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34.1 MB
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E1228579143798091BB80BD99B6C61972187F617
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Aug. 12, 2025, 1:43 p.m.
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(Last updated: Aug. 12, 2025, 1:49 p.m.)
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| Borgarino M. Analog Microelectronics 2025.pdf | 34.1 MB |
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SOURCE: Borgarino M. Analog Microelectronics 2025
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MEDIAINFO
Textbook in PDF format This textbook uses an innovative, fresh and rigorous approach to the analysis of analog circuits. The author guides students to leverage the psycho-cognitive concept of basic pattern as an efficient calculation tool, going beyond its traditional use for the qualitative visual inspection. In this journey, the reader is not left alone to face statements such as “it is easy to prove that” or “it has been proven elsewhere that”. All formulas and theorems are proven step-by-step. In particular, the proofs of the theorems on frequency response and stability have been made as intuitive as possible. The author thus demystifies and makes available to the student these relevant theorems, which are usually scattered over decades of reading and/or in several textbooks and papers. Two chapters focus on exercises of increasing difficulty, most of them discussed fully and solved step-by-step, allowing students to strengthen and test their knowledge. Moreover, the first two chapters introduce the history of microelectronics and physics of fundamental electron devices. Analog electronics is the general subject of the book. Though the general concepts addressed apply also to circuits made of single discrete devices, the adopted approach better fit the analog microelectronics, in which the designer enjoys a large freedom degree in seizing active and passive devices. Vice versa, in the case of a circuit made of discrete devices, the designer picks the devices from a limited set of possible pre-seized components. The book is arranged in eight chapters. The first one is an historical journey on electronics, five chapters treat theory and two chapters are a collection of exercises. Six appendices, focused on the most particular mathematical proofs, complete the book. Chapter 1 relates on the different kinds of electronics conceived in the course of decades: point-contact, vacuum, pn junction, and field effect. In addition to the tale of trials, errors, ideas, serendipities and achievements, brief sections report, for each kind of electronics, the early military and civilian applications. In particular, for the pn junction and field effect electronics, the early examples of integrated circuits are also cited. Chapter 2 introduces the fundamental physics of the pn junction and field effect electronics (semiconductor or solid-state electronics) as conduction and valence bands, doping, and charge transport without, for the sake of a light treatise, invoking the Quantum Mechanics. Chapter 3 is devoted to single transistor circuits (Common Emitter, Common Base, Common Collector, Common Source, Common Gate, and Common Drain). The analysis moves from one single schematic, archetype for all the circuits with gain in the methodology and efficiency of learning. The achieved results are then applied to study multiple transistor circuits as the cascode, the current mirrors, and the differential amplifiers. Chapter 4 is a collection of exercises aimed to strengthen the ability of finding patterns and its application to the calculation. Chapter 5 is devoted to the time and frequency response of an electronic amplifier by means of the traditional Laplace and Fourier transforms that are also used to introduce the conditions for the physical feasibility of the circuit. Chapter 6 deals with the very general topic of the negative feedback. The exposition moves from the ideal feedback system, as usually presented in a course on the fundamentals of Automatic Controls, and later it complicates step by step the model until the application to electronic circuits becomes possible. Chapter 7 is a collection of fully discussed and solved exercises on concrete feedback electronic amplifiers. In particular, the discussion aims to strengthen the correct identification of the feedback type and to make emerge which limitations have to be expected in the application of the general two-port method to electronic circuits. Chapter 8 is dedicated to the main rules to investigate the stability of a negative feedback system (root locus, Routh-Hurwitz, Nyquist). The compensation of an electronic amplifier, with particular consideration for the Miller and lead techniques, ends the chapter. This book targets mainly students of Master Programs in Electronics Engineering and PhD students in Electronics Engineering or Physics. It may be adopted also for Bachelor Programs in Electronics Engineering, even if with the restraints and the caveats of the case. Since the adopted methodologies lead to more systematic and detailed achievements than those usually offered in many university textbooks, this book may also be a useful resource to the designer, who desires to review, in a more methodological and extended perspective, topics he already knows well. Preface Essential History of Electronics Transistors and Amplifiers Fundamental Patterns Exercises on Basic Patterns Frequency Response Feedback Examples of Feedback Amplifiers Feedback and Stability Appendix A: Fermi-Dirac Statistics Appendix B: Matrix Conversion for Two-Port Networks Appendix C: Bromwich-Mellin Integral Appendix D: Laplace and Fourier Transforms of the Unit Step Signal u(t) Appendix E: Kramers-Kronig Relations Appendix F: Sin(ωt) and cos(ωt) as a Conjugate Pair
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