School of Engineering

Margaret Hamilton, “best known for her major contributions to the Apollo missions” at MIT’s Instrumentation Lab, “died on Sept. 30 at age 90, leaving behind a trailblazing legacy of problem-solving and entrepreneurship that paved the way for a new branch of computer science and engineering,” writes reporter Margherita Bassi for Smithsonian Magazine. Hamilton’s “coding foresight and prowess really made that mission a success,” says Smithsonian National Air and Space Museum’s Andrew Meade McGee. “She created the logical software basis for many of the critical systems we use to maintain our infrastructure today, and that silently power today’s modern aerospace world.” 

Margaret Hamilton, who developed the software that helped the Apollo 11 mission land safely on the moon and “whose historic accomplishments focused attention on the work of software engineers,” died on Sept. 30, reports Bryan Marquard for The Boston Globe. “She gave me, from the get-go, this notion that I could do anything, that there were absolutely no gender barriers,” says Hamilton’s daughter, Lauren. Hamilton’s life and work conveyed to her great-granddaughters “that very clear idea that they could have whatever future they wanted to create for themselves.” 

Prof. Virginia Vassilevska Williams speaks to the Scientific American’s Peter Hall and Joseph Howlett about AI assisting in faster matrix multiplications. “Matrix multiplication is needed all over the place,” says Williams. “But also, its complexity is one of the great mysteries in computer science. In a maybe diabolical sense, the advance on matrix multiplication can be seen as an attempt by the LLMs to speed themselves up.”  

For The New York Times, reporters Carolyn Y. Johnson and Kenneth Chang spotlight the late computer scientist Margaret Hamilton and her role in the development of the field of software engineering, highlighting her work as a “trailblazing woman who played a crucial, largely unseen role.” MIT Presidential Advisor Maria Zuber shared: “When you see someone like her who went for it and lived her dream it makes it a little easier for the rest of us to dare to reach for the moon as well.” 

Hertha Metals, a startup founded by alumna Laureen Meroueh SM ’18, PhD ’20, “has developed a way to produce high-purity iron needed in the magnets used in everything from electric vehicles to humanoid robots,” writes reporter Stephanie Findlay for the Financial Times. “Hertha is breaking ground on a 10,000-tonne-a-year commercial facility today on the outskirts of Houston to produce the metal,” Findlay highlights. “The company plans to produce the first steel-grade iron in the fourth quarter of next year and start producing the high-purity iron by 2028.” 

“Groundbreaking researcher,” Margaret Hamilton, “whose code helped land NASA’s Apollo astronauts on the moon to win the 20th-century space race has died,” reports CNN’s Jackie Wattles. “Through her work, Hamilton is also credited as one of the founders of the field of software engineering — a term she coined — by helping to establish it as a professional practice,” writes Wattles.  

The Guardian’s Uwa Ede-Osifo spotlights the life and legacy of the late Margaret Hamilton, “the computer pioneer whose software powered the first moon landing,” at MIT’s Instrumentation Lab. Prior to the Instrumentation Lab, Hamilton worked “on the software that could detect enemy aircraft,” at MIT’s Lincoln Laboratory,” writes Ede-Osifo. “When the institute received a Nasa contract to develop the Apollo onboard flight software, she jumped at the opportunity.”  

Margaret Hamilton, “who led the 100-person team [at MIT’s Instrumentation Lab] that wrote the onboard software for the Apollo missions, guiding Neil Armstrong and Buzz Aldrin to a safe landing on the moon,” died on Sept. 30, reports Trip Gabriel for The New York Times. “Her skills led to her promotion to director of software engineering on the project, which developed the two 70-pound onboard computers for the Apollo flights: one in the command module, which carried the astronauts from Earth, and the second in the lunar module, which set down on the moon’s surface,” writes Gabriel. 

With help from an artificial intelligence algorithm, MIT researchers have formulated heat-resistant mRNA COVID vaccines that “remain stable even when stored at room temperature for up to a year, or at nearly 100 degrees Fahrenheit for two months,” writes Nancy Lapid for Reuters. The heat resistance shots “would lower costs and make them [COVID vaccines] available in regions where ultra-cold storage is not possible,” Lapid notes.  

MIT startup Alsym Energy, cofounded by Prof. Kripa Varanasi, has developed an alternative to lithium-ion batteries using sodium ions, writes Morgan Clendaniel for Fast Company. “The battery is nonflammable and nontoxic, allowing it to be placed in more sensitive areas and saving money on cooling systems that often have to be co-installed with large lithium batteries,” explains Clendaniel.  

Forbes’ Rashi Shrivastava highlights MIT spinout Liquid AI, which is building “liquid neural networks that process data more efficiently and don’t need expensive chips stored in data centers.” Shrivastava writes, “Liquid AI’s models are small enough that they can run directly on laptops and phones. There’s no cost to host them.”  

Prof. Dennis Whyte joins Hakeem Oluseyi, host of GBH’s “Particles of Thought,” to “explore fusion's wildest applications” in space. “There are private companies now looking at ways to exploit fusion for space travel,” says Whyte. “There are also, simultaneously, companies which are looking at using the technology of fusion—particularly the plasma and magnetic technology, which were primarily developed from fusion to get significant improvements in propulsion technology as well.” 

Prof. Koroush Shirvan speaks to The New York Times’ Brad Plumer and Rebecca F. Elliott about the safety of companies increasing power levels in existing nuclear reactors. “We know a lot about the safety performance of these plants; the confidence is high there,” says Shirvan. Plumer and Elliot write that Shrivan added “some plants in the past have run into operational difficulties after upgrades. If, for instance, the higher power levels subjects equipment to more wear and tear, plants may have to be shut down more frequently for maintenance,” write Plumer and Elliott.  

In a piece republished by Scientific American, reporter Manon Bischoff highlights MIT researchers proving in 2024, that “many newer games in the Super Mario series are mathematically maximally complex and therefore contain unsolvable problems.” “We don’t know how to prove that a game is fun,” says Prof. Erik Demaine, a co-author of the research. “But we can prove that it’s hard and that maybe gives some insight into why it’s fun.”  

Research Scientist Julian Klein and Prof. Frances Ross speak with speak with Physics reporter Akashni Raghubar Latchanna about an electron microscopy technique they developed to move atoms within a material, creating new possibilities for engineering electrical, optical, and quantum properties. “If we can control the electronic or optical functions of the materials, we might potentially make those devices more brain-like, more portable, and less power-hungry,” Ross said.