Eric Le Bourhis – författare

Nanoindentation and nanotribology are fundamental, evolving, and complementary disciplines within materials science. In recent years there has been rapid convergence of the biomechanical and materials disciplines, as well as explosive growth of the nanotube and nanostructured materials fields. The expansion of nanomechanical testing into these new fields has been accompanied by similarly rapid growth in our understanding of, and ability to perform, mechanical tests with ever-smaller forces and displacements. The understanding of fundamental mechanical measurement techniques must continue to advance to design new systems and materials to meet the challenges of technology. This book is a snapshot of the state of the art in nanoindentation and nanotribology, and highlights emerging topics including the development of new methods for characterizing nanoscale mechanical and tribological properties. Additional topics include: size effects and indentation of thin films; nanotribology and friction; modeling, simulation and analysis of indentation data and nanomechanics of polymers, time-dependent characterization.

This book combines the proceedings of Mechanical Behavior of Nanomaterials - Experiments and Modeling, and Plasticity in Confined Volumes - Modeling and Experiments. These two symposia brought together researchers to exchange ideas about the mechanical behavior of materials where size, be it microstructural or geometric, plays an important role. Firstly it focuses on understanding the mechanical behavior of nanostructured materials, such as nanoscale thin films, nanowires, nanotubes, and nanoparticles, as well as nanoporous, nanograined and nanotwinned materials. Such materials with submicron length scales are important building blocks for next-generation functional devices and materials systems. The second focus is on understanding how micron and submicron external and internal microstructural-length scales play a defining role in the strength and ductility of a material. Modern simulation methods have revealed a diverse range of atomic and mesoscale processes that can contribute to the emergent plasticity of such complex materials. Topics include: nanostructured materials; polymers and composites; simulations and modeling and microcompression and nanoindentation.

The thirst for post-World War II justice transcended the Cold War and mobilized diverse social groups. This is a story of their multilayered and at times conflictual interactions.In this edited collection, sixteen historians develop a new approach to the trials against persons accused of war crimes and mass murder in Europe during the ascendancy of Nazism and the Second World War (1933-1945). Focusing on the social aspects of the demand for justice and making use of previously underexploited local and international sources, contributors put to the test the notion of "show trials" and explore a range of judicial and political cultures from Germany to the Soviet Union. Essays uncover the expectations around accountability and forms of mobilization on the part of a range of citizens involved in the trials: survivors, witnesses, perpetrators, Nazi hunters, and civic activists. In addition to the perspective of these citizens, contributors invoke the expertise of reporters, filmmakers, historians, investigators, and prosecutors who shaped public representations of justice. These shaping efforts, the authors show, often supported the desire of political authorities to benefit from the publicity of the trials and to contain the spontaneous dissemination of information. The book's close examination of interactions between citizens and authorities thus demonstrates the extent and limits of what might be called a "coproduction" of justice, in the process shedding light on the interdependence between historical knowledge and legal prosecution of mass crimes.

This is the first book to discuss the correlation between the performance of industrial processes and practice-relevant properties, such as strength and optical properties. Interdisciplinary in his approach, the author discusses both the science and technology, starting with glass past and present, its structure, and rheology. The sections on properties include mechanical strength and contact resistance, ageing, mechanics of glass processes, the production and control of residual stresses, high-tech producers and current research and development. Applications covered include glazing, packaging, optical glass, glass fibers for reinforcement, and abrasive tools.

Glass is a material with essentially unlimited application possibilities. This second edition of a comprehensive reference in glass science, points out the correlation between the performance of industrial processes and practice-relevant properties, such as strength and optical properties. Interdisciplinary in his approach, the author discusses both the science and technology, starting with an outline of history and applications, glass structure, and rheology. The sections on properties include mechanical strength and contact resistance, ageing, mechanics of glass processes, the production and control of residual stresses, high-tech products, and current research and development. Applications include glazing, packaging, optical glass, glass fibers for reinforcement, and abrasive tools. The development of touchscreen technology showed how important were the design and resistance of thin flexible glass and these new thin aluminosilicate glasses are also discussed.