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Mansun Chan

This online course is the later part of the Principle of Semiconductor Devices Professional Certificate Program.

MOSFET as the most important component in integrated circuits will be introduced in this course. We will explain the basic operating principle of MOS capacitor and its application in charge-coupled devices (CCD) and CMOS Active Pixel Sensor (APS) in modern digital cameras.

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This online course is the later part of the Principle of Semiconductor Devices Professional Certificate Program.

MOSFET as the most important component in integrated circuits will be introduced in this course. We will explain the basic operating principle of MOS capacitor and its application in charge-coupled devices (CCD) and CMOS Active Pixel Sensor (APS) in modern digital cameras.

Based on the MOS capacitor theory, different MOSFET operation regions, including strong inversion, subthreshold region, linear region, and saturation region, will be described. The deficiency of classical MOSFET theory and the need for more advanced mobility degradation and carrier velocity saturation theory will be elaborated.

To bridge the knowledge of transistors with practical applications, we will explain Moore’s Law and the approach to transistor scaling. Some specific features in modern MOSFETs including silicide, strain engineering, shallow junction, high-k gate dielectrics, metal gate stack, and their fabrication processes will be explained. The operating principle of advanced MOSFET structures, such as FinFET, nanowire transistors, gate-all-around MOSFET and 2D transistors, will also be introduced.

What's inside

Learning objectives

  • Visualize the charge and capacitance characteristics of mos capacitors
  • Describe the operation principle of charge couple devices and cmos active-pixel sensor to construct a digital camera
  • Calculate the current voltage characteristics of mosfets
  • Explain how the reduction of transistor dimensions and device scaling drive the technology development
  • Identify the most important parameters to control short channel effects
  • Construct short channel mosfets
  • Communication in the language of nano-cmos technology

Syllabus

Week 7: Final Exam
Week 1: MOS capacitor charges and capacitancesIntroduction to the MOS capacitor structures, its charge and capacitance characteristics
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Read about what's good
what should give you pause
and possible dealbreakers
Enables learners to visualize charge and capacitance characteristics of MOS capacitors
Develops learners' understanding of how to use MOS capacitors in modern digital cameras and various applications
Guides learners through describing the operation principle of charge couple devices and CMOS active-pixel sensor to construct a digital camera
Helps learners comprehend calculating the current voltage characteristics of MOSFETs
Examines Moore's Law and its impact on the evolution of transistor scaling, a topic highly relevant to industry
Provides learners with strategies to mitigate short channel effects in modern MOSFETs
Introduces learners to advanced MOSFET structures, which is a cutting-edge topic in semiconductor research and development
Facilitates learners' abilities to communicate in the language of nano-CMOS technology, which is valuable for professional growth and development

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Reviews summary

Basics of fets and technology scaling overview

According to learners, this course provides a strong theoretical foundation in MOSFET physics and technology scaling. Students appreciate the clear lectures and the coverage of modern devices like FinFETs, finding the material highly relevant to the industry. However, many note that despite the title, the course requires a strong prior background in semiconductor physics and is not suitable for absolute beginners. The pacing can be inconsistent, and some find the mathematical derivations challenging to follow, leading to demanding assignments. Overall, it's considered a valuable but rigorous course for those with the necessary prerequisites.
Relevant insights into current devices.
"The coverage of modern devices like FinFETs was particularly helpful and relevant..."
"goes into modern scaling challenges and future devices."
"Touches on scaling and new technologies."
"Covers classical and modern aspects well."
Useful for industry professionals.
"relevant to current industry trends."
"Very relevant to my work."
"Essential for anyone in the field."
"Useful for getting a theoretical foundation."
Concepts built logically and clearly.
"The lectures are clear, concise, and build up the concepts logically."
"Highly technical course, but presented clearly."
"the material is well-structured, building from MOS cap to FinFETs."
"Explanations are good..."
Could use more examples/problems.
"Could use more practice problems or examples."
"The examples provided were okay, but more would have been better."
Assignments require significant effort.
"Assignments were challenging but fair."
"I struggled a bit with the assignments."
"Assignments were overwhelming."
Challenging pace and derivations.
"Some parts felt a bit rushed, especially the later modules..."
"The mathematical derivations were sometimes hard to follow in the videos..."
"The lectures moved very quickly through complex derivations."
"The later weeks felt rushed compared to the initial ones."
"the pacing was inconsistent."
Assumes prior technical knowledge.
"This course requires a good grasp of semiconductor physics fundamentals beforehand"
"It definitely assumes a strong prior background, which wasn't entirely clear..."
"Not really 'basics' for someone new to the topic, despite the title."
"aimed at someone with prior semiconductor knowledge"
"Requires a strong background in semiconductor physics."

Activities

Be better prepared before your course. Deepen your understanding during and after it. Supplement your coursework and achieve mastery of the topics covered in Basics of Field Effect Transistors and Technology Scaling with these activities:
Read Semiconductor Devices: Physics and Technology
Reading this book will provide you with a solid foundation in the physics and technology of semiconductor devices, which will be essential for understanding the material covered in this course.
Show steps
  • Read the preface and introduction
  • Read the chapters on semiconductor materials, PN junctions, and metal-semiconductor junctions
Watch the NPTEL video lectures on MOSFETs
These video lectures will provide you with a clear and concise overview of the operation of MOSFETs, which will be essential for understanding the material covered in this course.
Browse courses on MOSFETs
Show steps
  • Watch the lecture on the basics of MOSFETs
  • Watch the lecture on the different types of MOSFETs
  • Watch the lecture on the applications of MOSFETs
Solve the practice problems on MOSFETs
Solving these practice problems will help you to test your understanding of the material covered in this course and to identify areas where you need further review.
Browse courses on MOSFETs
Show steps
  • Solve the problems on the basic operation of MOSFETs
  • Solve the problems on the different types of MOSFETs
  • Solve the problems on the applications of MOSFETs
Four other activities
Expand to see all activities and additional details
Show all seven activities
Write a summary of the different types of MOSFETs
Writing a summary of the different types of MOSFETs will help you to solidify your understanding of the material covered in this course.
Browse courses on MOSFETs
Show steps
  • Identify the different types of MOSFETs
  • Describe the key features of each type of MOSFET
  • Compare and contrast the different types of MOSFETs
Discuss the applications of MOSFETs with your classmates
Discussing the applications of MOSFETs with your classmates will help you to understand how MOSFETs are used in real-world applications.
Browse courses on MOSFETs
Show steps
  • Identify the different applications of MOSFETs
  • Discuss the advantages and disadvantages of using MOSFETs in each application
Tutor other students in the course
Tutoring other students in the course will help you to solidify your understanding of the material covered in this course.
Show steps
  • Identify the topics that you are confident in
  • Offer to tutor other students in those topics
  • Meet with other students and help them to understand the material
Create a study guide for the course
Creating a study guide for the course will help you to organize the material covered in this course and to identify the key concepts that you need to know.
Show steps
  • Identify the key concepts that are covered in the course
  • Create a table or outline that summarizes the key concepts
  • Add notes and examples to the table or outline

Career center

Learners who complete Basics of Field Effect Transistors and Technology Scaling will develop knowledge and skills that may be useful to these careers:
Device Engineer
A Device Engineer is an electrical engineer who designs and develops semiconductor devices such as transistors. They use their knowledge of physics and materials science to create devices that are efficient, reliable, and affordable. As a Device Engineer, you will oversee the research and development for nano devices and would need to have a deep understanding of this topic. This course may help build your foundation for this industry.
Semiconductor Processing Technician
A Semiconductor Processing Technician operates and maintains equipment used to manufacture semiconductor devices. They use their knowledge of semiconductor processing to ensure that the devices are produced to the correct specifications. The manufacturing of these devices rely heavily on the concepts of materials science that you will learn in this course and would make a great addition to your resume.
Materials Scientist
A Materials Scientist researches and develops new materials for use in a variety of applications, including electronics, aerospace, and medicine. They use their knowledge of chemistry, physics, and engineering to create materials that have the desired properties for a particular application. This course can help you build a strong foundation in materials science and would be very helpful to your career.
Process Engineer
A Process Engineer develops and improves manufacturing processes for a variety of products, including semiconductors, food, and pharmaceuticals. They use their knowledge of engineering and science to optimize the efficiency and quality of the manufacturing process. The concepts you will learn in this course, such as transistor scaling, will prove to be very useful in your day to day as a Process Engineer.
Research Scientist
A Research Scientist conducts research in a variety of fields, including physics, chemistry, and biology. They use their knowledge of science and engineering to develop new products and technologies. Although this course dives into the specifics of electrical engineering, it will provide you with the necessary background for a career in materials science research.
Electrical Engineer
An Electrical Engineer designs, develops, and tests electrical systems. They use their knowledge of electricity and electronics to create systems that are safe, efficient, and reliable. This course will teach you the fundamentals of transistors and the technology behind them, which would be very useful in your career as an Electrical Engineer.
Technical Writer
A Technical Writer creates technical documentation, such as user manuals, training materials, and marketing materials. They use their knowledge of a particular subject matter to explain complex technical concepts in a clear and concise way. This course may help you learn more about transistors and technology scaling so that you can effectively write about related topics.
Patent Attorney
A Patent Attorney helps inventors obtain patents for their inventions. They use their knowledge of patent law and technology to prepare and file patent applications. This course can help you learn more about transistors and the technology behind them, which would be very useful in your career as a Patent Attorney.
Science Teacher
A Science Teacher teaches science to students in grades K-12. They use their knowledge of science and education to create lesson plans and activities that engage students and help them learn. This course may help you learn more about transistors and technology scaling so that you can effectively teach these topics to your students.
Quality Assurance Engineer
A Quality Assurance Engineer ensures that products meet the required standards of quality. They use their knowledge of engineering and quality control to develop and implement quality assurance procedures. This course may help you learn more about transistors and the technology behind them, which would be very useful in your career as a Quality Assurance Engineer.
Sales Engineer
A Sales Engineer sells technical products and services to businesses and organizations. They use their knowledge of engineering and sales to help customers understand the benefits of their products and services. This course may help you learn more about transistors and the technology behind them, which would be very useful in your career as a Sales Engineer.
Product Manager
A Product Manager is responsible for the development and marketing of a product. They use their knowledge of marketing, engineering, and business to create products that meet the needs of customers. This course may help you learn more about transistors and the technology behind them, which would be very useful in your career as a Product Manager.
Business Analyst
A Business Analyst helps businesses identify and solve problems. They use their knowledge of business and technology to analyze data and make recommendations for improvements. This course may help you learn more about transistors and the technology behind them, which would be very useful in your career as a Business Analyst.
Consultant
A Consultant provides advice and guidance to businesses and organizations. They use their knowledge of a particular subject matter to help clients solve problems and achieve their goals. This course may help you learn more about transistors and the technology behind them, which would be very useful in your career as a Consultant.
Technical Support Specialist
A Technical Support Specialist provides technical support to customers. They use their knowledge of a particular product or service to help customers troubleshoot problems and find solutions. This course may help you learn more about transistors and the technology behind them, which would be very useful in your career as a Technical Support Specialist.

Reading list

We've selected eight books that we think will supplement your learning. Use these to develop background knowledge, enrich your coursework, and gain a deeper understanding of the topics covered in Basics of Field Effect Transistors and Technology Scaling.
Classic textbook on semiconductor devices. It provides a comprehensive overview of the physics and technology of semiconductor devices, including MOSFETs. It valuable reference for anyone who wants to learn more about the fundamentals of semiconductor devices.
Provides a comprehensive overview of the physics of semiconductors. It valuable reference for anyone who wants to learn more about the fundamental properties of semiconductors.
Provides a comprehensive overview of the fundamentals of modern VLSI devices. It valuable reference for anyone who wants to learn more about the design and fabrication of VLSI devices.
Provides a comprehensive overview of MOSFET models for VLSI circuit simulation. It valuable reference for anyone who wants to learn more about the modeling of MOSFETs.
Provides a comprehensive overview of the fundamentals of semiconductor devices. It valuable reference for anyone who wants to learn more about the basic principles of semiconductor devices.
Provides a comprehensive overview of the fundamentals of solid state electronic devices. It valuable reference for anyone who wants to learn more about the basic principles of solid state electronic devices.
Provides a comprehensive overview of the fundamentals of VLSI technology. It valuable reference for anyone who wants to learn more about the design and fabrication of VLSI circuits.
Provides a comprehensive overview of the fundamentals of nanoelectronics. It valuable reference for anyone who wants to learn more about the design and fabrication of nanoelectronic devices.

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