Electronics for Scientists

Electronics for Scientists provides a practical and concise introduction to electrical circuits, signals, and instrumentation for undergraduate students in the physical sciences. It covers DC circuits, AC circuits, impedance, transfer function, noise, semiconductors, op-amps, digital circuits, and quantum computing. Worked examples and problems are provided to reinforce the material.

Format: Hardback
Length: 153 pages
Publication date: 06 September 2023
Publisher: Taylor & Francis Ltd

Electronics for Scientists is a comprehensive and practical introduction to electrical circuits, signals, and instrumentation for undergraduate students in the physical sciences. It offers a concise yet comprehensive coverage of these essential topics, ensuring a solid foundation in electronics for future scientific endeavors.

The book begins with a foundational exploration of DC circuits, delving into concepts such as voltage, current, resistance, and power. It then moves on to AC circuits, introducing the concept of impedance and its role in analyzing and designing AC circuits. The transfer function is introduced as a powerful tool for analyzing filter circuits, enabling students to understand their behavior and design characteristics.

The conversion between time-domain and frequency-domain signal representations is reviewed, providing students with the skills to analyze and interpret signals in both domains. Transmission lines are introduced as key components in microwave-frequency circuits, highlighting their unique characteristics and influencing design approaches.

The physics of semiconductors is explored, shedding light on the behavior of diodes and transistors. This knowledge is applied to analyze various diode and transistor circuits, enabling students to understand their operation and applications.

The operational amplifier (op-amp) is introduced as a versatile building block in electronic circuits. Students learn about its operation, gain, and noise characteristics, and explore its applications in amplifying signals and shaping waveforms. Techniques for quantifying noise in electrical measurements are described, emphasizing the importance of accurate and reliable measurements in scientific research.

Digital circuits, encompassing analog-to-digital conversion, logic gates, and digital memory circuits, are covered in depth. Students learn about the principles of digital logic and explore the design and implementation of digital circuits. The book concludes with a brief introduction to quantum computing, highlighting its potential applications in the field of physics and technology.

Designed for a one-semester course, Electronics for Scientists provides a well-structured and comprehensive coverage of the subject. It includes a wealth of worked examples and problems throughout the book, allowing students to apply their knowledge and reinforce their understanding of the topics. Each chapter concludes with a set of problems, encouraging students to think critically and solve practical engineering challenges.

The subject of electronics is fundamental to a wide range of scientific disciplines, including physics, chemistry, engineering, and computer science. By mastering the principles and applications of electronics, students gain the skills and knowledge needed to pursue advanced research and innovation in their chosen fields.

Electronics for Scientists is an invaluable resource for undergraduate students seeking to expand their electronics knowledge and expertise. Its concise yet comprehensive approach, coupled with practical examples and problem-solving exercises, makes it an ideal textbook for one-semester courses in electrical engineering, physics, or any related field. Whether you are a novice in electronics or seeking to deepen your understanding, this book will provide you with the foundation you need to succeed in your scientific endeavors.

Weight: 467g
Dimension: 234 x 156 (mm)
ISBN-13: 9781032528120