro(s) internacional |
Sim |
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orçamento total |
26.721.527€
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orçamento ciceco |
247.649€
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centro de custos |
3.89.28 |
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link |
http://cordis.europa.eu/project/rcn/74339_en.html
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Room temperature magnetoelectric coupling in a molecular ferroelectric ytterbium(III) complexLong, J; Ivanov, MS; Khomchenko, VA; Mamontova, E; Thibaud, JM; Rouquette, J; Beaudhuin, M; Granier, D; Ferreira, RAS; Carlos, LD; Donnadieu, B; Henriques, MSC; Paixao, JA; Guari, Y; Larionova, J
2020, SCIENCE, 367, 6478, 671-+.
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The role of Li+ in the upconversion emission enhancement of (YYbEr)(2)O-3 nanoparticlesDebasu, ML; Riedl, JC; Rocha, J; Carlos, LD
2018, NANOSCALE, 10, 33, 15799-15808.
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Poly(N-methacryloyl glycine)/nanocellulose composites as pH-sensitive systems for controlled release of diclofenacSaidi, L; Vilela, C; Oliveira, H; Silvestre, AJD; Freire, CSR
2017, CARBOHYDRATE POLYMERS, 169, 357-365.
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Probing the interaction of oppositely charged gold nanoparticles with DPPG and DPPC Langmuir monolayers as cell membrane modelsTorrano, AA; Pereira, AS; Oliveira, ON; Barros-Timmons, A
2013, COLLOIDS AND SURFACES B-BIOINTERFACES, 108, 120-126.
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Synthesis of nanopowders of the aluminum-substituted lanthanum gallate solid electrolyte by mechanochemical routeDomingues, EM; Goncalves, P; Figueiredo, FM
2012, SOLID STATE SCIENCES, 14, 7, 820-827.
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Nanoporous Piezo- and Ferroelectric Thin FilmsFerreira, P; Hou, RZ; Wu, AY; Willinger, MG; Vilarinho, PM; Mosa, J; Laberty-Robert, C; Boissiere, C; Grosso, D; Sanchez, C
2012, LANGMUIR, 28, 5, 2944-2949.
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A bifunctional luminescent single-ion magnet: towards correlation between luminescence studies and magnetic slow relaxation processesLong, J; Vallat, R; Ferreira, RAS; Carlos, LD; Paz, FAA; Guari, Y; Larionova, J
2012, CHEMICAL COMMUNICATIONS, 48, 80, 9974-9976.
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Relaxometric Studies of gamma-Fe2O3@SiO2 Core Shell Nanoparticles: When the Coating MattersPinho, SLC; Laurent, S; Rocha, J; Roch, A; Delville, MH; Mornet, S; Carlos, LD; Vander Elst, L; Muller, RN; Geraldes, CFGC
2012, JOURNAL OF PHYSICAL CHEMISTRY C, 116, 3, 2285-2291.
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Broadband spontaneous emission rate enhancement through the design of plasmonic nanoantennasVallee, RAL; Ferrie, M; Saadaoui, H; Ravaine, S
2012, OPTICAL MATERIALS EXPRESS, 2, 5, 566-577.
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Wavelength-dependent emission enhancement through the design of active plasmonic nanoantennasFerrie, M; Pinna, N; Ravaine, S; Vallee, RAL
2011, OPTICS EXPRESS, 19, 18, 17697-17712.
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Assessment of the electronic conductivity of core-shell, Fe-doped LSGM ceramics by impedance spectroscopyGomes, E; Mather, GC; Figueiredo, FM; Marques, FMB
2011, SOLID STATE IONICS, 193, 1, 11-17.
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Near-Infrared Luminescent and Magnetic Cyano-Bridged Coordination Polymers Nd(phen)(n)(DMF)(m)[M(CN)(8)] (M = Mo, W)Long, J; Chelebaeva, E; Larionova, J; Guari, Y; Ferreira, RAS; Carlos, LD; Paz, FAA; Trifonov, A; Guerin, C
2011, INORGANIC CHEMISTRY, 50, 20, 9924-9926.
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Influence of the neutralization process on the preparation of titanate nanotubes by hydrothermal synthesisMaxim, F; Ferreira, P; Vilarinho, PM
2011, JOURNAL OF POROUS MATERIALS, 18, 1, 37-45.
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Kinetic Study of the Static Hydrothermal Synthesis of BaTiO3 Using Titanate Nanotubes PrecursorsMaxim, F; Vilarinho, PM; Ferreira, P; Reaney, IM; Levin, I
2011, CRYSTAL GROWTH & DESIGN, 11, 8, 3358-3365.
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Macroscopic and nanoscale electrical properties of pulsed laser deposited (100) epitaxial lead-free Na0.5Bi0.5TiO3 thin filmsBousquet, M; Duclere, JR; Champeaux, C; Boulle, A; Marchet, P; Catherinot, A; Wu, A; Vilarinho, PM; Deputier, S; Guilloux-Viry, M; Crunteanu, A; Gautier, B; Albertini, D; Bachelet, C
2010, JOURNAL OF APPLIED PHYSICS, 107, 3,
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CoFe2O4-TiO2 and CoFe2O4-ZnO Thin Film Nanostructures Elaborated from Colloidal Chemistry and Atomic Layer DepositionClavel, G; Marichy, C; Willinger, MG; Ravaine, S; Zitoun, D; Pinna, N
2010, LANGMUIR, 26, 23, 18400-18407.
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Enhanced Photoluminescence Features of Rare Earth Phenylphosphonate Hybrid Nanostructures Synthesized under Nonaqueous ConditionsDi, WH; Ferreira, RAS; Willinger, MG; Ren, XG; Pinna, N
2010, JOURNAL OF PHYSICAL CHEMISTRY C, 114, 14, 6290-6297.
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Nonaqueous sol-gel chemistry applied to atomic layer deposition: tuning of photonic band gap properties of silica opalsMarichy, C; Dechezelles, JF; Willinger, MG; Pinna, N; Ravaine, S; Vallee, R
2010, NANOSCALE, 2, 5, 786-792.
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Additive-Assisted Aqueous Synthesis of BaTiO3 NanopowdersMaxim, F; Ferreira, P; Vilarinho, PM; Aimable, A; Bowen, P
2010, CRYSTAL GROWTH & DESIGN, 10, 9, 3996-4004.
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Eu3+-Assisted Short-Range Ordering of Photoluminescent Bridged SilsesquioxanesNobre, SS; Cattoen, X; Ferreira, RAS; Carcel, C; Bermudez, VD; Man, MWC; Carlos, LD
2010, CHEMISTRY OF MATERIALS, 22, 12, 3599-3609.
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