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Proyectos de Investigación

2018

Advanced instrumentation for world class microwave Photonics research

2018-2020 - Área: Fotónica - Grupo: Photonics Research Labs (PRL)

Este proyecto consiguió ampliar, mejorar y fortalecer al PRL en particular y al instituto iTEAM en general a través de la adquisición de instrumentación y equipamiento inventariable de última generación en el campo de la fotónica de microondas: - Equipamiento de test y medida para poder realizar investigación competitiva a escala mundial en el campo de las redes de comunicaciones móviles de quinta generación (5G). En particular, de equipamiento terminal de línea de radiofrecuencia operativo en las diferentes bandas de transmisión del espectro de RF asignado a la transmisión 5G compatible con dispositivos, componentes, subsistemas y sistemas de transmisión por fibra óptica y fotónicos. - Equipamiento para la realización de medidas y caracterización espectral vectorial óptica de chips fotónicos y componentes basados en fibra MCF y FMF que procesen señales de entrada de radiofrecuencia e inalámbricas de alta velocidad. - Instrumentación de medida para caracterizar de forma completa (Ganancia de RF, respuesta espectral en módulo y fase, Figura de Ruido y margen dinámico) enlaces y sistemas de MWP de muy alta frecuencia, en concreto hasta los 70 GHz (ampliable hasta los 110 GHz). - Ampliación de las capacidades de medida del laboratorio del PRL a partir de la adquisición de fuentes láser sintonizables y analizadores de espectro óptico que mejoren sustancialmente las prestaciones de los equipos ya existentes.
Proyecto IDIFEDER/2018/031 cofinanciado por la Unión Europea a través del Programa Operativo del Fondo Europeo de Desarrollo Regional (FEDER) de la Comunitat Valenciana 2014-2020

Monitorización de constantes vitales mediante textiles dotados con sensores ópticos avanzados (TEXTILSENS)

2018-2018 - Área: Fotónica - Grupo: Photonics Research Labs (PRL)

Con el desarrollo de este proyecto se obtuvo un prototipo de colchón capaz de monitorizar constantes vitales mediante la incorporación de sensores ópticos avanzados conectados a Fibras Ópticas Poliméricas personalizadas con geometría especial embebidas en el tejido principal. Con tal fin, se presentaron los siguientes objetivos específicos: - Realizar un mallado que identifique claramente la posición de cada uno de los puntos de sensado. Para ello se ha trabajado en un mallado irregular. - Optimizar del procesado de las señales recibidas. La lectura de unos sensores influye sobre los contiguos, de tal modo que un punto concreto de lectura depende también de los vecinos. Para obtener una medida válida de cada punto hay que procesar las señales de los contiguos y adaptarla al parámetro que se desea medir (p. ej. alguna constante vital como el ritmo cardiaco, velocidad de respiración, etc.) - Desarrollar sensores multi-paramétricos mediante fibras POF de perfiles personalizados obtenidos mediante extrusión monofilamento bi-componente. - Insertar la POF personalizada en el tejido principal del colchón. - Validar de la tecnología mediante la fabricación de un prototipo de colchón capaz de monitorizar constantes vitales para ser probado en condiciones relevantes a las reales operativas.
Proyecto INNVAL10/18/051 financiado por la Agencia Valenciana de Innovación

2017

2018

Dispositivos en fibras especiales multimodo/multinúcleo para redes de comunicaciones y aplicaciones de sensores (DIMENSION)

2018-2021 - Área: Fotónica - Grupo: Photonics Research Labs (PRL)

Global IP traffic will increase nearly threefold from 2016 to 2021. To avoid a 'capacity crunch', the researchers are striving to design network infrastructure that can carry more data, more efficiently than ever before and to reduce the energy footprint. The starting hypothesis taken by DIMENSION will be the consolidation and enhancement of the SDM technology (Spatial Division Multiplexing). DIMENSION will deal with the development of novel devices and techniques based on gratings and the benefits of the inherent parallelism SDM devices/fibres that can bring for the propagation and processing of signals (mainly focused on radio-over-fibre transmissions) and for novel techniques for sensors and spectroscopic measurements. The DIMENSION Project aims to develop novel devices and techniques based on multicore/multimode fibres and in-fibre gratings that can lead to systems with unprecedented performance, in order to meet the requirements of the ever increasing need of bandwidth and cost per bit reduction in optical networks and also for sensor applications. In doing so it addresses several challenges (Retos) as listed in the Plan Estatal de I+D+I. In particular it mainly targets the challenge Digital economy and society (Economía y Sociedad Digital). Optical networks based on SDM techniques and advanced remote sensor systems are instrumental to sustain the concept of internet of things, which lies at the heart of future internet (Internet del futuro). Specifically radio-over-fiber transmission and SDM fibres are a key enabler of 5G mobile systems and networks (Sistemas y redes móviles) but also of the concept of smart cities (Ciudades inteligentes) where citizens are permanently connected to services via wireless devices. In this last context, the advanced metrology techniques combining fiber optics and wireless systems are also fundamental as the can provide a low cost solution to continuous monitoring of civil structures and also environmental monitoring. The main technical objectives are: a) to develop concepts and benefits of space multiplexing for processing of analog and digital photonic signals and to support networking and new technologies for 5G front-hauling; b) to show that SDM technology can bring benefits to traditional applications that can take advantage for the inherent parallelism SDM devices/fibres like in: selected microwave applications including filtering, optical beamforming, generation of train of pulses and arbitrary waveform generation. c) to design and fabricate novel sensors using SDM technologies and to widen the range of application of optical fibre sensors; to implement novel fibre based spectroscopic measurement techniques for the characterization of sources that emit very weak signals.
Proyecto TEC2017-88029-R financiado por la Agencia Estatal de Investigación y cofinanciado con fondos europeos de desarrollo regional (FEDER).
Agencia Estatal de Investigación

5G for Connected and Automated Road Mobility in the European UnioN (5G-CARMEN)

2018-2021 - Área: Comunicaciones móviles - Grupo: Grupo de Comunicaciones Móviles (MCG) - Presupuesto : 600.000€

This project, funded by the European Commission, has progressed with relevant impact on research community, being declared the most active project on autonomous driving by the European Commission. The “Munich-Bologna corridor“, which covers 600 km of roads across three countries (Italy, Austria and Germany), is one of the most important corridors identified by the European Union for an initiative to improve the mobility of people and goods throughout Europe. As part of the 5G-CARMEN project, 5G technologies will be deployed along selected stretches of the motorway in the border regions.
This project has received funding from the European Horizon 2020 Programme for research, technological development and demonstration under grant agreement n° 825012 – 5G CARMEN

2017

2016

2017

BUILDING ON THE USE OF SPATIAL MULTIPLEXING 5G NETWORK INFRASTRUCTURES AND SHOWCASING ADVANCED TECHNOLOGIES AND NETWORK CAPABILITIES

2017-2020 - Área: Fotónica - Grupo: Photonics Research Labs (PRL)

The core concept of BlueSpace is to exploit the added value of Spatial Division Multiplexing (SDM) in the Radio Access Network (RAN) with efficient optical beamforming interface for the pragmatic Ka band wireless transmission band. Both being seamlessly integrable in next generation optical access networks infrastructures with massive beam steering capabilities and with flexible network management control. The main objectives targeted by the BlueSpace project are: to develop a truly viable and efficient path for 5G wireless communications with a 1000-fold increase in capacity, connectivity for over 1 billion users, strict latency control, and network software programming. BlueSpace targets a disruptive yet pragmatic approach for the deployment of scalable, reconfigurable and future-proof fronthaul solutions for 5G communications, offering unrivalled characteristics that include: a) increased bandwidth provision by naturally enabling and supporting massive multiple Input Multiple Output (MIMO) transmission starting/ending in the fiber medium by enabling space diversity in the RF domain by supporting RF beam steering in the photonic domain, b) compact infrastructure that is reconfigurable by means of Software Defined (SDN) and Network Function Virtualization (NFV) paradigms and c) the possibility of providing full integration with other existing approaches for the implementation of access networks, such as Passive Optical Networks (PONs). This approach relies on the core concept of this project, which is the introduction of Spatial Division Multiplexing (SDM) in the fronthaul of the mobile access network.
This project has received funding from the European Union’s Horizon 2020 research and innovation programme under grant agreement No 762055

Universal microwave photonics programmable processor for seamlessly interfacing wireless and optical ICT systems (UMWP-CHIP)

2017-2022 - Área: Fotónica - Grupo: Photonics Research Labs (PRL)

Information and communication technology (ICT) systems are expanding at an awesome pace in terms of capacity demand, number of connected end-users and required infrastructure. To cope with these rapidly increasing growth rates there is a need for a flexible, scalable, and future-proof solution for seamlessly interfacing the wireless and photonic segments of communication networks. RF or Microwave photonics (MWP) is the best positioned technology to provide the required flexible, adaptive, and future-proof physical layer with unrivalled characteristics. Its widespread use is however limited by the high-cost, non-compact and heavy nature of its systems. Integrated Microwave Photonics (IMWP) targets the incorporation of MWP functionalities in photonic chips to obtain cost-effective and reduced space, weight, and power consumption systems. IMWP has demonstrated some functionalities in through application specific photonic circuits (ASPICs), yielding almost as many technologies as applications and preventing cost-effective industrial manufacturing processes. A radically different approach is based on a universal or general-purpose programmable photonic integrated circuit (PIC) capable of performing with the same hardware architecture the main required functionalities. The aim of this project is the design, implementation and validation of such processor based on the novel concept of photonic waveguide mesh optical core and its integration in a Silicon Photonics chip. Its three specific objectives are: (1) The architecture design and optimization of a technology agnostic universal MWP programmable signal processor; (2) The chip mask design, fabrication, and testing of the processor; and (3) The experimental demonstration and validation of the processor. Targeting record values in bandwidth and footprint its potential impact will be very large by unlocking bandwidth bottlenecks and providing seamless interfacing of the fiber and wireless segments in future ICT systems.
This project has received funding from the European Union’s Horizon 2020 research and innovation programme under grant agreement No 741415