Rainer Glüge – författare

Fast alle Materialien weisen eine Mikrostruktur auf, die bei ingenieurmäßigen Berechnungsaufgaben nicht im Detail berücksichtigt werden können. Daher wurden Homogenisierungsmethoden entwickelt, die aus der Mikrostruktur und Phaseneigenschaften effektive Eigenschaften ableiten. Dieses Buch gibt einen Einstieg in dieses umfangreiche Thema: Die wichtigsten Methoden werden präsentiert und mit programmierten Beispielen untermauert.

Fast alle Materialien weisen eine Mikrostruktur auf, die bei ingenieurmäßigen Berechnungsaufgaben nicht im Detail berücksichtigt werden können. Daher wurden Homogenisierungsmethoden entwickelt, die aus der Mikrostruktur und Phaseneigenschaften effektive Eigenschaften ableiten. Dieses Buch gibt einen Einstieg in dieses umfangreiche Thema: Die wichtigsten Methoden werden präsentiert und mit programmierten Beispielen untermauert.

Almost all materials are inhomogeneous at the microscale. Typical examples are fiber- and grain structures made of anisotropic phases. These cannot be accounted for in detail in engineering calculations. Instead, effective, homogeneous material properties are used. These are obtained from the inhomogeneous structures by homogenization methods. This book provides a structured overview of the analytical homogenization methods, including the most common estimates, bounds, and Fourier methods. The focus is on linear and anisotropic constitutive relationships, like Hookean elasticity and Fourier’s law for thermal conduction. All sections are accompanied by example calculations, including program code that is also available online.

Almost all materials are inhomogeneous at the microscale. Typical examples are fiber- and grain structures made of anisotropic phases. These cannot be accounted for in detail in engineering calculations. Instead, effective, homogeneous material properties are used. These are obtained from the inhomogeneous structures by homogenization methods. This book provides a structured overview of the analytical homogenization methods, including the most common estimates, bounds, and Fourier methods. The focus is on linear and anisotropic constitutive relationships, like Hookean elasticity and Fourier’s law for thermal conduction. All sections are accompanied by example calculations, including program code that is also available online.

This textbook offers an introduction to modeling the mechanical behavior of solids within continuum mechanics and thermodynamics. To illustrate the fundamental principles, the book starts with an overview of the most important models in one dimension. Tensor calculus, which is called for in three-dimensional modeling, is concisely presented in the second part of the book. Once the reader is equipped with these essential mathematical tools, the third part of the book develops the foundations of continuum mechanics right from the beginning. Lastly, the book’s fourth part focuses on modeling the mechanics of materials and in particular elasticity, viscoelasticity and plasticity. Intended as an introductory textbook for students and for professionals interested in self-study, it also features numerous worked-out examples to aid in understanding.