Agency: Cordis | Branch: FP7 | Program: CP-FP | Phase: NMP.2012.2.1-3 | Award Amount: 6.20M | Year: 2013
Overall objective of the SHINE project is to develop a novel generation of elastomers that undergo spontaneous self-healing, leading to enhanced durability and reliability of the products made thereof (dynamic seals, shock absorbers, anti-vibration devices for vehicles, roads, railroads and bridges). The elastomers can heal without human intervention and can undergo multiple healing stages. They can prevent damage propagation by healing the microcracks or repair themselves in the case of accidental break. The objectives include also developing and standardizing test methods to quantify the efficiency and effectiveness of the self-healing process. The scientific and technical concept is based on the use of dynamic crosslinks both covalent and supramolecular (H-bonds and ionic interactions) that can be broken and reversibly reestablished to provide self-healing. Supported by the SHINE Exploitation Plan the new elastomers will be used to formulate, compound, manufacture and evaluate the final products as listed above. The results will be disseminated to initiate further research in this field. The products made by the self-healing elastomers will have prolonged lifetime, will increase reliability and enhance safety when used in vehicles, machinery and transportation infrastructure. The societal benefits are in reduction of roads incidents, injuries and fatalities, reduction in environmental pollution, and reduction of urban noise. The economic benefits include less road maintenance work, less traffic jams and waste of time associated with this, savings in energy and natural resources consumption, reduced machinery idle time due to frequent reparations, and reduced transportation costs, which will eventually improve the competitiveness of the European industry. A total of 574 person-months with project duration of 42 months are proposed for achieving the objectives of the project. SHINE has a budget of 6,2 million , with a requested EC funding of 3,9 million .
Agency: Cordis | Branch: H2020 | Program: MSCA-ITN-ETN | Phase: MSCA-ITN-2014-ETN | Award Amount: 3.61M | Year: 2015
Fluid dispersions containing highly elongated colloidal particles form a plethora of ordered, liquid-crystalline states as well as glassy and gel-like disordered states already at very low concentrations. In spite of their remarkable properties, industrial applications of such dispersions have entered the market only relatively recently, in contrast to more conventional low-molecular-weight, liquid-crystalline fluids for which the major practical applications are in opto-electronic device technology, e.g., in displays, optical imaging and smart glass. Important potential applications of colloidal liquid crystals can be found in the manufacturing of high-performance fibres and in fast moving consumer goods, such as foods and home and personal care. To accelerate their exploitation and market introduction, we seek to push the field in a new, innovative direction where rod-like colloidal particles of a very diverse nature are used to form structures with a well-defined direction: Directed Structure (DiStruc) at the mesoscopic level. Our focus will be on the role of confinement and flow, highly relevant to industrial applications. This will open avenues for a bottom-up, rational design of industrial processes, which is an important step to protect the competitive role of European industries on the global market. At the same time, scientifically novel physical phenomena will be explored protecting the leading role of Europe in the field of soft condensed matter. Importantly, it provides a training ground for the next generation of European researchers, unique in its interdisciplinary scope, covering physics, chemistry, biology, materials and engineering, its depth, creating a mind-set where experiments, theory and computer simulations go hand-in-hand, and its focus on the chain of knowledge from basic to applied research through close industrial involvement.