Toulouse, France

Founded in 1969, the National Polytechnic Institute of Toulouse is a French university system based in Toulouse, France part of University of Toulouse.The Institute is composed of seven schools and 17 research laboratories. The Institute delivers Master's degrees and Ph.D. It is member of Institut au service du spatial, de ses applications et technologies. Wikipedia.

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Agency: Cordis | Branch: FP7 | Program: CPCSA | Phase: ICT-2013.9.9 | Award Amount: 74.61M | Year: 2013

This Flagship aims to take graphene and related layered materials from a state of raw potential to a point where they can revolutionize multiple industries from flexible, wearable and transparent electronics, to new energy applications and novel functional composites.\nOur main scientific and technological objectives in the different tiers of the value chain are to develop material technologies for ICT and beyond, identify new device concepts enabled by graphene and other layered materials, and integrate them to systems that provide new functionalities and open new application areas.\nThese objectives are supported by operative targets to bring together a large core consortium of European academic and industrial partners and to create a highly effective technology transfer highway, allowing industry to rapidly absorb and exploit new discoveries.\nThe Flagship will be aligned with European and national priorities to guarantee its successful long term operation and maximal impact on the national industrial and research communities.\nTogether, the scientific and technological objectives and operative targets will allow us to reach our societal goals: the Flagship will contribute to sustainable development by introducing new energy efficient and environmentally friendly products based on carbon and other abundant, safe and recyclable natural resources, and boost economic growth in Europe by creating new jobs and investment opportunities.

Agency: Cordis | Branch: H2020 | Program: RIA | Phase: LCE-11-2015 | Award Amount: 6.00M | Year: 2016

The business model currently under development for second generation ethanol is a replication of the model used for first generation which is plants with massive annual production capacities. Such high production rates require high capital investment and huge amounts of biomasses (250-350,000 tons per year) concentrated in small radius catchment areas to afford transportation costs (50 km). Under such conditions, opportunities for installing plants in most rural areas in Europe and worldwide are scarce. The objective of the project is to develop an alternative solution for the production of 2G ethanol, competitive at smaller industrial scale and therefore applicable to a large amount of countries, rural areas and feedstocks. The target is to reach technical, environmental and economical viabilities in production units processing at least 30,000 tons equivalent dry biomass per year. This approach will definitely enlarge the scope of biomass feedstocks exploitable for the production of biofuel and create better conditions for the deployment of production sites, to the benefit of rural areas in Europe and worldwide. The main concept underpinning the project relies on a new biomass conversion process able to run all the steps from the pretreatment of the raw material to the enzymatic pre-hydrolysis in one-stage-reactor under mild operating conditions. This new process recently developed to TRL 4, offers the most integrated and compact solution for the conversion of lignocellulosic biomass for the production of ethanol developed so far, and it will lead to reduced capital and operation expenditures. The new process will be developed to TRL 5 in the project with the goal of achieving satisfactory technical, environmental and economical performances in relevant operation environment. The project will investigate and select business cases for installations of demonstration/first-of-a-kind small-scale industrial plants in different European and Latino American countries.

The world demographic growth and global climate change are major challenges for human society,hence the need to design new strategies for maintaining high crop yield in unprecedented environmental conditions.The objective of TomGEM is to design new strategies aiming to maintain high yields of fruit and vegetables at harsh temperature conditions, using tomato as a reference fleshy fruit crop.As yield is a complex trait depending on successful completion of different steps of reproductive organ development, including flower differentiation and efficient flower fertilization,TomGEM will use trans-disciplinary approaches to investigate the impact of high temperature on these developmental processes.The core of the project deals with mining and phenotyping a vast range of genetic resources to identify cultivars/genotypes displaying yield stability and to uncover loci/genes controlling flower initiation,pollen fertility and fruit set.Moreover,since high yield and elevated temperatures can be detrimental to quality traits,TomGEM will also tackle the fruit quality issue.The goal is to provide new targets and novel strategies to foster breeding of new tomato cultivars with improved yield.The main strength of TomGEM resides in the use of unique and unexplored genetic resources available to members of the consortium.It gathers expert academic researchers and private actors committed to implement a multi-actor approach based on demand driven innovation.Tomato producers and breeders are strongly involved from design to implementation of the project and until the dissemination of results.TomGEM will provide new targets and novel strategies to foster the breeding of new tomato cultivars with improved yield under suboptimal temperature conditions.TomGEM will translate scientific insights into practical strategies for better handling of interactions between genotype,environment and management to offer holistic solutions to the challenge of increasing food quality and productivity.

Agency: Cordis | Branch: H2020 | Program: CSA | Phase: WASTE-4d-2015 | Award Amount: 1.50M | Year: 2015

Refractory metals (tungsten, tantalum, rhenium, molybdenum and niobium) are highly strategic metals today mainly imported from a few countries. The European primary production remains below a few percentage. However, resources exist in Europe, as primary resources but mainly as secondary resources (industrial waste, urban mines). Valorizing these resources requires coordination and networking between researchers, entrepreneurs and public authorities to harmonise technologies, processes and services, develop standards, create new potential for export of eco-innovative solutions and for seizing new markets MSP-REFRAM will address these challenges by creating of a common multi-stakeholder platform that will draw the current refractory metals value chains and identify its innovation potential in order to support the implementation of the EIP on Raw Materials. Coming from industry, research, public sectors and civil society, both Consortium Members and External Experts have joined forces with expertise covering the whole value chain including mining, processing, recycling, application. The outputs of MSP-REFRAM will help Europe improve the supply value chain of refractory metals in the coming years, optimising the use of external resources as energy and water and at the same time reducing the amount and the toxicity of waste. MSP-REFRAM will share its conclusions widely and efficiently, in a long lasting way thanks to the support of the PROMETIA association. To ensure the systemic change, the outcomes of the project will be made available to the stakeholders and to the public through different tools and reports. In the medium term, MSP-REFRAM will contribute to better-informed decision-making at EU and national level as well as industry by proposing innovative value chains that will boost the refractory metals sector. In the longer term, this should improve the availability of these refractory metals, while creating greater added value to the economy and more jobs.

Agency: Cordis | Branch: H2020 | Program: RIA | Phase: LCE-07-2016-2017 | Award Amount: 4.95M | Year: 2016

According to the Integrated Roadmap of the Set-plan, and to reach the new EU target of 27% of renewable energies in 2030, there is the need to rapidly expand the use of all renewable energy sources in Europe to accelerate the fight against global climate change. This requires the acceleration of development of new options that are emerging today, particularly, technologies that solve the key issue of energy storage. The next-CSP Project is a response to this need and addresses significant improvements in all three elements targeted by the LCE-07-2016 call related to concentrated solar power: heat transfer fluids, which can be used for direct thermal energy storage; the solar field; and high temperature receivers allowing for new cycles. The proposed fluidized particle-in-tube concept is a breakthrough innovation that opens the route to the development of a new generation of CSP plants allowing high efficiency new cycles (50% and more) and 20% improvement of CSP plant efficiency. The Next-CSP technology that cumulates the know-how acquired during the CSP2 FP7 EU project on the particle-in-tube technology can be rapidly cost-competitive and introduced in the market. A cost reduction by 38% is expected with respect to current CSP electricity cost. The project will demonstrate at industrial pilot scale (TRL5) the validity of the particle-in-tube concept atop the Themis facility solar tower. A 4-MWth tubular solar receiver able to heat particles up to 800C will be constructed and tested as well as the rest of the loop: a two-tank particle heat storage and a particle-to-pressurized air heat exchanger coupled to a 1.2 MWel gas turbine. A commercial scale power plant (150 MWel) will also be designed on the basis of experimental and simulation results and associated costs assessed. The consortium includes 6 companies that will lead the development of the first worldwide demonstration of this innovative technology and pave the way for future commercial exploitation.

Agency: Cordis | Branch: H2020 | Program: IA | Phase: ICT-21-2016 | Award Amount: 1.29M | Year: 2016

Modern film production relies heavily on digital acquisition and transformation. Blending real-world cinematography and computer graphics necessitates a tight integration between the shooting set and post-production. Today, editing and color grading are more and more frequently initiated directly on set to enable interactions between the shooting crew and the creative team. To facilitate communication between live-action production and digital post-production, a new discipline has emerged, collectively known as on-set data acquisition. There is also an obvious need for efficient tools to check consistency of the data recorded, especially since the number of supporting capture devices and the ways of exploiting them is growing quickly. For visual effects (VFX), one of the most important aspects is the acquisition of dense and accurate 3D data from real-world sets and locations. Capturing specific data on set for VFX is a delicate balance between the requirements of VFX facilities and the practical realities of tight shooting schedules and limited budgets. To smooth the collaboration between all teams on set, LADIO delivers a new platform that will be tested incrementally on real productions during the project. LADIO extends 3D acquisition of the set and centralizes management of all data recorded during the shooting session. It relies on soft- and hardware connectors to capture devices, including new affordable 360 cameras and LiDARs, and interacts with production tools both on set and off set. The LADIO application proposes an original approach to monitor all data, metadata and production information. It keeps track of the temporal and spatial location of all the data. LADIOs decentralised data management and API rely on open standards, and its 3D reconstruction software will be released as open source. This is a game-changer for European SMEs who will achieve higher quality and more cost-effective VFX, based on a new streamlined production dataflow.

Agency: Cordis | Branch: H2020 | Program: IA | Phase: ICT-18-2014 | Award Amount: 1.30M | Year: 2015

European film makers are well-known for their creative innovation in selecting themes, their original way of storytelling and their art of cinematography. Like elsewhere in the world, they use computer-generated visual effects to achieve the intended visual experience and quality. To achieve the best interaction between the creative team on set and the post-production team, it is important to achieve the best common understanding between the team filming real scenes and the team working on visual effects. For this, previz has been developed. Previz today contributes to film making from the planning stage to filming with actors on set, where the final composition of mixed reality scenes can be reviewed during and right after the shoot. Large film studios that produce films with the highest budgets take the final step and integrate previz with the final post-production. For this, they develop in-house tools or cooperate with a company that is dedicated to the previz concept. This integration remains unavailable to most film makers and provides a strong competitive advantage. Without the integration, a gap remains between the team filming real scenes and the team working on visual effects in post-production. POPART will introduce an affordable and highly customizable solution that will disrupt the market and overcome this lack of competition. It will democratize the access to a complete previz solution integrated into the pipeline from shooting preparation to post-production, that doesnt exist on the market. In contrast to the market lock-in solutions, all core elements required for real-time previz will be released in open source and will be based on open standards to provide an highly customizable solution. The product released by POPART will comprise hard- and software components. It will be available at an affordable price, help improve the processes for creative teams in Europe directly, and will stimulate research by providing core libraries in open source.

Thales Alenia, National Polytechnic Institute of Toulouse and French National Center for Scientific Research | Date: 2016-02-05

A method for equalizing a signal comprising modulated symbols comprising a block of N received symbols comprises: demultiplexing the N received symbols by factor L to generate a predetermined number L of sub-blocks of symbols, each comprising a version of the N received symbols sub-sampled by factor L, the independent equalization of each sub-block using an identical equalization algorithm, multiplexing the equalized symbols of each sub-block to obtain a block of N equalized symbols, removing instances of interference linked to paths other than two paths of higher power comprising generating an interference term resulting from the influence, on the equalized symbols, of all paths of the channel having the impulse response of the transmission channel except two paths of higher power, subtracting the interference term from the symbols of the block of N received symbols, and, a second equalization step equal to a second iteration of the first equalization step.

Agency: Cordis | Branch: FP7 | Program: CP-FP | Phase: NMP.2013.1.4-1 | Award Amount: 5.11M | Year: 2014

The objective of the NanoSim project is to create an efficient and cost effective multi-scale simulation platform based on free and open-source codes. This platform will connect models spanning a wide range of scales from the atomic scale through the particle and cluster scales, the industrial equipment scale and the full system scale. To support the information flow and data sharing between different simulation packages, the NanoSim project will develop an open and integrated framework for numerical design called Porto to be used and distributed in terms of the GNU Lesser General Public License (LGPL). A core co-simulation platform called COSI (also licensed as LGPL) will be established based on existing CFDEMcoupling (an open source particle and continuum modelling platform). To establish this software tool, the project will develop and improve models to describe the relevant phenomena at each scale, and will then implement them on the next coarser scale. This scientific coupling between scales will be supported by sophisticated software and data management in such a way that the actual model implementation in various software packages will be fully automatic. The resulting open source software platform will be used to facilitate the rational design of second generation gas-particle CO2 capture technologies based on nano-structured materials with a particular focus on Chemical Looping Reforming (CLR). However, the final NanoSim platform will be sufficiently generic for application in a wide range of gas-particle contacting processes. Finally, the NanoSim project will demonstrate the capabilities of this multi-scale software platform to custom design an industrial scale reactor/process in a way that most effectively leverages the superior reactivity and tailored selectivity of any specific nano-structured material. Such efficient process optimization capabilities will maximize the economic benefits of nano-structured materials through process intensification.

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