Podcasts
Hear in-depth conversations with the world’s top energy and climate leaders from government, business, academia, and civil society.
The Cybersecurity Stakes of the Energy Transition
The energy transition is transforming how we power our world – clean energy systems are becoming more interconnected, automated, and reliant on digital infrastructure. But with this transformation...
Events
Find out more about our upcoming and past events.
December 5, 2024
• 1:00 pm - 2:00 pm
edt
Student Roundtable with Mary Nichols
Women in Energy at the Center on Global Energy Policy at Columbia SIPA is pleased to host Anne-Sophie Corbeau.
Event
• CGEP Large Conference Room
1255 Amsterdam Ave Floor 1, New York, NY 10027
1255 Amsterdam Ave Floor 1, New York, NY 10027
Guest
Dr. Dennis Whyte
Director, MIT Plasma Science and Fusion Center
Nuclear fusion seems like something out of science fiction – a reaction created inside a machine that replicates the sun. But the technology behind this process could be inching closer to reality. And with it, new opportunities to harness electricity.
The recently passed Inflation Reduction Act allocates $280 million for fusion energy science. And experiments in China, the U.K., and California have some scientists feeling hopeful that fusion could play a role in the global energy transition.
But there’s a problem. At lower temperatures, nuclear fusion requires more energy than it produces. It’s only when the plasma used to combine atoms reaches an extremely high temperature that it sets off a chain reaction and makes the process sustainable.
There are different approaches to achieving this chain reaction. But are scientists actually getting close to commercialization? And when will nuclear fusion be powering our homes and businesses?
This week, host Bill Loveless talks with Dr. Dennis Whyte, Hitachi America Professor of Engineering at MIT and director of the MIT Plasma Science and Fusion Center. He also leads the Laboratory for Innovations and Fusion technology, which has energy company sponsorship to explore early-stage, disruptive fusion technologies.
Dr. Whyte played an integral role in Commonwealth Fusion Systems, a startup out of the Plasma Science and Fusion Center, that recently raised $1.8 billion in funding to commercialize fusion energy.
Bill talks with Dr. Whyte about the science behind nuclear fusion, his work at MIT, and the efforts to bring this technology to market.
More Episodes
The Cybersecurity Stakes of the Energy Transition
The energy transition is transforming how we power our world – clean energy systems are becoming more interconnected, automated, and reliant on digital infrastructure. But with this transformation...
Minimizing Damage as Mining for Critical Minerals Ramps Up
The clean energy transition has a dirty underside. To move away from fossil fuels and toward solar, wind, batteries, and other alternative sources of energy, we have to intensify mining operations for critical minerals like lithium, copper, and cobalt.
Inside the 2024 World Energy Outlook
Rising electricity demand. Heightened geopolitical tension. Fragility in energy markets. These are some of the big stories shaping the energy transition outlined in the International Energy Agency’s newest...
Where Climate and Trade Policy Meet
In passing and signing the Inflation Reduction Act in 2022, Congress and the Biden administration infused hundreds of billions of dollars into the energy transition. It was the...
Relevant
Publications
America’s AI Leadership Depends on Energy
Microsoft’s plan to restart Three Mile Island points to the way forward.
Lessons from the Nuclear Waste Negotiator Era of the 1990s for Today’s Consent-Based Siting Efforts
Nuclear power is being weighed in energy transition plans around the world, as countries seek to replace fossil fuels with low-carbon alternatives while also meeting growing energy demand and maintaining reliability and affordability.
Reports
by Matt Bowen • September 11, 2024
Revisiting GTCC and GTCC-Like Nuclear Waste Disposal in the United States
While the United States (US) has facilities that can and do dispose of most low-level nuclear waste (LLW), it does not yet have a viable disposal pathway for two categories of waste: so-called greater-than-class-c (GTCC) nuclear waste, and nuclear waste with characteristics similar to it, or “GTCC-like.”
