Energy

Researchers at MIT’s Plasma Science and Fusion Center and Commonwealth Fusion Systems speak with The New Yorker’s Rivka Galchen about the history of fusion research and the recent test of their large high-temperature superconducting electromagnet. “I feel we proved the science. I feel we can make a difference,” says MIT alumna Joy Dunn, head of manufacturing at CFS. “When people ask me, ‘Why fusion? Why not other renewables,’ my thinking is: This is a solution at the scale of the problem.”

Motherboard reporter Matthew Gault spotlights how scientists from MIT and Commonwealth Fusion Systems developed a large high-temperature superconducting magnet that can create a magnetic field of 20 tesla, “a breakthrough that paves the way for carbon-free power.”

WBUR’s Bruce Gellerman explores how researchers from MIT and Commonwealth Fusion Systems successfully demonstrated “the world's strongest high-temperature superconducting magnet, putting them a step closer towards a workable fusion reactor.” The advance “provides reason for hope that in the not-too-distant future, we could have an entirely new technology to deploy in the race to transform the global energy system and slow climate change,” says Maria Zuber, MIT’s vice president for research.

Scientists from MIT and Commonwealth Fusion Systems have performed a successful test of the world’s strongest high temperature superconducting magnet, a crucial step in creating net positive energy from a fusion device, reports the Associated Press.

Scientists at MIT and Commonwealth Fusion Systems have cleared a major hurdle in their efforts to achieve net energy from fusion, successfully creating a 20 tesla magnetic field using the high-temperature superconducting magnet they developed, reports Hiawatha Bray for The Boston Globe. “This test provides reason for hope that in the not too distant future we could have an entirely new technology to deploy in the race to transform the global energy system and slow climate change,” says Maria Zuber, MIT’s vice president for research.

CNBC reporter Catherine Clifford writes that researchers from MIT and Commonwealth Fusion Systems have successfully demonstrated the high-temperature superconducting electromagnet they developed, creating a 20 tesla magnetic field. “This magnet will change the trajectory of both fusion science and energy, and we think eventually the world’s energy landscape,” says Dennis Whyte, director of MIT’s Plasma Science and Fusion Center.

MIT and Commonwealth Fusion Systems scientists have created a 20 tesla magnetic field using a large, high temperature superconducting fusion magnet, a step towards creating a fusion power plant, reports Stephen Jewkes for Reuters. The researchers aim “to use the technology to build a commercially viable fusion power plant to generate zero-emission electricity.”

Forbes contributor David Blackmon spotlights Ambri, an MIT startup that is developing liquid-metal batteries. Blackmon writes that Ambri has developing a new battery technology that could “help renewables like wind and solar scale up more rapidly in the coming years and help them occupy a larger share of electricity generation around the world.”

Boston Globe correspondent Scott Kirsner spotlights CubicPV, an MIT startup, which is creating solar cells that more efficiently convert sunlight into energy.

Washington Post columnist David Von Drehle spotlights MIT startup Form Energy, which has created a battery prototype made of iron and oxygen that stores large amounts of power and can release it over days. Von Drehle writes that this new battery could usher in a “sort of tipping point for green energy: reliable power from renewable sources at less than $20 per kilowatt-hour.”

Wall Street Journal reporter Russell Gold spotlights how Form Energy, a startup co-founded by Prof. Yet-Ming Chiang, has developed an inexpensive iron-air battery that can discharge power for days. The batteries could be “capable of solving one of the most elusive problems facing renewable energy: cheaply storing large amounts of electricity to power grids when the sun isn’t shining and wind isn’t blowing,” writes Gold.

Sergey Paltsev, deputy director of the MIT Joint Program on the Science and Policy of Global Change, emphasizes the importance of reaching net-zero emissions as fast as possible. “By pushing natural gas—which is indeed cleaner than coal, but it’s still a fossil fuel that releases a lot of CO2 and more importantly, a lot of methane—we are actually hurting renewables,” says Paltsev. 

Writing for The Hill, Prof. Sanjoy Mitter, Prof. Munther Dahleh, research affiliate Le Xie and their colleagues underscore the need to build a “resilient energy ‘superhighway,’ an electric grid that delivers a wide portfolio of energy supplies to the end users in a reliable manner.” They add that: “Investments are needed both in building the backbone interconnections, as well as in upgrading the ‘last mile’ distribution grid.”

UPI reporter Brian Dunleavy writes that MIT researchers have developed a new way to potentially expand sources of biofuel to include straw and woody plants. "Our goal is to extend this technology to other organisms that are better suited for the production of these heavy fuels, like oils, diesel and jet fuel," explains Prof. Gregory Stephanopoulos.

MIT has announced a new climate action plan aimed at helping the Institute tackle climate change, reports Kristina Chen for The Tech. The plan offers increased opportunities for student involvement and a new organizational structure. Maria Zuber, MIT’s vice president for research, explains that MIT feels “that it’s our responsibility and duty to try to make a genuine difference, and to do that, we’re going to need the help of everyone in the community.”