Microelectronic Devices and Circuit Analysis

Microelectronic circuits are the building blocks of all modern technology, from microprocessors to sensors. To design functional integrated circuits, you must first understand the fundamental semiconductor physics that governs device behavior. This course provides a comprehensive textual foundation in both device physics and circuit theory, enabling you to bridge the gap between theoretical semiconductor concepts and practical circuit analysis. You will develop the skills necessary to model, analyze, and predict the performance of basic transistor-based circuits. What you'll learn: * Understand the physical operation of P-N junctions, Bipolar Junction Transistors (BJTs), and Metal-Oxide-Semiconductor Field-Effect Transistors (MOSFETs). * Apply small-signal and large-signal modeling techniques to accurately analyze transistor behavior in various operating regions. * Design fundamental analog circuits, including single-ended and differential linear amplifiers. * Analyze the performance and limitations of basic digital logic gates implemented using modern CMOS technology. * Practice calculating key metrics like gain, input/output impedance, and power consumption for integrated circuit elements. * Examine the effects of device scaling and low-power design principles on modern microelectronic systems. The course begins by defining key semiconductor terminology and exploring device physics before introducing essential circuit models. We then move into practical analysis and design examples covering both analog and digital microelectronic applications. This course is designed for absolute beginners in electrical engineering or computer science with no prior background in semiconductor physics or circuit design. No prerequisites are required. Start building your expertise in the core technology driving the digital world.