Soils are complex materials: they have a particulate structure and fluids can seep through pores, mechanically interacting with the solid skeleton. Moreover, at a microscopic level, the behaviour of the solid skeleton is highly unstable. External loadings are in fact taken by grain chains which are continuously destroyed and rebuilt. Many issues of modeling, even of the physical details of the phenomena, remain open, even obscure; de Gennes listed them not long ago in a critical review. However, despite physical complexities, soil mechanics has developed on the assumption that a soil can be seen as a continuum, or better yet as a medium obtained by the superposition of two and sometimes three con and the other fluids, which occupy the same portion of tinua, one solid space. Furthermore, relatively simple and robust constitutive laws were adopted to describe the stress-strain behaviour and the interaction between the solid and the fluid continua. The contrast between the intrinsic nature of soil and the simplistic engi neering approach is self-evident. When trying to describe more and more sophisticated phenomena (static liquefaction, strain localisation, cyclic mo bility, effects of diagenesis and weathering, ..... ), the nalve description of soil must be abandoned or, at least, improved. Higher order continua, incrementally non-linear laws, micromechanical considerations must be taken into account. A new world was opened, where basic mathematical questions (such as the choice of the best tools to model phenomena and the proof of the well-posedness of the consequent problems) could be addressed.
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Soils are complex materials: they have a particulate structure and fluids can seep through pores, mechanically interacting with the solid skeleton. Moreover, at a microscopic level, the behaviour of the solid skeleton is highly unstable. External loadings are in fact taken by grain chains which are continuously destroyed and rebuilt. Many issues of modeling, even of the physical details of the phenomena, remain open, even obscure; de Gennes listed them not long ago in a critical review. However, despite physical complexities, soil mechanics has developed on the assumption that a soil can be seen as a continuum, or better yet as a medium obtained by the superposition of two and sometimes three con and the other fluids, which occupy the same portion of tinua, one solid space. Furthermore, relatively simple and robust constitutive laws were adopted to describe the stress-strain behaviour and the interaction between the solid and the fluid continua. The contrast between the intrinsic nature of soil and the simplistic engi neering approach is self-evident. When trying to describe more and more sophisticated phenomena (static liquefaction, strain localisation, cyclic mo bility, effects of diagenesis and weathering, ..... ), the nalve description of soil must be abandoned or, at least, improved. Higher order continua, incrementally non-linear laws, micromechanical considerations must be taken into account. A new world was opened, where basic mathematical questions (such as the choice of the best tools to model phenomena and the proof of the well-posedness of the consequent problems) could be addressed.
The modeling of granular and porous materials in science and engineering affects a variety of problems that arise from the need to describe successfully the behavior of materials that exist naturally in our surroundings. Indeed, the modeling process is a critical tool in analyzing and describing the micromechanics and behavior of granular and porous material experimentation. This work covers all major topics in modeling soil behavior, including transport phenomena, namely: mechanics of porous and granular media, flow and transport phenomena in particulate materials, and numerical simulation methods. The key features: scientists from different backgrounds, namely engineers and mathematicians who are interested in soil behavior, as well as experts in particulate material modeling, focus on the most important techniques and models currently in use, contributions are devoted to both the mathematical and engineering aspects of the subject and bring the reader to the frontiers of research, numerical models given for finite elastoplastic deformations. "Modeling and Mechanics of Granular and Porous Materials" is fairly unique in the literature. It may serve as both an excellent reference text or in seminars, appealing to graduate students, researchers and scientists in applied mathematics, continuum mechanics, finite element methods, solid mechanics, and hydraulics engineering. A good foundation in continuum mechanics is a prerequisite.
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Anbieter: Universitätsbuchhandlung Herta Hold GmbH, Berlin, Deutschland
2002th ed. 16 x 23 cm. 382 pages. Hardcover. Versand aus Deutschland / We dispatch from Germany via Air Mail. Einband bestoßen, daher Mängelexemplar gestempelt, sonst sehr guter Zustand. Imperfect copy due to slightly bumped cover, apart from this in very good condition. Stamped. Sprache: Englisch. Artikel-Nr. 6018VB
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Anbieter: Salish Sea Books, Bellingham, WA, USA
Hardcover. Zustand: Very Good. 0817642412 Very Good++; Hardcover; 2002, Birkhuser Boston Publishing; Very light wear to covers with "straight" edge-corners; Pages clean & unmarked; Tight binding with straight spine; Gray and light blue covers with title in white lettering; 384 pages; "Modeling and Mechanics of Granular and Porous Material," by Gianfranco Capriz, et al. Artikel-Nr. SKU-F9523509261
Anbieter: AHA-BUCH GmbH, Einbeck, Deutschland
Buch. Zustand: Neu. Druck auf Anfrage Neuware - Printed after ordering - Soils are complex materials: they have a particulate structure and fluids can seep through pores, mechanically interacting with the solid skeleton. Moreover, at a microscopic level, the behaviour of the solid skeleton is highly unstable. External loadings are in fact taken by grain chains which are continuously destroyed and rebuilt. Many issues of modeling, even of the physical details of the phenomena, remain open, even obscure; de Gennes listed them not long ago in a critical review. However, despite physical complexities, soil mechanics has developed on the assumption that a soil can be seen as a continuum, or better yet as a medium obtained by the superposition of two and sometimes three con and the other fluids, which occupy the same portion of tinua, one solid space. Furthermore, relatively simple and robust constitutive laws were adopted to describe the stress-strain behaviour and the interaction between the solid and the fluid continua. The contrast between the intrinsic nature of soil and the simplistic engi neering approach is self-evident. When trying to describe more and more sophisticated phenomena (static liquefaction, strain localisation, cyclic mo bility, effects of diagenesis and weathering, . ), the nalve description of soil must be abandoned or, at least, improved. Higher order continua, incrementally non-linear laws, micromechanical considerations must be taken into account. A new world was opened, where basic mathematical questions (such as the choice of the best tools to model phenomena and the proof of the well-posedness of the consequent problems) could be addressed. Artikel-Nr. 9780817642419
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Anbieter: Kennys Bookstore, Olney, MD, USA
Zustand: New. The modeling of granular and porous materials affects a variety of problems that arise from the need to describe the behavior of materials that exist naturally in our surroundings. This work covers various major topics in modeling soil behavior, including transport phenomena. Series: Modeling and Simulation in Science, Engineering and Technology. Num Pages: 382 pages, biography. BIC Classification: TGB; TGMD. Category: (P) Professional & Vocational; (UP) Postgraduate, Research & Scholarly. Dimension: 242 x 166 x 30. Weight in Grams: 732. . 2002. Hardback. . . . . Books ship from the US and Ireland. Artikel-Nr. V9780817642419