Although the subject matter is a well established sub-set of undergraduate solid state physics, the main feature of this book is that it develops the concepts of quantum theory for the solid state from basics to a level beyond broader texts in a single, one-stop sourcebook. It is expected that the student will have acquired an appropriate knowledge of relevant mathematics and will have taken previous introductory courses in quantum mechanics and solid state physics. It applies and develops that knowledge further, to build an understanding of three of the most significant topics in solid state physics, namely semiconductors, magnetism and superconductivity. Additional quantum mechanics techniques, such as the variational method and perturbation theory, which are not usually found in introductory courses, are introduced and applied as required throughout the text, so that the material in the book is then suitable for a stand-alone final year course, covering the necessary physics from a basic to advanced level.

Although the subject matter is a well established sub-set of undergraduate solid state physics, the main feature of this book is that it develops the concepts of quantum theory for the solid state from basics to a level beyond broader texts in a single, one-stop sourcebook. It is expected that the student will have acquired an appropriate knowledge of relevant mathematics and will have taken previous introductory courses in quantum mechanics and solid state physics. It applies and develops that knowledge further, to build an understanding of three of the most significant topics in solid state physics, namely semiconductors, magnetism and superconductivity. Additional quantum mechanics techniques, such as the variational method and perturbation theory, which are not usually found in introductory courses, are introduced and applied as required throughout the text, so that the material in the book is then suitable for a stand-alone final year course, covering the necessary physics from a basic to advanced level.
Key Features:
* Priced especially for the Undergraduate/Master's student
* A unique book that develops the concepts of quantum theory for the solid state from basics to a level beyond much broader texts in a single-stop sourcebook
* Written specifically for a course in Quantum Theory at Undergraduate/Master's level

This book is a concise introduction to the experimental technicalities of low and ultralow temperature physics research. The author has made extensive use of diagrams as aids to understanding, and refers the reader to the professional literature at appropriate points in the text. The book begins with an introduction to the thermodynamic principles of refrigeration and thermometry. It covers the properties of fluid 3He/3He mixtures and the most important practical means of achieving low temperatures, including dilution and Pomeranchuk refrigeration and adiabatic nuclear demagnetisation. The basic introduction to the subject will be of value to postgraduate students beginning research in low temperature physics, and to seasoned researchers moving into the field. It could also be used by advanced undergraduates taking low temperature physics courses.

This book is a concise introduction to the experimental technicalities of low and ultralow temperature physics research. The author has made extensive use of diagrams as aids to understanding, and refers the reader to the professional literature at appropriate points in the text. The book begins with an introduction to the thermodynamic principles of refrigeration and thermometry. It covers the properties of fluid 3He/3He mixtures and the most important practical means of achieving low temperatures, including dilution and Pomeranchuk refrigeration and adiabatic nuclear demagnetisation. The basic introduction to the subject will be of value to postgraduate students beginning research in low temperature physics, and to seasoned researchers moving into the field. It could also be used by advanced undergraduates taking low temperature physics courses.