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Path Catalog
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This learning path provides a comprehensive understanding of the wafer fabrication process, from silicon crystal growth to final inspection. It covers the essential steps of crystal growth, wafer preparation (slicing, lapping, polishing, cleaning), and inspection, emphasizing the material science and engineering principles behind each stage. Designed for undergraduate engineering students, the path builds a solid foundation in semiconductor materials and processing.
This path explores the challenges in semiconductor material supply chains, focusing on critical materials like gallium, indium, and germanium. It covers the basics of semiconductor materials, the importance of critical materials, supply chain vulnerabilities, recycling technologies, and urban mining, culminating in a sustainability perspective.
This learning path equips undergraduate engineering students with the knowledge to evaluate how semiconductor devices contribute to energy efficiency across power electronics, LED lighting, and smart grid systems. It covers fundamental semiconductor physics, key devices, and their applications in energy conversion and management.
This learning path equips undergraduate engineering students with the knowledge to analyze the environmental footprint of semiconductor manufacturing. It covers water usage, chemical waste, energy consumption, and greenhouse gas emissions, culminating in green manufacturing strategies. Prerequisites include foundational semiconductor processing and environmental science concepts.
This learning path guides undergraduate engineering students through the fundamental physics and chemistry of semiconductor gas sensors. Starting with semiconductor basics and surface phenomena, it explores the sensing mechanisms of SnO2 and ZnO, and culminates in understanding sensitivity and selectivity in chemoresistive devices.
This learning path provides a systematic, graduate-level understanding of semiconductor materials and device physics essential for analyzing RF and microwave applications. It covers advanced concepts in compound semiconductors, heterostructures, and high-frequency device architectures such as HEMTs and SiGe HBTs, with a focus on the physics governing high-frequency performance.
This learning path guides undergraduate engineering students through the fundamental concepts and practical considerations needed to evaluate wide bandgap (WBG) semiconductors, specifically SiC and GaN, for power electronics applications. Starting with semiconductor physics and power device basics, it progresses to WBG material properties, device structures, and comparative analysis, culminating in a framework for material selection.
This path guides advanced undergraduate students through the fundamental physics and materials science of laser diodes, from basic semiconductor concepts to advanced device structures like quantum wells and VCSELs. It emphasizes the material and design principles that enable efficient light emission and lasing.
This learning path guides undergraduate engineering students through the physics and materials science of LEDs, from fundamental semiconductor concepts to advanced topics like GaN blue LEDs, InGaN quantum wells, and phosphor conversion. It emphasizes direct bandgap materials, optical transitions, and color tuning, with a focus on the material properties that enable efficient light emission.
This learning path guides undergraduate engineering students through the fundamental concepts needed to evaluate semiconductor materials for photovoltaic use. It covers semiconductor physics basics, optical properties, and an in-depth comparison of crystalline silicon, thin-film (CdTe, CIGS), and perovskite materials, focusing on bandgap optimization and light absorption.