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Luminiţa-Cristina Alil, Liviu Matache, Simona Maria Badea and Florin Ilie
In order to design and implement ballistic protective equipment, several common stages in developing any product must be taken (technical studies, technological demonstrators, prototypes, etc.). The final stage should be the testing-assessing of development phase, followed by the homologation of the product obtained, which is a compulsory stage. In order to characterize the properties of shock waves passing through various materials and media (air, water, materials for ballistic protection), certain techniques and working procedures were established. The most common method is testing in the shooting range where the real conditions of a detonation can be faithfully reproduced. Such tests, however, despite being the most accurate and reliable way to check the shock waves mitigation properties of materials, in addition to being extremely dangerous activities, most often require expensive materials and full-scale structures. In the first stage of development, the new materials have to be selected through the small scale tests performed in laboratory. This paper presents one test procedure that could be used to determine the capacity of the ballistic protection materials to mitigate the effects of the shock wave in laboratory conditions and at low cost.
Flooding due to extreme rain events in urban environments is a problem and a growing concern. There is an increasing demand for a new paradigm to improve flood-mitigation decision processes that calls for riskreduction strategies at several levels. Therefore is a challenge in assessing and comparing different flood mitigation measures. The aim of this paper is to explore a new method to improve an environmental impact assessment of flood-mitigation measures in decision processes by risk analysis method.
Borbála Gálos, Andreas Hänsler, Georg Kindermann, Diana Rechid, Kevin Sieck and Daniela Jacob
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BOISIER, J.P. - DE NOBLET-DUCOUDRÉ, N. - PITMAN, A.J. - CRUZ, F.T. - DELIRE, C. -VAN DEN HURK, B.J.J.M. - VAN DER MOLEN, M.K. - MÜLLER, C. - VOLDOIRE, A. (2012): Attributing the impacts of land-cover changes in temperate regions on surface temperature and heat fluxes to specific causes: Results from the