
Impact Loading of Lightweight Structures
WIT Press
Published on 26. April 2005
Book
Hardback
624 pages
978-1-84564-159-7 (ISBN)
Description
This book features contributions from the International Conference on Impact Loading of Lightweight Structures. The topics covered are all relevant to the behaviour of Lightweight Structures subjected to various dynamic loads. Many leading researchers, from all over the world, contributed to this conference with articles on material characterisation, structural failure and crashworthiness, energy absorbing systems, experimental techniques, theoretical models and numerical analysis, each providing information on the design of modern, lightweight structures and contributing to a safer world.
More details
Language
English
Place of publication
Southampton
United Kingdom
Target group
Professional and scholarly
Illustrations
Illustrations
Dimensions
Height: 230 mm
ISBN-13
978-1-84564-159-7 (9781845641597)
Copyright in bibliographic data and cover images is held by Nielsen Book Services Limited or by the publishers or by their respective licensors: all rights reserved.
Schweitzer Classification
Content
Numerical analyses of bird impact on aircraft structures undergoing large deformations and localised failures; A methodology for scaling impacted structures; Determination of the location and mass of explosive in complex urban environment; Numerical-experimental study of steel plates subjected to blast loading; Birdstrike: approaches to the analysis of impacts with penetration; Mechanical models of cellular solids: parameters identification from experimental tests; An experimental investigation on nanocomposites under impact loading; Medium velocity impact on FRP composite panels; Modelling the dynamic failure of riveted joints in aerospace fuselages; The low velocity impact response of high-performance sandwich structures; Perforation of medium thick plate by a sharp projectile; Mechanics of lightweight aluminium foam wrapped in carbon fibre reinforced composites; Crashworthiness of automotive light materials: magnesium, aluminium and high strength steel; Simulation-driven design of helmets for head impact protection using an injury-based criterion; Experimental characterization and modelling of the inter-ply interface properties of fibre reinforced composite materials; Effects of friction on the ballistic performance of a high-strength fabric structure; High Velocity Impact Against Aeronautical Structures; Phase transition Taylor test; Modeling of deformation and tearing of clamped circular plates under uniform impulsive loads; Energy absorption effectiveness of thin-walled structures under static and dynamic axial crushing loads; Transition criteria between buckling modes of circular shells under axial impact; Behaviour of an automotive bumper beam-longitudinal system at 40% offset impact: an experimental and numerical study; Quantifying the behaviour of fibre metal laminates subject to localised blast loading; Failure of a reinforced concrete building under blast loads; Assessment of blast loads on structures; Analysis of foam claddings for blast alleviation; Finite element modelling of the crushing response of square carbon FRP tubes subjected to static and dynamic axial compression; Stochastic design improvement of a vehicle substructure in impact conditions; Numerical modelling of the early impact behaviour of multi-ply fabric armours; Material characterization and modeling of textured aluminum alloys used in a bumper system; Triaxial compression of aluminium foams; An efficient unit-cell based shell element for numerical modelling of fabrics under impact; Shock response and power spectrum analysis of a head actuator assembly; Static pressure loading of fibre-metal laminate plates; An experimental and numerical study of energy absorption in thin-walled high-strength steel sections; Study of a frontal bus impact against a rigid wall; Numerical investigation of the response of sandwich panels subject to blast loads; Dynamic response of Al-TRIP-steel and the constituent phases; Numerical study of the influence of the specimen geometry on split Hopkinson tensile test results; Simulation of high velocity impacts on thin metallic targets I (Element erosion); Simulation of high velocity impacts on thin metallic targets II (Discrete elements); Simulation of high velocity impacts on thin metallic targets III (SPH); Evaluation of a finite element modelling approach for welded aluminium structures