Semiconductor Materials: Silicon and Silicon Carbide Fundamentals

Modern electronics rely heavily on semiconductor materials that power everything from mobile devices to electric vehicles. As power demands and efficiency standards rise, next-generation wide-bandgap semiconductors like silicon carbide (SiC) are transforming the microelectronics industry. This text-based course guides you through the fundamental principles of semiconductors, comparing traditional silicon with silicon carbide to help you understand where and why each material is used. By working through clear written explanations and technical breakdowns, you will build a solid grounding in semiconductor physics and power electronics design considerations. What you will learn: - Understand core semiconductor physics, bandgap energy, and carrier transport principles - Compare the structural, thermal, and electrical properties of silicon and silicon carbide - Explore wide-bandgap advantages in high-voltage, high-temperature, and high-frequency environments - Examine key fabrication processes, wafer manufacturing challenges, and device architectures like SiC MOSFETs and diodes - Evaluate modern applications in power conversion, renewable energy systems, and electric drivetrains - Analyze industry trade-offs, thermal management techniques, and efficiency considerations The course starts with essential terminology and fundamental solid-state concepts before moving into material characterization and real-world engineering use cases. Designed for beginners, engineering students, and tech enthusiasts, no advanced background in materials science is required to get started. Begin reading today to discover the future of high-performance semiconductor technology.