MOS Transistors from Coursera

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Syllabus

About This Course and Overview of the MOS Transistor

Welcome to the “MOS Transistors” course! We are very excited to be able to offer this course, and are looking forward to working with you.

Preliminaries and Background

The Two-Terminal and Three-Terminal MOS Structures

The Long-Channel MOS Transistor – Part 1

This is the first module we are dealing with the complete transistor; much of this material, as well as next module's material, will form the core of what we will be covering in the rest of the course. We hope you will spend extra time studying to make sure you understand this material in depth. The total viewing time in each of these two modules is shorter, which should help.

The Long-Channel MOS Transistor – Part 2

This material concludes the lectures on the long-channel transistor in DC operation. As mentioned earlier, these lectures will form the core on which many of our subsequent discussions will be based.

Small-Dimension Effects 1

In this module we are dealing with phenomena that occur when the transistor dimensions are made small; this is important knowledge to have when one is dealing with modern devices.

Small-Dimension Effects 2; Modeling for Circuits Simulation

This module we will finish with small dimension effects, and then talk about models for circuit simulation (the circuit designers among you are probably already using such models). We discuss what it takes to make a good model for circuit simulation (among other things: a lot of caution and care, and about 20,000 lines of code!), and how you can spot possible problems with such models. Although models for circuit simulation include capabilities we have not yet discussed, such as charge modeling, we think you know enough about models at this point to be able to follow this general discussion (which is out of sequence – it’s from Chap. 10 in the book, where you can find much more on the subject).

Large-Signal Dynamic Operation

In this module there is a significant departure from what we have done up to this point: we will allow the terminal voltages of the transistor to vary with time. We will determine the resulting terminal currents, which will now include a “charging” component. We will do this both for moderate and for very high “speeds”. The transient response of circuits involves similar calculations, only done by computer for an ensemble of transistors and other devices.

Small-Signal Modeling I

The material for this module deals with small-signal modeling, and constitutes an important part of the description of MOS transistor behavior. It relates small changes in terminal voltages to the resulting small changes in currents. Small-signal modeling is key to analog circuit design, but not only; it is also used in high-performance digital circuit design (e.g., in designing memory sense amplifiers).

Small-Signal Modeling II

This material concludes our discussion of small-signal modeling; it shows how we can model the transistor at frequencies at which the simple model we derived last week is not valid. Such modeling is important in high-frequency applications, e.g. transceiver design.

Final Exam

The exam is open book, open notes, open videos. It covers the material of the first nine weeks of videos in the course. You are NOT allowed to discuss the exam, directly or indirectly, with anyone. Anybody found in violation of this rule will be removed from the course. You should, of course, feel free to report technical issues with the exam and its submission.

End of Course

Although your knowledge of this material will not be tested in the final exam, we urge you to go through it, as it deals with important topics, namely noise, ion implantation and substrate nonuniformity, and statistical variability; these topics will help complete your understanding of MOS transistors.

Good to know

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Designed for professionals seeking a strong understanding of MOS transistors

Offers comprehensive coverage of MOS transistors, starting from their fundamentals

Led by Yannis Tsividis, a renowned expert in the field

Provides insights into device modeling and circuit simulation techniques

Emphasizes both theoretical understanding and practical applications

Reviews summary

Well-received mosfet course

Learners say that this MOS Transistors course is very informative and well structured despite being challenging. Several students remark on the enthusiasm and clarity of the professor.

Overwhelmingly Positive

"It's an intersting journey with the hard knowledge."

"I learned a lot, watched the video and book again and again."

"Eventually, I complete the course."

"awesome explanation"

Makes complex topics easy

"Excellent course for understanding MOSFET device physics and compact modeling."

"enthusiasm and clarity"

Course scope not clear

"Also, the class description needs to be more precise"

Be prepared to work

"Challenging but very informative."

"Professor is covering too much material"

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 MOS Transistors with these activities:

Revise prerequisite math skills

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Reviewing prerequisite math skills will help you solidify your foundational understanding, making it easier to grasp the more advanced concepts covered in this course.

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Review your calculus notes or textbook.
Take practice problems from each topic.
Complete online quizzes or practice tests.

Review Calculus

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Review the basic concepts of calculus, such as limits, functions, derivatives, and integrals, to strengthen your mathematical foundation for this course.

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Go over your notes and textbooks from previous calculus courses.
Take practice problems and quizzes to test your understanding.
Seek help from a tutor or online resources if needed.

Read 'MOS Transistors' by Yannis Tsividis

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Enhance your understanding of MOS transistors by reading a comprehensive book that covers their theory, design, and applications.

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Obtain the book 'MOS Transistors' by Yannis Tsividis.
Set aside dedicated time for reading and studying the book.
Take notes, highlight important concepts, and summarize key points.
Complete the end-of-chapter exercises and problems to test your comprehension.

Eight other activities

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Connect with Professionals in MOS Transistor Design

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Build connections with experts in the field of MOS transistor design to gain insights, learn about current trends, and seek guidance.

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Attend industry events and conferences.
Reach out to professionals through LinkedIn or other networking platforms.
Join professional organizations or online forums dedicated to MOS transistor design.
Request informational interviews with professionals in the field.

Solve practice problems

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Solving practice problems will help you develop your problem-solving skills and deepen your understanding of MOS transistors.

Browse courses on Circuit Simulation

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Find practice problems from your textbook or online resources.
Solve the problems on your own.
Check your answers with the solutions provided.

Solve MOS Transistor Equation Problems

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Practice solving various MOS transistor equation problems to improve your understanding of their behavior and characteristics.

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Find practice problems from textbooks, online resources, or past exams.
Attempt to solve the problems on your own.
Check your solutions against provided answers or consult with classmates or instructors.
Identify areas where you need more practice and focus on improving those.

Discuss MOS Transistor Applications

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Engage in peer discussions to explore various applications of MOS transistors and how they are used in different electronic devices and systems.

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Form a study group with classmates.
Choose a specific application area to focus on.
Research and gather information on the topic.
Prepare presentations or summaries to share with the group.
Discuss and exchange ideas, asking questions and providing insights.

Follow Tutorials on MOS Transistor Simulation

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Complete guided tutorials on MOS transistor simulation to gain practical experience in using simulation tools and understanding the behavior of transistors in circuits.

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Find online tutorials or courses on MOS transistor simulation.
Follow the tutorials step-by-step.
Experiment with different parameters and observe the effects on transistor behavior.
Ask questions and seek help from the tutorial instructors or online forums.

Design a MOS transistor circuit

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Designing a MOS transistor circuit will help you apply your knowledge to a practical problem and gain valuable hands-on experience.

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Choose a circuit application.
Design the circuit using appropriate MOS transistors.
Simulate the circuit using circuit simulation software.
Optimize the circuit design based on simulation results.

Write a Summary of a MOS Transistor Model

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Create a comprehensive summary of a specific MOS transistor model, explaining its assumptions, limitations, and applications.

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Choose a MOS transistor model to focus on.
Gather information from textbooks, research papers, and online resources.
Organize and outline your summary.
Write a clear and concise explanation of the model.
Proofread and revise your summary.

Contribute to a MOS Transistor Simulator Project

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Gain practical experience and contribute to the field by participating in an open-source project related to MOS transistor simulation.

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Identify an open-source MOS transistor simulator project.
Set up the necessary development environment.
Familiarize yourself with the project's codebase and documentation.
Identify an area where you can make a contribution.
Write code, test your changes, and submit pull requests.

Career center

Learners who complete MOS Transistors will develop knowledge and skills that may be useful to these careers:

Semiconductor Device Engineer

A Semiconductor Device Engineer designs, develops, and tests semiconductor devices, such as transistors and integrated circuits. The MOS Transistors course is highly relevant as it provides a comprehensive understanding of the operation and modeling of MOS transistors, which are the fundamental building blocks of semiconductor devices. The course covers topics such as the two-terminal and three-terminal MOS structures, the long-channel MOS transistor, small-dimension effects, and large-signal dynamic operation.

See salaries and explore the career path for Semiconductor Device Engineer

Analog Circuit Designer

An Analog Circuit Designer designs and develops analog circuits, such as those used in audio amplifiers, filters, and sensors. The MOS Transistors course is highly relevant as it provides a deep understanding of the operation and modeling of MOS transistors, which are the fundamental building blocks of analog circuits. The course covers topics such as the two-terminal and three-terminal MOS structures, the long-channel MOS transistor, small-dimension effects, and large-signal dynamic operation.

See salaries and explore the career path for Analog Circuit Designer

Materials Scientist

A Materials Scientist researches and develops new materials, such as those used in semiconductor devices. The MOS Transistors course is highly relevant as it provides a deep understanding of the operation and modeling of MOS transistors. The course covers topics such as the two-terminal and three-terminal MOS structures, the long-channel MOS transistor, small-dimension effects, and large-signal dynamic operation.

See salaries and explore the career path for Materials Scientist

Circuit Designer

A Circuit Designer designs and develops electronic circuits, such as those used in computers, telecommunications equipment, and consumer electronics. The MOS Transistors course is highly relevant as it provides a deep understanding of the operation and modeling of MOS transistors, which are the fundamental building blocks of electronic circuits. The course covers topics such as the two-terminal and three-terminal MOS structures, the long-channel MOS transistor, small-dimension effects, and large-signal dynamic operation.

See salaries and explore the career path for Circuit Designer

RF Circuit Designer

An RF Circuit Designer designs and develops radio frequency circuits, such as those used in wireless communications and radar systems. The MOS Transistors course is highly relevant as it provides a deep understanding of the operation and modeling of MOS transistors, which are the fundamental building blocks of RF circuits. The course covers topics such as the two-terminal and three-terminal MOS structures, the long-channel MOS transistor, small-dimension effects, and large-signal dynamic operation.

See salaries and explore the career path for RF Circuit Designer

Device Modeler

A Device Modeler develops and validates models for semiconductor devices, such as transistors and integrated circuits. The MOS Transistors course is highly relevant as it provides a deep understanding of the operation and modeling of MOS transistors. The course covers topics such as the two-terminal and three-terminal MOS structures, the long-channel MOS transistor, small-dimension effects, and large-signal dynamic operation.

See salaries and explore the career path for Device Modeler

Mechanical Engineer

A Mechanical Engineer designs, develops, and tests mechanical systems, such as those used in cars, airplanes, and robots. The MOS Transistors course may be useful as it provides a deep understanding of the operation and modeling of MOS transistors, which are used in many mechanical systems for control and sensing purposes. The course covers topics such as the two-terminal and three-terminal MOS structures, the long-channel MOS transistor, small-dimension effects, and large-signal dynamic operation.

See salaries and explore the career path for Mechanical Engineer

Semiconductor Process Engineer

A Semiconductor Process Engineer develops and optimizes the processes used to manufacture semiconductor devices, such as transistors and integrated circuits. The MOS Transistors course may be useful as it provides a deep understanding of the operation and modeling of MOS transistors. The course covers topics such as the two-terminal and three-terminal MOS structures, the long-channel MOS transistor, small-dimension effects, and large-signal dynamic operation.

See salaries and explore the career path for Semiconductor Process Engineer

Failure Analysis Engineer

A Failure Analysis Engineer analyzes the causes of failures in semiconductor devices, such as transistors and integrated circuits. The MOS Transistors course may be useful as it provides a deep understanding of the operation and modeling of MOS transistors. The course covers topics such as the two-terminal and three-terminal MOS structures, the long-channel MOS transistor, small-dimension effects, and large-signal dynamic operation.

See salaries and explore the career path for Failure Analysis Engineer

Electronics Engineer

An Electronics Engineer designs, develops, tests, and supervises the production of electrical and electronic equipment and systems. The MOS Transistors course may be useful as it provides a deep understanding of the operation and modeling of MOS transistors, which are essential components in many electronic systems. The course covers topics such as the two-terminal and three-terminal MOS structures, the long-channel MOS transistor, small-dimension effects, and large-signal dynamic operation.

See salaries and explore the career path for Electronics Engineer

Biomedical Engineer

A Biomedical Engineer designs, develops, and tests medical devices and systems. The MOS Transistors course may be useful as it provides a deep understanding of the operation and modeling of MOS transistors, which are used in many medical devices for control and sensing purposes. The course covers topics such as the two-terminal and three-terminal MOS structures, the long-channel MOS transistor, small-dimension effects, and large-signal dynamic operation.

See salaries and explore the career path for Biomedical Engineer

Aerospace Engineer

An Aerospace Engineer designs, develops, and tests aircraft, spacecraft, and other aerospace vehicles. The MOS Transistors course may be useful as it provides a deep understanding of the operation and modeling of MOS transistors, which are used in many aerospace vehicles for control and sensing purposes. The course covers topics such as the two-terminal and three-terminal MOS structures, the long-channel MOS transistor, small-dimension effects, and large-signal dynamic operation.

See salaries and explore the career path for Aerospace Engineer

Electrical Engineer

An Electrical Engineer designs, develops, and tests electrical and electronic equipment and systems. The MOS Transistors course may be useful as it provides a deep understanding of the operation and modeling of MOS transistors, which are essential components in many electrical systems. The course covers topics such as the two-terminal and three-terminal MOS structures, the long-channel MOS transistor, small-dimension effects, and large-signal dynamic operation.

See salaries and explore the career path for Electrical Engineer

Physicist

A Physicist conducts research in the field of physics, such as the study of the properties of matter and energy. The MOS Transistors course may be useful as it provides a deep understanding of the operation and modeling of MOS transistors. The course covers topics such as the two-terminal and three-terminal MOS structures, the long-channel MOS transistor, small-dimension effects, and large-signal dynamic operation.

See salaries and explore the career path for Physicist

Computer Engineer

A Computer Engineer designs, develops, and tests computer hardware and software. The MOS Transistors course may be useful as it provides a deep understanding of the operation and modeling of MOS transistors, which are the fundamental building blocks of computer hardware. The course covers topics such as the two-terminal and three-terminal MOS structures, the long-channel MOS transistor, small-dimension effects, and large-signal dynamic operation.

See salaries and explore the career path for Computer Engineer

MOS Transistors

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