Basic Instrumentation for Engineers and Physicists provides information pertinent to the fundamental aspects of instrumentation and measurements. This book discusses the method of building up an instrumentation system. Organized into eight chapters, this book begins with an overview of the instruments designed for use by human operatives that are usually of the visual reading type. This text then examines the common methods of length measurement by means of scales and by means of gauge blocks. Other chapters consider kilogram as the internationally recognized fundamental unit of mass, which is defined by a standard mass known as the International Prototype Kilogram. This book discusses as well the importance of precise determination of time. The final chapter deals with the assembly of apparatus appropriate for the measurements that have to be made in carrying out a specific project. This book is a valuable resource for engineers, physicists, scientists, students, and research workers.

This modern presentation comprehensively addresses the principal issues in modern instrumentation, but without attempting an encyclopaedic reference. It covers the most important topics in electronics, sensors, measurements and acquisition systems, and will be an indispensable reference for readers in a wide variety of disciplines.

This book is designed to be used at the advanced undergraduate and introductory graduate level in physics, applied physics and engineering physics. The objectives are to demonstrate the principles of experimental practice in physics and physics related engineering. The text shows how measurement, experiment design, signal processing and modern instru-mentation can be used most effectively. The emphasis is to review techniques in important areas of application so that a reader develops his or her own insight and knowledge to work with any instrument and its manual. Questions are provided throughout to assist the student towards this end. Laboratory practice in temperature measurement, optics, vacuum practice, electrical measurements and nuclear instrumentation is covered in detail.A Solution Manual will be provided for the instructors.

Electronics for Scientists provides comprehensive coverage of a vital part of modern science courses. This book will give students and experimentalists a thorough knowledge of the concepts involved and their applications to practical situations. The text is graded into three parts, and is illustrated with line diagrams, plots from circuit simulators and photographs from oscilloscope traces. Part One assumes very little prior knowledge of electronics and provides a foundation for the book. Recognising that in the fast-moving electronic instrumentation industry, most instruments have a market lifetime of only a few years, in Parts 2 and 3, descriptions of specific circuits are deliberately avoided. Instead the 'electronic building blocks' approach is adopted, so that any instrument, old or brand new, can be analysed on a functional basis. Electronics for Scientists will be essential reading for all undergraduate science students and experimentalists using commercially available electronic instruments or innovating their own instruments for specific applications.

This book was developed from material prepared for a course in instrumentation for final year mechanical engineering undergraduates. The approach used is to present instrumentation from the viewpoints of both electronics and signal analysis. The sensors and electronic circuits likely to be needed by a final year student project and for postgraduate research, are comprehensively covered. It forms a suitable degree-level text for students of engineering, science or medicine seeking a practical guide to instrumentation. It is also hoped that the book will be of use to practising engineers in general. The authors' aim throughout has been to write a book which guides the reader through the intricacies of specifying and selecting an instrumentation system, acquiring data without corrupting or distorting it in the process, and applying sensible signal analysis techniques. Examples and case studies are used to illustrate the techniques discussed, including many drawn from real-life instrumentation problems encountered by the authors in engineering, physics and medicine. The sequence of chapters follows the flow of data from the primary sensing element, through transduction, signal processing and digital conversion to digital signal analysis techniques. This logical sequence ensures that the design process is undertaken in the correct order, and provides continuity for the reader.