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MITx – 3.15x Electrical, Optical, and Magnetic Properties of Materials and Devices Spring 2015 Introduction Welcome to 3.15x, Electrical, Optical, and Magnetic Properties of Materials and Devices. We are glad that you have decided to join us. We are excited to get started, but first we would like to get some logistics out of the way. Please take some time to review the material in this Syllabus. Overview In 3.15x, we will explore the basis of the electrical, optical, and magnetic properties of materials including semiconductors, metals, organics and insulators, and will show how devices are built to take advantage of those properties. These properties are illustrated with a wide range of devices, placing a strong emphasis on new and emerging technologies. Applications presented include diodes, transistors, photodetectors, solar cells (photovoltaics), displays, light emitting diodes, lasers, optical fibers and optical communications, photonic devices, magnetic data storage, motors, transformers and spintronics. Prerequisites This course is based on an upper-level undergraduate course taught in the Department of Materials Science and Engineering at MIT. The course assumes that you have knowledge of physics, calculus, and chemistry at the first-year university level. Familiarity with materials structure and bonding will also be helpful in completing this course. Outline The course will be spread over 13 weeks. Ten of those weeks will contain new lecture material and homework sets, and three weeks will be devoted to a Midterm and a Final Examination. A short breakdown of course topics is shown below: Week 1: Course Introduction, Carrier Fundamentals Week 2: The Drift and Diffusion of Carriers, Carrier Recombination and Generation Week 3: The p-n Junction at Equilibrium, The p-n Junction under Bias, the Ideal Diode Equation Week 4: The Bipolar Junction Transistor, Field Effect Transistors Week 5: Photodetectors, Photovoltaics, and Solar Cells Midterm Examination: The Midterm will cover material from the first five weeks of class. Week 6: LEDs, Lasers, and Heterostructures Week 7: Organic Electronics, Liquid Crystal Displays and Optical Fibers Week 8: Photonics and Magnetic Fundamentals Week 9: Anisotropy, Hard & Soft Magnets, and Part 1 of Data Storage Week 10: Data Storage, Part 2, and Optical & Magnetooptical Storage Final Examination: A comprehensive final examination, that will emphasize the second- half of the course material.

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  • MITx 3.15x Electrical, Optical, and Magnetic Properties

    of Materials and Devices Spring 2015

    Introduction Welcome to 3.15x, Electrical, Optical, and Magnetic Properties of Materials and Devices. We are glad that you have decided to join us. We are excited to get started, but first we would like to get some logistics out of the way. Please take some time to review the material in this Syllabus. Overview In 3.15x, we will explore the basis of the electrical, optical, and magnetic properties of materials including semiconductors, metals, organics and insulators, and will show how devices are built to take advantage of those properties. These properties are illustrated with a wide range of devices, placing a strong emphasis on new and emerging technologies. Applications presented include diodes, transistors, photodetectors, solar cells (photovoltaics), displays, light emitting diodes, lasers, optical fibers and optical communications, photonic devices, magnetic data storage, motors, transformers and spintronics. Prerequisites This course is based on an upper-level undergraduate course taught in the Department of Materials Science and Engineering at MIT. The course assumes that you have knowledge of physics, calculus, and chemistry at the first-year university level. Familiarity with materials structure and bonding will also be helpful in completing this course. Outline The course will be spread over 13 weeks. Ten of those weeks will contain new lecture material and homework sets, and three weeks will be devoted to a Midterm and a Final Examination. A short breakdown of course topics is shown below:

    Week 1: Course Introduction, Carrier Fundamentals Week 2: The Drift and Diffusion of Carriers, Carrier Recombination and Generation Week 3: The p-n Junction at Equilibrium, The p-n Junction under Bias, the Ideal Diode

    Equation Week 4: The Bipolar Junction Transistor, Field Effect Transistors Week 5: Photodetectors, Photovoltaics, and Solar Cells Midterm Examination: The Midterm will cover material from the first five weeks of class. Week 6: LEDs, Lasers, and Heterostructures Week 7: Organic Electronics, Liquid Crystal Displays and Optical Fibers Week 8: Photonics and Magnetic Fundamentals Week 9: Anisotropy, Hard & Soft Magnets, and Part 1 of Data Storage Week 10: Data Storage, Part 2, and Optical & Magnetooptical Storage Final Examination: A comprehensive final examination, that will emphasize the second-

    half of the course material.

  • Grading Your grade for 3.15x will be based on your performance on 10 homework assignments, a Midterm Examination, and a Final Examination. Your best 8 homework assignments will count towards your grade. 25% of your Final Examination grade will be based on your responses to Peer Evaluated questions. 40% Homework 20% Midterm 40% Final Examination Discussion Forum The Discussion Forums will give you an opportunity to communicate and discuss ideas both with the course staff and with your fellow students. We highly encourage you to participate in the Discussion Forums. Please read the Discussion Forum Guidelines before posting on the forums. Certificates In order to pass 3.15x, you will require a minimum grade of 60%. You can track your progress throughout the course with the Progress tab in the navigation bar on top of the course page. Any student who achieves a passing grade in 3.15x will receive an Honor Code certificate. This certificate will not include your final grade, but it will indicate that you have passed the course. Certificates will be issued through edX under the name MITx. These honor code certificates are currently free for all students who pass the course. You can also elect to upgrade to a Verified certificate for a fee.