Explore the fundamentals of nuclear energy, radiation, and their societal impact in this comprehensive 14-week MIT course.
Explore the fundamentals of nuclear energy, radiation, and their societal impact in this comprehensive 14-week MIT course.
Dive into the world of nuclear energy with MIT's comprehensive course covering science, systems, and societal implications. This program offers a balanced view of nuclear energy as a low-carbon solution, exploring its unique attributes and challenges. You'll learn about the basic physics of nuclear energy and radiation, including peaceful applications in materials science, medicine, security, and quantum technology. The course covers fission energy, detailing the scientific, engineering, and economic basis for fission reactors, as well as cutting-edge reactor technology. You'll also explore magnetic fusion energy research, including the science behind tokamaks and the latest in world fusion experiments. With optional hands-on exercises, you'll gain practical insights into radiation in your environment. This course equips you to critically assess key questions about nuclear energy's role in addressing climate change, its cost-effectiveness, safety concerns, and future prospects.
4.8
(8 ratings)
Instructors:
English
English
What you'll learn
Understand the basics of ionizing radiation and its applications
Analyze the role of nuclear energy in decarbonizing the power sector
Evaluate the economics and safety aspects of nuclear power plants
Explore the fundamentals of nuclear fusion and plasma physics
Assess the potential of magnetic confinement fusion for future energy needs
Investigate applications of nuclear science in quantum technology
Skills you'll gain
This course includes:
PreRecorded video
Graded assignments, exams, Optional hands-on experiments
Access on Mobile, Tablet, Desktop
Limited Access access
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There are 4 modules in this course
This comprehensive course provides an introduction to nuclear energy, covering its scientific principles, technological applications, and societal implications. The curriculum is divided into four main modules. The first module introduces the basics of ionizing radiation, its sources, and its beneficial applications, focusing on radiation dose and safety. The second module explores nuclear energy as a commercial power source, discussing its potential for decarbonization, economics, safety, and innovations in nuclear energy systems. The third module covers nuclear fusion, including fundamental plasma physics and the prospects for magnetic confinement fusion. The final module explores applications of nuclear science beyond energy, with a focus on quantum science and engineering. Throughout the course, students will engage with critical questions about radiation sources, nuclear energy's role in climate change mitigation, cost competitiveness, safety concerns, and the future of fusion energy. An optional hands-on section allows students to explore background radiation in their environment, providing practical experience to complement the theoretical knowledge.
Basics of ionizing radiation
Module 1
Nuclear energy as a commercial power source
Module 2
Basics of nuclear fusion
Module 3
Applications of nuclear science beyond energy
Module 4
Fee Structure
Instructors
Distinguished Energy Finance Expert Advancing Low-Carbon Solutions
John Parsons serves as a Senior Lecturer in Finance at MIT Sloan School of Management and Deputy Director for Research at MIT's Center for Energy and Environmental Policy Research (CEEPR). After earning his BA from Princeton University and PhD in Economics from Northwestern University, he has built an influential career bridging financial economics with energy policy. His research focuses on risk management, valuation, and financing of energy investments, with particular emphasis on nuclear power and decarbonization strategies. As co-Director of MIT's CANES Low Carbon Energy Center and key contributor to multiple MIT energy studies, he has shaped critical discussions about nuclear energy's role in addressing climate change. His expertise extends beyond academia through ten years as Vice President at CRA International, where he advised major energy companies on risk management and valuation. His public service includes positions at the Federal Energy Regulatory Commission and the U.S. Commodity Futures Trading Commission's Energy Markets Advisory Committee. Through his leadership roles in various international energy research initiatives and his current position as Co-Chair of the Energy Oversight Committee at the Global Association of Risk Professionals, Parsons continues to influence both policy and practice in energy finance and environmental markets
Pioneering Nuclear Materials Scientist Advancing Energy Innovation
Michael Short serves as Class of '42 Associate Professor of Nuclear Science and Engineering and Associate Director of the Plasma Science and Fusion Center at MIT, where he has revolutionized nuclear materials research since joining the faculty in 2013. His fifteen years of expertise spans nuclear materials, microstructural characterization, and alloy development, combining large-scale experiments with micro/nanoscale analysis and multiphysics modeling. His research focuses on three critical areas: developing non-contact measurements of irradiated material properties through transient grating spectroscopy, preventing harmful deposits in nuclear reactors and energy systems, and quantifying radiation damage through stored energy signatures. As a MacVicar Faculty Fellow, he demonstrates excellence in both research and education, training the next generation of nuclear scientists while advancing fundamental understanding of materials behavior under extreme conditions. His innovative approaches to nuclear materials science have earned him significant recognition in the field, including the NSF CAREER award, while his work continues to shape the future of nuclear energy technology through improved understanding of material degradation and performance in nuclear power systems.
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4.8 course rating
8 ratings
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