Agency: Cordis | Branch: FP7 | Program: CP-FP | Phase: SST-2007-4.1-01 | Award Amount: 2.79M | Year: 2008
ADVISE is a prenormative project for experimental validation of simulations of dynamic events using full-field optical methods of deformation measurement. These powerful tools are used in evaluating the performance, reliability, and safety of primary structures and for validating their computational design. Optimised design of primary structures leads to lighter and more energy efficient products that cost less, are more reliable and safer. Whilst in engineering modelling the analysis of homogeneous materials subject to impact has become fairly routine, recent advances have been made in modelling the impact of two-dimensional composites. ADVISE brings together advances in optical techniques with the developments in modelling composites in order to establish high levels of confidence through rigorous validation. Such an approach would represent a step change in the subject. The innovative aspects and objectives of the project are: development of reference materials that allow traceability and calibration of full-field optical methods of deformation measurement in cyclic, transient and non-linear dynamic events; optimisation of methodologies for both optical measurement and computational modelling and simulation of non-linear, transient dynamic events; contributions to standardisation activity for experimental validation of dynamic simulations. This represents the first attempt to provide a unified approach to experimental validation of engineering simulations of primary structures subject to dynamic processes, the development of reference materials for optical dynamic deformation measurement. The major contribution to standardisation through VAMAS TWA 26 ensures that the reference materials can become quickly accepted globally, thus providing worldwide traceability for validated designs leading to safer transport systems. Direct dissemination to the EU industrial base will be a priority to maximise the benefits of this research.
Agency: Cordis | Branch: FP7 | Program: JTI-CS | Phase: JTI-CS-2011-3-SFWA-02-019 | Award Amount: 799.12K | Year: 2013
The BirdStrike project aims to establish a validated bird strike analysis capability, which enables the SFWA partners to simulate bird impact on a CFRP leading edge for a NLF wing. This will be achieved by setting up a combined program of test and analysis to determine the extent of damage and criteria to be applied to analyses of leading edge panels for NLF wings. The main scientific and technical work comprises six main research objectives in agreement to the present Call for Proposals (CfP) topic: 1) Analysis of bird strikes on flat and representative curved panels at various angles of impact, using an existing bird impact model that will be provided by the SFWA Partners. 2) Design and analysis of a supporting frame for bird-strike impact tests on flat and representative curved panels. 3) Manufacturing of an agreed number of flat and representative curved panels that include supporting stringers, sparcaps or other structural features. 4) Completion of impact tests at various angles. 5) Validation of analyses and numerical models. 6) Delivery of a tool that can predict the extent of damage in a representative Composite LE geometry.
Agency: Cordis | Branch: FP7 | Program: BSG-SME | Phase: SME-2011-1 | Award Amount: 1.29M | Year: 2011
The CreepImage project will develop a digital image technique for long term measurement and monitoring of creep deformation of an engineering structure/component under harsh conditions (high temperature, irradiation etc) where direct sensor attachment and human access are difficult or dangerous. A high definition digital camera equipped with a suitable lens (macro, telescopic or telecentric lens) will be used to capture images of a grid on the component surface at various stages, and digital image correlation (DIC) will be used to calculate the deformation associated with creep behaviour of the component. The procedure is expected to be as follows: (1) Physically produce a grid on the surface of the structure. It serves as the information carrier from which deformation can be calculated by DIC. (2) Capture digital images of the grid at different stages. A reference plate with a stable known coefficient of thermal expansion (CTE) will be placed adjacent to the grid such that it can be imaged simultaneously. This permits automatic calibration without the need to keep the camera on site all the time. (3) DIC software will be used to calculate the overall deformation. Creep strain is obtained by subtracting the thermal deformation. The project work will be a laboratory based demonstration to validate the proposed techniques and to investigate the measurement capability (accuracy, repeatability etc). In addition to nuclear plants, other potential application areas include evaporators in a power plant.
Agency: Cordis | Branch: FP7 | Program: CSA-SA | Phase: NMP.2012.4.0-2 | Award Amount: 587.89K | Year: 2013
Engineering simulation is an essential feature of the design and manufacture of all engineered products at all scales. However such simulations are not routinely validated, at least in part because technology for rapid, cost-effect validations has not been available. Two previous projects, SPOTS and ADVISE have led to the development of appropriate technology. The goal of the VANESSA project is to establish the validation methodology and the associated calibration procedures within a standards framework and to promote the adoption of the methodology within the European industrial and scientific communities. It will deliver a CEN Workshop Agreement on the validation of computational solid mechanics models using strain fields from calibrated optical measurement systems. It is expected that this innovative approach to design validation will be taken up by EU industrial base leading to a strengthening of the position of European industry. The technical approach embedded in the validation process has the potential to stimulate improved quality control for the process chain from design, during production and certification, through to service and maintenance.
Agency: Cordis | Branch: FP7 | Program: CP-IP | Phase: GC.NMP.2012-2 | Award Amount: 13.42M | Year: 2012
Hybrid-EVs and Full-EVs on the market are products where the Internal-Combustion-Engine (ICE) is supplemented by an electric-motor (HEV) or replaced by an all-electric power-train (FEV). Both approaches do not address lightweight or modularity inheriting the same disadvantages as conventional ICEV - Electrification of mobility must face a conceptual rEVOLUTION! This project breaks the paradigm of current Body-in-White (BiW) by delegating the whole structural function to a novel BiW archetype made up of a Multifunctional-Rolling-Chassis (MRC) enabled by a new generation of highly-hybridized structural components and complemented by a non-structural upper-body. This MRC will be the common basis for a family of user friendly vehicles differing by changing only the upper-body according to the customer demand. Advanced materials will enable the development of novel super-lightweight hybrid components complying with safety standards and recycling constraints, and enable the design of the innovative MRC for FEV leading to a further weight reduction of 40% over that achieved using the current state of the art in the SuperLIGHT-CAR project. The EVolution goal is to demonstrate the sustainable production of a 600 kg weight FEV by the end of 2015. To this end EVolution addresses the whole vehicle by prototyping, assembling, and disassembling, the most representative components (MRC, crash cross-beam, crash box, suspension sub-frame, side-door, A-pillar, and a multifunctional-hard-top) made from raw polymers and aluminum alloys commonly used in the automotive industry, to ensure compliance with EC Directive 2000/53/EC End-of life vehicle which imposes stringent requirements on the disposal and recycling of motor vehicles. Guaranteeing the safety and regulatory compliance, with a weight saving of 50%, each component chosen will prove, mutatis mutandis, the revolutionary potential of the EV solution in all components employed today in current high volume production.