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The problem of rock mechanics and engineering is an old and new subject encountered by human beings in their struggle with nature for survival and development. To call it ancient means that it has a long history; however, speaking of it as brand-new refers to the continuous emergence of new problems and new situations in engineering practice, which is quite challenging. With the development of human engineering activities, the issues surrounding rock engineering are becoming more and more prominent, and the problems encountered are becoming more and more complex. In the practice of solving complex rock engineering, human beings have summarized many topics that are difficult to explain or solve with classical mechanics.
Technology: general issues --- History of engineering & technology --- kaolin --- cemented coal gangue-fly ash backfill sample --- mechanical properties --- macroscopic failure --- microstructure --- non-pillar coal mining --- crushed rocks --- compression test --- deformation characteristics --- lateral stress --- tunnel through fault --- concrete lining structure --- fault dislocation --- seismic deterioration effect --- dynamic contact force --- seismic damage analysis --- directions of incident waves --- slope topography --- amplification effects --- ground motions --- equivalent nodal forces --- tight sandstone gas reservoirs --- rock-physics template --- Biot–Rayleigh theory --- total porosity --- microcrack porosity --- n/a --- Biot-Rayleigh theory
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The problem of rock mechanics and engineering is an old and new subject encountered by human beings in their struggle with nature for survival and development. To call it ancient means that it has a long history; however, speaking of it as brand-new refers to the continuous emergence of new problems and new situations in engineering practice, which is quite challenging. With the development of human engineering activities, the issues surrounding rock engineering are becoming more and more prominent, and the problems encountered are becoming more and more complex. In the practice of solving complex rock engineering, human beings have summarized many topics that are difficult to explain or solve with classical mechanics.
kaolin --- cemented coal gangue-fly ash backfill sample --- mechanical properties --- macroscopic failure --- microstructure --- non-pillar coal mining --- crushed rocks --- compression test --- deformation characteristics --- lateral stress --- tunnel through fault --- concrete lining structure --- fault dislocation --- seismic deterioration effect --- dynamic contact force --- seismic damage analysis --- directions of incident waves --- slope topography --- amplification effects --- ground motions --- equivalent nodal forces --- tight sandstone gas reservoirs --- rock-physics template --- Biot–Rayleigh theory --- total porosity --- microcrack porosity --- n/a --- Biot-Rayleigh theory
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The problem of rock mechanics and engineering is an old and new subject encountered by human beings in their struggle with nature for survival and development. To call it ancient means that it has a long history; however, speaking of it as brand-new refers to the continuous emergence of new problems and new situations in engineering practice, which is quite challenging. With the development of human engineering activities, the issues surrounding rock engineering are becoming more and more prominent, and the problems encountered are becoming more and more complex. In the practice of solving complex rock engineering, human beings have summarized many topics that are difficult to explain or solve with classical mechanics.
Technology: general issues --- History of engineering & technology --- kaolin --- cemented coal gangue-fly ash backfill sample --- mechanical properties --- macroscopic failure --- microstructure --- non-pillar coal mining --- crushed rocks --- compression test --- deformation characteristics --- lateral stress --- tunnel through fault --- concrete lining structure --- fault dislocation --- seismic deterioration effect --- dynamic contact force --- seismic damage analysis --- directions of incident waves --- slope topography --- amplification effects --- ground motions --- equivalent nodal forces --- tight sandstone gas reservoirs --- rock-physics template --- Biot-Rayleigh theory --- total porosity --- microcrack porosity
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The numerical simulation of sheet metal forming processes has become an indispensable tool for the design of components and their forming processes. This role was attained due to the huge impact in reducing time to market and the cost of developing new components in industries ranging from automotive to packing, as well as enabling an improved understanding of the deformation mechanisms and their interaction with process parameters. Despite being a consolidated tool, its potential for application continues to be discovered with the continuous need to simulate more complex processes, including the integration of the various processes involved in the production of a sheet metal component and the analysis of in-service behavior. The quest for more robust and sustainable processes has also changed its deterministic character into stochastic to be able to consider the scatter in mechanical properties induced by previous manufacturing processes. Faced with these challenges, this Special Issue presents scientific advances in the development of numerical tools that improve the prediction results for conventional forming process, enable the development of new forming processes, or contribute to the integration of several manufacturing processes, highlighting the growing multidisciplinary characteristic of this field.
n/a --- hardening --- modeling --- direct forming --- forming limit curve --- depth-sensing indentation --- stamping --- finite element method --- similitude --- the bathtub model --- boron steel --- plastic anisotropy --- physical experiment --- robustness evaluation --- cold deep drawing --- hardening law --- formability --- magnetic-pulse forming --- hot deep drawing --- metallic bipolar plate --- parameters identification --- finite element simulation --- mechanical properties --- hardness --- deformation characteristics --- continuum damage mechanics --- yield function --- Knoop indenter --- Young’s modulus --- damage --- 3D adaptive remeshing --- springback --- bake hardening --- Johnson–Cook material model --- anisotropy --- indirect forming --- ductile damage --- steel sheet --- mechanical modeling --- fracture behavior --- fuel cells --- dent resistance --- numerical simulation --- mixed hardening --- M-K theory --- uniform deformation --- non-proportional loading paths --- high-frequency oscillation --- gas detonation forming --- yield locus --- sheet metal forming --- inhomogeneity --- TA32 titanium alloy --- aluminium alloy formability --- Young's modulus --- Johnson-Cook material model
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This Special Issue and Book, ‘Latest Hydroforming Technology of Metallic Tubes and Sheets’, includes 16 papers, which cover the state of the art of forming technologies in the relevant topics in the field. The technologies and methodologies presented in these papers will be very helpful for scientists, engineers, and technicians in product development or forming technology innovation related to tube hydroforming processes.
Technology: general issues --- tube hydroforming --- small-diameter tube --- magnesium alloy --- warm working --- deformation characteristics --- forming defects --- forming limit --- bellows forming --- vision-based sensor --- fuzzy control --- semi-dieless forming --- local heating --- metal spinning --- tube forming --- incremental forming --- numerical control --- hydroforming --- overlapping blank --- variable-diameter part --- thickness --- ultra-thin walled tube --- tube bending --- laminated mandrel --- rotary draw bending --- Finite Element Analysis (FEA) --- deformation property --- lightweight structure --- bending --- formability --- numerical methods --- processing technology --- crash safety --- hot bending --- partial-quench --- FEM --- strip friction test --- friction coefficient --- surface roughness --- sliding speed --- contact pressure --- movable die --- loading path --- finite element simulation --- irregular bellows --- metal tube --- planetary ball dies --- diameter reduction process --- forming limits --- biaxial stretching --- forming limit measurement --- experimental design --- strain rate sensitivity --- elevated temperatures --- pneumatic forming --- drawing --- flaring --- tube expansion --- plug drawing --- thickness reduction --- hydro-flanging --- punch head shape --- finite element analysis --- alumimum alloy --- tube bulging test --- formability test --- biaxial strain --- local rubber bulging --- cutout shape --- slit length --- two-layer tube --- rigid plasticity --- arbitrary yield criterion --- arbitrary hardening law --- analytic solution --- magnesium alloy tube --- warm hydroforming --- non-uniform temperature field --- protrusion type forming --- wall thickness distribution --- coupled thermal-structural analysis --- optimization --- n/a
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This Special Issue and Book, ‘Latest Hydroforming Technology of Metallic Tubes and Sheets’, includes 16 papers, which cover the state of the art of forming technologies in the relevant topics in the field. The technologies and methodologies presented in these papers will be very helpful for scientists, engineers, and technicians in product development or forming technology innovation related to tube hydroforming processes.
tube hydroforming --- small-diameter tube --- magnesium alloy --- warm working --- deformation characteristics --- forming defects --- forming limit --- bellows forming --- vision-based sensor --- fuzzy control --- semi-dieless forming --- local heating --- metal spinning --- tube forming --- incremental forming --- numerical control --- hydroforming --- overlapping blank --- variable-diameter part --- thickness --- ultra-thin walled tube --- tube bending --- laminated mandrel --- rotary draw bending --- Finite Element Analysis (FEA) --- deformation property --- lightweight structure --- bending --- formability --- numerical methods --- processing technology --- crash safety --- hot bending --- partial-quench --- FEM --- strip friction test --- friction coefficient --- surface roughness --- sliding speed --- contact pressure --- movable die --- loading path --- finite element simulation --- irregular bellows --- metal tube --- planetary ball dies --- diameter reduction process --- forming limits --- biaxial stretching --- forming limit measurement --- experimental design --- strain rate sensitivity --- elevated temperatures --- pneumatic forming --- drawing --- flaring --- tube expansion --- plug drawing --- thickness reduction --- hydro-flanging --- punch head shape --- finite element analysis --- alumimum alloy --- tube bulging test --- formability test --- biaxial strain --- local rubber bulging --- cutout shape --- slit length --- two-layer tube --- rigid plasticity --- arbitrary yield criterion --- arbitrary hardening law --- analytic solution --- magnesium alloy tube --- warm hydroforming --- non-uniform temperature field --- protrusion type forming --- wall thickness distribution --- coupled thermal-structural analysis --- optimization --- n/a
Choose an application
This Special Issue and Book, ‘Latest Hydroforming Technology of Metallic Tubes and Sheets’, includes 16 papers, which cover the state of the art of forming technologies in the relevant topics in the field. The technologies and methodologies presented in these papers will be very helpful for scientists, engineers, and technicians in product development or forming technology innovation related to tube hydroforming processes.
Technology: general issues --- tube hydroforming --- small-diameter tube --- magnesium alloy --- warm working --- deformation characteristics --- forming defects --- forming limit --- bellows forming --- vision-based sensor --- fuzzy control --- semi-dieless forming --- local heating --- metal spinning --- tube forming --- incremental forming --- numerical control --- hydroforming --- overlapping blank --- variable-diameter part --- thickness --- ultra-thin walled tube --- tube bending --- laminated mandrel --- rotary draw bending --- Finite Element Analysis (FEA) --- deformation property --- lightweight structure --- bending --- formability --- numerical methods --- processing technology --- crash safety --- hot bending --- partial-quench --- FEM --- strip friction test --- friction coefficient --- surface roughness --- sliding speed --- contact pressure --- movable die --- loading path --- finite element simulation --- irregular bellows --- metal tube --- planetary ball dies --- diameter reduction process --- forming limits --- biaxial stretching --- forming limit measurement --- experimental design --- strain rate sensitivity --- elevated temperatures --- pneumatic forming --- drawing --- flaring --- tube expansion --- plug drawing --- thickness reduction --- hydro-flanging --- punch head shape --- finite element analysis --- alumimum alloy --- tube bulging test --- formability test --- biaxial strain --- local rubber bulging --- cutout shape --- slit length --- two-layer tube --- rigid plasticity --- arbitrary yield criterion --- arbitrary hardening law --- analytic solution --- magnesium alloy tube --- warm hydroforming --- non-uniform temperature field --- protrusion type forming --- wall thickness distribution --- coupled thermal-structural analysis --- optimization
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