Agency: Cordis | Branch: FP7 | Program: CP-FP | Phase: NMP.2012.3.0-1 | Award Amount: 4.49M | Year: 2012
The demand for biobased polymers is growing fast. According to the current state of the art, metal-containing catalysts are needed to improve the polymerisation rate of lactones, posing a hazard to health and the environment. InnoREX will develop a novel reactor concept using alternative energies for the continuous, highly precise, metal-free polymerisation of PLA. In InnoREX, metal-containing catalysts will be replaced by organic catalysts. These have been shown to efficiently control the polymerisation of lactide, but their activity must still be improved to meet industrial standards. This will be achieved by the low-intensity but highly-targeted application of alternative energies (microwaves, ultrasound, laser light). These energies increase catalyst activity and enable precise control of the reaction by exciting only small parts of the reaction mixture without response time. To ensure short market entry times commercially well-established co-rotating twin screw extruders will be used as reaction vessels. The reason commercial polymerisations are not yet carried out in twin screw extruders is the short residence time and the static energy input of the extruder, which allows no dynamic control of the reaction. Again, these obstacles will be overcome in InnoREX. The project will utilise the rapid response time of microwaves, ultrasound and laser light to achieve a precisely-controlled and efficient continuous polymerisation of high molecular weight PLA in a twin screw extruder. Additionally, significant energy savings will be achieved by combining polymerisation, compounding and shaping in one production step. For a deepened scientific and engineering understanding of the reaction, the effect of the alternative energies on the reaction kinetics and the potential applications for alternative energies in reactive extrusion, offline chemical and polymer analytics and online characterisation and simulation of the process within the reactor will be carried out.
Agency: Cordis | Branch: H2020 | Program: IA | Phase: NMP-15-2015 | Award Amount: 11.85M | Year: 2016
MATChING goal is the reduction of cooling water demand in the energy sector through innovative technological solutions, to be demonstrated in thermal and geothermal power plants. The project targets include an overall saving of water withdrawal of 30% in thermal power generation, and a decrease of evaporative losses up to 15% in geothermal sector. The use of advanced and nano-technology based materials will be leveraged to make economically affordable water saving in power plants and pave the way to the market uptake. All technological areas of plant cooling systems will be affected: cooling tower, steam condenser, cooling water circuit and water conditioning. The use of alternative cooling fluids will be investigated to develop advanced hybrid cooling towers for geothermal high temperature power plants, and hybrid cooled binary cycles for low temperature geothermal fields, combining dry/wet cooling, and closed loop groundwater cooling. To increase available effective water supply at reasonable costs, alternative water sources will be exploited: different membrane based technologies will be used to re-cycle or re-use municipal, process and blow down waters. To improve cooling equipment robustness advanced materials and coatings for cooling tower and condensers will be investigated, allowing increasing concentration cycles or directly using aggressive fluids. Demonstration will take place in partner-owned industrial sites, operating pilot plants in intended environment and/or in demo scale, guaranteeing the achievement of TRL 6 for all the technologies. The demonstration activities and the partnership composition ensures the validation of suitable business models and the finalization of business plans, guaranteeing the technological transfer from industry to market, increasing competitiveness at European level, and impacting on water use in power generation sector.
Agency: Cordis | Branch: FP7 | Program: CP | Phase: OCEAN 2013.3 | Award Amount: 9.97M | Year: 2013
The BYEFOULING project will address high volume production of low toxic and environmentally friendly antifouling coatings for mobile and stationary maritime applications. The technology will fulfil the coating requirements as a result of the incorporation of novel antifouling agents and a new set of binders into coating formulations for maritime transportation and fishing vessels, floating devices and aquaculture. The main vision of BYEFOULING is to provide the means for industrial, cost-effective and robust manufacturing of antifouling coatings in Europe, where SMEs are both coating components developers and production technology providers. A set of procedures, guidelines and fabrication tools will be developed, enabling short time to market for new coating concepts. The main goal of BYEFOULING is to design, develop and upscale antifouling coatings with enhanced performance compared to current available products. The approach in BYEFOULING is to tackle the different stages of the biofouling process using innovative antifouling agents, covering surface-structured materials, protein adsorption inhibitors, quorum sensing inhibitors, natural biocides and microorganisms with antifouling properties. Encapsulation of the innovative compounds in smart nanostructured materials will be implemented to optimize coating performance and cost all along their life cycle. A proof-of-concept for the most promising candidates will be developed and demonstrators will be produced and tested on fields. BYEFOULING will combine a multidisciplinary leading research team from 11 European countries, which are already acting worldwide in the scientific community, with highly relevant and skilled technological partners, to build a consortium able to develop a full production line for antifouling coatings in Europe. Readily available low toxic and cost-effective antifouling coatings will increase the efficiency of maritime industry and be the enabling technology to realize new products.
Agency: Cordis | Branch: FP7 | Program: CP-FP | Phase: AAT.2012.3.4-2. | Award Amount: 3.27M | Year: 2012
Inspection and Maintenance are important aspects when considering the availability of aircraft for revenue flights. Modern airframe design is exploiting new exciting developments in materials and structures to construct ever more efficient air vehicle able to enable smart maintenance including self-repair capabilities. The improvement in the aircraft safety by self-healing structures and protecting nanofillers is a revolutionary approach that should lead to the creation of novel generation of multifunctional aircraft materials with strongly desired properties and design flexibilities. In recent years, the development of new nanostructured materials has enabled an evolving shift from single purpose materials to multifunctional systems that can provide greater value than the base materials alone; these materials possess attributes beyond the basic strength and stiffness that typically drive the science and engineering of the material for structural systems. Structural materials can be designed to have integrated electrical, electromagnetic, flame resistance, regenerative ability and possibly other functionalities that work in synergy to provide advantages that reach beyond that of the sum of the individual capabilities. Materials of this kind have tremendous potential to impact future structural performance by reducing size, weight, cost, power consumption and complexity while improving efficiency, safety and versatility. Actually, also a very advanced design of an aircraft has to take required inspection intervals into account. An aircraft with inherent protective and smart abilities could help to significantly extend the inspection intervals, thereby increasing aircraft availability. The main objective of this EASN endorsed proposal is to develop and apply a multifunctional autonomically healing composite for aeronautic applications. The multifunctional composite systems will be developed with the aim of overcoming serious drawbacks of the composite materials.
Berezina N.,Materia Nova
New Biotechnology | Year: 2013
In the global context of increased concerns for our environment, the use of bioplastics as a replacement for existing petroleum-based polymers is an important challenge. Indeed, bioplastics hardly meet economical and technical constraints. One, of the most promising among currently studied bioplastics, is the polyhydroxyalkanoate (PHA). To circumvent the economical issue for this particular biopolymer one solution can be the enhancement of the overall productivity by the improvement of the nutritional medium of the microorganism producing the biopolymer. Thus, several nutrition media, supplemented or not with sodium glutamate, were tested for the growth and the PHA production by Cupriavidus necator DSM 545 strain. The most efficient for the biomass and the PHA production improvement were found to be the Luria broth (LB) and the Bonnarme's media, both supplemented with 10. g/L sodium glutamate. Hence the overall productivity was 33 times enhanced comparing to traditional cultivation methods. These results open a new route for the PHA production by C. necator which appears to be more suitable on a rich, or enriched, medium with no limiting factors. © 2012 Elsevier B.V.
Materia Nova and University of Mons | Date: 2011-01-26
A conventional polymer is grafted from a plasma polymer layer provided at a substrate surface by radical polymerisation initiated from plasma induced radicals present at or in the plasma polymer, particularly radicals provided during deposition of the plasma polymer.
University of Mons and Materia Nova | Date: 2014-12-01
The present invention relates to gas sensors, in particular, to an optical fibre sensor for measuring the presence and/or quantity of one of more gasses, the gas sensor comprising an optical fibre, and a gas sensitive detection material at a portion of the surface of the optical fibre, said gas sensitive detection material comprising a gas sensitive reactant and a porous matrix, wherein the gas sensitive detection material undergoes a reversible change of reflectance and/or absorbance at a detection wavelength when subjected to a gas to be detected.
Materia Nova | Date: 2013-11-06
The present invention concerns an electroconductive nanocomposite comprising a polyolefin matrix, carbon nanoparticles, and an additive, characterized in that, said additive is a thermoplastic elastomer selected from ethylene block copolymers or ethylene sequence copolymers. The nanocomposite of the present invention yields enhanced electrical conductivity and high impact strength with good thermal stability. A particularly preferred additive is SEPS.
Agency: Cordis | Branch: H2020 | Program: RIA | Phase: COMPET-03-2015 | Award Amount: 1.19M | Year: 2016
In the space industry, a growing demand is to make structures lighter, while optimizing the mass/stiffness/strength ratio.. To do so, the sandwich architecture appears to be the most efficient design. The main objective of Sandwich Material and Structure (SMS) project is then to develop an ultra-stable and low weight structure, based on such architecture. This optimized structure will combine innovative solutions such as cyanate-ester / pitch fiber Carbon Fiber Reinforced Polymer (CFRP) raw material, cyanate-ester / pitch fiber CFRP honeycomb and advanced joining solutions. To validate the performance of such assembly, SMS will work on a sandwich mirror structure use case.. The development of a groundbreaking joining solution, based on organic, inorganic or hybrid chemistry, will ensure optimal structural cohesion. The implementation of Zerodur skins to create the mirror will allow to measure optical performances and to characterize the stability of the structure. SMS work plan includes the identification of requirements at system and building blocks level, the development of European sourced cyanate-ester CFRP and CFRP honeycomb, the tuning of an efficient joining method and a Breadboard prototyping and tests. SMS project will ensure the compatibility of its developments with the European legislation and regulation, as well as foresee their up-scaling at industrial level and their dissemination towards research groups and SMEs. All the achievements will focus on developing a range of new space products from non-space low TRL technologies. At project end, SMS will achieve a Technological Readiness Level (TRL) 4-5, with the identification of the way forward to qualify and industrialize very large scale structures. SMS will be supported by a well-balanced and transdisciplinary consortium, with previous common experience in carrying out successful material and processes development projects.
Agency: Cordis | Branch: FP7 | Program: CSA-SA | Phase: FP7-PEOPLE-2012-NIGHT | Award Amount: 124.26K | Year: 2012
On the 28th of September 2012, Six events will be organized in five Belgian cities in the frame of the European Researchers night : Brussels (2); Charleroi, Lige, Louvain-la-Neuve and Mons. For this edition, 17 partners agreed to animate the different events on the theme of Science@home : How science, research and innovation are indispensable in a normal house, and how they will improve our daily life and our houses in the (near) future... This theme will enable the citizens to better understand and appreciate the work of researchers but also the role of innovation to transform research results in concrete (daily) applications. Before the night, young people will be invited through a wide communication campaign, to draw the house of the future and to come afterwards to the nearest organized event if they were close from reality ! Animations, games, experiments, discussions, films, and other activities will make this event dynamic. The interaction between researchers and visitors will enhance the recognition of the role of the researchers in society and in daily life. It will also promote the careers of researchers among the younger public. Finally, this will help the public to go beyond certain preconceptions about researchers and show that these are not odd characters stuck in a laboratory, but people like you and me.