MIT scientists have developed a new way of colliding ultracold molecules while controlling the rate at which they react, reports Martijn Boerkamp for Physics World. “Our work is a step to achieve quantum control over molecular collisions and reactions and to map out more broadly the collisional properties of these molecules with the goal of finding a deeper understanding,” explains Prof. Wolfgang Ketterle.
Gizmodo reporter Isaac Schultz writes that researchers from MIT, Caltech and elsewhere have found that “quantum systems can imitate wormholes, theorized shortcuts in spacetime, in that the systems allow the instantaneous transit of information between remote locations.” Grad student Alexander Zlokapa explains that: “We performed a kind of quantum teleportation equivalent to a traversable wormhole in the gravity picture. To do this, we had to simplify the quantum system to the smallest example that preserves gravitational characteristics so we could implement it.”
Physicists from MIT and elsewhere have created a small “wormhole” effect between two quantum systems on the same processor and were able to send a signal through it, reports Charlotte Hu for Popular Science. This new model is a “way to study the fundamental problems of the universe in a laboratory setting,” writes Hu.
Researchers at MIT and elsewhere have created a holographic wormhole using Google’s Sycamore quantum computer, reports Sarah Wells for Vice. “The researchers created an entangled state (a quantum mechanical phenomena where distant particles can still communicate with each other) between two halves of a quantum computer and sent a message in between,” writes Wells. “This message was scrambled as it entered the system and, through entanglement, unscrambled on the other side.”
A team of researchers, including scientists from MIT, “simulated a pair of black holes in a quantum computer and sent a message between them through a shortcut in space-time called a wormhole,” reports Dennis Overbye for The New York Times. The development is another “step in the effort to understand the relation between gravity, which shapes the universe, and quantum mechanics, which governs the subatomic realm of particles,” writes Overbye.
Boston Globe correspondent Scott Kirsner explores the growth of quantum computing from the field's roots “at a 1981 meeting in Dedham, at MIT’s Endicott House conference center.” Bharath Kannan PhD ’22, co-founder and CEO of Atlantic Quantum, notes that if researchers could develop a computer that was natively quantum mechanical, "it would be game-changing for a lot of industries.”
QuEra Computing, a cloud-based quantum computer service co-founded by faculty from MIT and Harvard, has “teamed up with Amazon’s AWS cloud service to sell online access to the device,” reports Hiawatha Bray for The Boston Globe. The device “can be used by universities and corporate researchers worldwide for a variety of advanced tasks, like simulating the behavior of subatomic particles or developing new chemical compounds,” writes Bray.
QuEra, co-founded by faculty from MIT and Harvard, is a quantum computing startup that uses “neutral atoms in a vacuum chamber and use lasers to cool and control them,” reports Jane Lanhee Lee for Reuters. The startup has announced its “computer is now accessible to the public through Amazon.com cloud’s quantum compute service Braket,” writes Lee.
Prof. Peter Shor has been named one of the winners of the 2023 Breakthrough Prize in Fundamental Physics, reports Nature. “Shor’s most renowned contribution is the development of quantum algorithms for prime number factorization,” writes Nature.
Prof. Danna Freedman has been named a 2022 MacArthur Fellow for “creating novel molecular materials with unique properties directly relevant to quantum information technologies,” reports Susan H. Greenberg for Inside Higher Ed.
Prof. Danna Freedman, a synthetic inorganic chemist, has been honored as one of this year’s MacArthur Fellows, reports Travis Anderson for The Boston Globe. “The unmatched control inherent in synthetic chemistry opens doors to other fields and discoveries beyond chemistry,” said Freedman of her research. “By designing and creating chemical systems, we can uncover new science in areas ranging from quantum information science to magnetism.”
NPR’s Elizabeth Blair highlights the work of Prof. Danna Freedman, one of the 2022 MacArthur Fellows. Freedman, a synthetic inorganic chemist, is "creating novel molecular materials with unique properties directly relevant to quantum information technologies." Moriba Jah, a Martin Luther King Jr. Visiting Scholar, has also been awarded a MacArthur "genius grant" for his work "envisioning transparent and collaborative solutions for creating a circular space economy that improves oversight of Earth's orbital spheres."
Prof. Danna Freedman has been awarded a 2022 MacArthur "genius grant" for her work in developing molecules that “have great storage and processing computing capacity,” reports the Associated Press.
Prof. Danna Freedman has been honored as a recipient of a 2022 MacArthur Fellowship, “one of the nation’s most prestigious awards for intellectual and artistic achievement,” reports Michael T. Nietzel for Forbes. “Using molecular chemistry [Freedman] is designing molecules that can act as qubits—the building blocks of quantum systems - to address fundamental questions in physics,” writes Nietzel.
Prof. Peter Shor and three other researchers have won the Breakthrough Prize in Fundamental Physics for their work in the field of quantum information, reports Martin Finucane for The Boston Globe. Shor “invented the first quantum computer algorithm that was clearly useful. Shor’s algorithm can find the factors of large numbers exponentially faster than is thought to be possible for any classical algorithm,” the Breakthrough Foundation noted in its citation.