Fundamentals of Nanotransistors
Master the essential physics and technology of modern nanotransistors, from basic principles to advanced concepts in semiconductor devices.
Master the essential physics and technology of modern nanotransistors, from basic principles to advanced concepts in semiconductor devices.
This comprehensive course explores the fundamental physics and operation of nanoscale transistors, the backbone of modern electronics. Students learn about transistor fundamentals, MOS electrostatics, ballistic MOSFETs, and the Landauer Approach to electron transport. The course provides a conceptual framework for understanding nanotransistors, making complex physics accessible to students with basic semiconductor knowledge. Designed for both academic and professional audiences, it bridges theoretical understanding with practical applications in modern electronics.
Instructors:
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What you'll learn
Understand transistor fundamentals and device characteristics
Master MOS electrostatics in one and two dimensions
Analyze ballistic transport in nanotransistors
Apply the Landauer Approach to electron transport
Develop expertise in MOSFET transmission theory
Skills you'll gain
This course includes:
Live video
Graded assignments, exams
Access on Mobile, Tablet, Desktop
Limited Access access
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There are 4 modules in this course
This advanced course covers the essential physics and technology of nanotransistors, focusing on their operation at the nanoscale. The curriculum provides a comprehensive understanding of transistor fundamentals, MOS electrostatics, ballistic transport, and modern device modeling approaches. Students learn through a combination of theoretical concepts and practical applications, gaining insights into the latest developments in semiconductor device technology.
Transistor Fundamentals
Module 1 · 2 Weeks to complete
MOS Electrostatics
Module 2 · 2 Weeks to complete
The Ballistic Nanotransistor
Module 3 · 2 Weeks to complete
The Transmission Theory of the MOSFET
Module 4 · 2 Weeks to complete
Instructors
Pioneering Semiconductor Physics and Nanotechnology Educator
Mark S. Lundstrom is the Don and Carol Scifres Distinguished Professor of Electrical and Computer Engineering at Purdue University, whose groundbreaking contributions have revolutionized semiconductor device physics and nanoelectronics education. After earning his BEE and MSEE from the University of Minnesota (1973, 1974) and working in semiconductor industry, he completed his Ph.D. from Purdue (1980) where he later established himself as a leading figure in semiconductor physics and device simulation. His seminal works include four influential books on carrier transport and nanotransistors, while his creation of nanoHUB, a pioneering science gateway, has transformed global education in nanotechnology. As the founding director of the NEEDS initiative and a member of the U.S. National Academy of Engineering, his research has fundamentally advanced the understanding of nanoscale transistors and semiconductor device physics. His exceptional contributions have been recognized through numerous honors, including IEEE and APS fellowships, making him one of the most influential figures in semiconductor education and research.
Multidisciplinary Scholar Advancing Nanoelectronics Research
Evan Witkoske is pursuing his Ph.D. in Electrical Engineering at Purdue University under the mentorship of Professor Mark S. Lundstrom, building upon his impressive academic foundation that includes bachelor's degrees in Physics, Mathematics, and Statistics, complemented by minors in Electrical Engineering and Economics from the same institution. His research focuses on the cutting-edge field of nanoelectronics, specifically concentrating on the characterization and simulation of nanoscale Heterojunction Bipolar Transistors (HBTs). As a key contributor to the Nanoelectronics and Electron Device Simulation (NEEDS) program, he specializes in developing and reviewing compact models that advance the understanding of semiconductor device physics. His multidisciplinary background uniquely positions him to bridge the gap between theoretical physics and practical engineering applications, while his work as a Teaching Assistant allows him to share his expertise with the next generation of engineers and scientists.
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