3 credits
Fall 2026 Lecture Upper Division
This course bridges fundamental quantum mechanics and modern microelectronics by exploring the core physics of semiconductor materials and devices. Students will investigate how the microscopic behavior of electrons determines the macroscopic electrical and optical properties of these essential materials. By connecting theoretical principles to real-world technologies, the course prepares students for advanced research and careers in the rapidly growing semiconductor industry.
Learning Outcomes1Calculate energy band structures and density of states for bulk and low-dimensional semiconductor materials, applying foundational principles of quantum mechanics to predict material behavior.
2Evaluate charge carrier statistics and quantum transport phenomena, and clearly express or present how different mechanisms impact the electrical behavior of intrinsic and doped semiconductors.
3Relate microscopic solid-state physics to the macroscopic operational parameters of foundational modern devices (like p-n junctions and field-effect transistors), connecting theoretical quantum concepts to real-world microelectronic applications.
4Understand the critical role of fundamental quantum physics in the advancement of modern semiconductor technology, recognizing why a rigorous, first-principles approach is necessary to overcome current bottlenecks in the microelectronics industry.
Prerequisites
made by Purdue students.