SISTEMAS HIBRIDOS DE PUNTOS DE CARBONO PARA APLICACIONES MULTIFOTONICAS
SUBPROJECT 2 OF PHOTOCD AIMS TO DECIPHER THE INTERRELATION BETWEEN STRUCTURE-PROPERTIES-FUNCTIONALITY OF THE HYBRID MATERIALS DEVELOPED IN SUBPROJECT 1. EVEN THOUGH, THE ADVANTAGES OF CARBON DOTS (CDS) HAVE ATTRACTED BROAD RESEARC...
ver más
Financiación
concedida
El organismo AGENCIA ESTATAL DE INVESTIGACIÓN notifico la concesión del proyecto
el día 2021-01-01
No tenemos la información de la convocatoria
0%
100%
Información adicional privada
No hay información privada compartida para este proyecto. Habla con el coordinador.
¿Tienes un proyecto y buscas un partner? Gracias a nuestro motor inteligente podemos recomendarte los mejores socios y ponerte en contacto con ellos. Te lo explicamos en este video
Proyectos interesantes
CTQ2017-84327-P
APLICACIONES AVANZADAS DE PUNTOS CUANTICOS DE GRAFENO Y NANO...
59K€
Cerrado
FIS2009-10325
NANO-ESTRUCTURAS Y MOLECULAS ORGANICA: SUS PROPIEDADES DE TR...
91K€
Cerrado
PID2019-104739GB-I00
NANOSCOPIA IN SITU EN MATERIALES DE BAJA DIMENSIONALIDAD: MO...
79K€
Cerrado
MAT2014-57646-P
DINAMICA ESTRUCTURAL EN MATERIALES HIBRIDOS: RELEVANCIA EN N...
188K€
Cerrado
Descripción del proyecto
SUBPROJECT 2 OF PHOTOCD AIMS TO DECIPHER THE INTERRELATION BETWEEN STRUCTURE-PROPERTIES-FUNCTIONALITY OF THE HYBRID MATERIALS DEVELOPED IN SUBPROJECT 1. EVEN THOUGH, THE ADVANTAGES OF CARBON DOTS (CDS) HAVE ATTRACTED BROAD RESEARCH INTEREST IN THE SCIENTIFIC COMMUNITY, THE KEY TO UNLOCK THEIR FULLY POTENTIAL APPLICABILITY STRUCTURE/CHEMICAL RELATIONSHIP IS STILL UNCLEAR. THE VAST EXPERIENCE OF THE SUBPROJECT 2 TEAM IN IN-DEPTH PHOTOPHYSICAL CHARACTERIZATION (EU-FP7 SACS, REFS:12J1719N, 12J1716N, S002019N, 1514220N, G.0B39.15, G.0B49.15, G098319N, AND ZW15 09-GOH6316 AND 11 PATENTS) HAS ALREADY SHOWN THAT UNRAVELLING THE OPTOELECTRONIC MECHANISMS IS ONE OF THE BEST APPROACH TO SURPASS THE MATERIALS LIMITATION (SCIENCE 2019, 365, 679684; NAT. MATER. 2016 159, 2016, 15 10171022; SCIENCE 2018, 361, 686690). BEARING THIS IN MIND, THE CORE OF THE SUBPROJECT WAS ESTABLISHED: UNDERSTAND AND RATIONALIZE THE STRUCTURE-PROPERTIES RELATIONSHIP OF THE NOVEL DESIGNED CDS AND THEIR COMPOSITES AIMING TO IMPROVE THE APPLICABILITY. ON THIS REGARD ULTRAFAST TIME-RESOLVED SPECTROSCOPIC AND TIME- AND SPACE-RESOLVED FLUORESCENCE MICROSCOPY TOGETHER WITH THE DEVELOPMENT OF THEORETICAL MODELS WILL ENABLE TO UNRAVEL ALL THE PROCESSES INVOLVED IN THE CDS-BASED PHOTOACTIVE MATERIALS. PARTICULAR ATTENTION WILL BE PAID TO UNDERSTAND THE ROLE OF THE HOST-GUEST INTERACTIONS (CDS-ZEOLITES/TITANIA) ON THE CHEMICAL/THERMAL STABILITY AND OPTOELECTRONIC PROPERTIES AS THEY WOULD BE THE BASIS ON WHICH THE RATIONAL DESIGN FOR OPTIMIZED CDS-BASED MATERIALS WILL BE CONSTRUCTED. THE BREAKDOWN OF THIS INFORMATION CREATES THE PERFECT FRAMEWORK TO FURTHER IMPROVE THE CURRENT LIGHT EMITTING AND SENSING APPLICABILITY IN TERMS OF EFFICIENCY, REPRODUCIBILITY AND STABILITY. ARBON DOTS\LIGHTING\SENSING\FOTONICA\MATERIALES FOTOACTIVOS\ZEOLITAS\TITANIAS\MATRICES INORGANICAS