MIT alumna Rita Baranwal has been nominated for Assistant Secretary of Energy at the U.S. Department of Energy, writes Lalit Jha for the Press Trust of India. If approved, Baranwal will be responsible for “nuclear technology research and the development and management of the department's nuclear technology infrastructure.”
A study by MIT researchers demonstrates how air pollution can significantly reduce profits from solar panel installations, reports Avery Thompson for Popular Mechanics. The researchers found that in Delhi, “electricity generation is reduced by more than 10 percent,” Thompson explains, “which translates to a cost of more than $20 million.”
Gizmodo reporter Ryan Mandelbaum writes that by studying ancient quasars, MIT scientists have uncovered evidence supporting quantum entanglement, the concept that two particles can become linked despite their distance in space and time. “We’ve outsourced randomness to the furthest quarters of the universe, tens of billions of light years away,” says Prof. David Kaiser.
Space.com reporter Chelsea Gohd writes that MIT researchers have used the light emitted by two ancient quasars to provide evidence of quantum entanglement, the theory that two particles can become linked across space and time. The researchers used ancient quasars to see if, “the correlation between particles can be explained by classical mechanics stemming from earlier than 600 years ago.”
Writing for Motherboard, Daniel Oberhaus highlights how MIT researchers have used light emitted by quasars billions of years ago to confirm the existence of quantum entanglement. Oberhaus explains that the findings suggest entanglement occurs “because if it didn’t exist the universe would somehow have to have ‘known’ 7.8 billion years ago that these MIT scientists would perform these experiments in 2018.”
Gizmodo reporter Ryan Mandelbaum highlights how MIT researchers used data from the CLAS particle accelerator and detector to determine that neutron stars are heavily influenced by protons. Prof. Or Hen explains that the findings show that, “protons are much more important in determining the properties of neutron stars than we thought.”
In a VICE News Tonight climate segment, MIT postdocs Volodymyr Koman and Seon-Yeong Kwak explain their technique for making plants glow in the dark to a first-grade class in Boston. Following a demonstration mixing plant glucose with the specialized nanoparticles, one student exclaims in disbelief, “no battery or anything!”
MIT researchers have developed “the first artificial system to mimic the way the brain interprets sound – and it rivals humans in its accuracy,” reports Samia Bouzik for NOVA Next. “The research offers a tantalizing new way to study the brain…[and] could boost some neuroscience research into the fast track,” writes Bouzik.
MIT researchers have made improvements to liquid-sodium batteries, potentially paving the way for the battery to be used for renewable energy storage, reports Laney Ruckstuhl for The Boston Globe. “Unlike lithium-ion batteries used in cellphones and laptops, the liquid-sodium batteries won’t lose their capacity quickly.”
Tony Lee of Mashable spotlights the technique developed by MIT researchers that allows plants to glow when inserted with nanoparticles containing luciferase, an enzyme known to make fireflies glow.
Prof. Michael Strano spoke with CNN’s Nicola Davison about his recent work making plants glow. "We're thinking about how we can engineer plants to replace functions of the devices that we encounter every day. The things that we make out of plastic and circuit boards -- can we replace those with a living plant?" said Strano.
Boston Globe reporter Alex Kingsbury highlights how MIT researchers have developed a new technique that allows plants to glow in the dark. Kingsbury writes that, “In subsequent tests with watercress, arugula, kale, and spinach, the plants glowed for 3.5 hours. Researchers also figured out a way to turn off the glow during daylight hours.”
Boston 25 News reports that MIT researchers have developed a new technique that allows plants to glow in the dark and could potentially be used in the future to transform them into sources of electricity. The researchers demonstrated the technique on several different types of plants, including kale, arugula, spinach, and watercress.
Prof. Michael Strano speaks with BBC News reporter Alan Kasujja about the technique his team developed to embed nanoparticles into a plant’s leaves so that it can glow in the dark. Strano explains that his team figured out, “how to control where these particles go inside the plant…We can put them right near the biochemical processes where photosynthesis occurs.”
In this video, Reuters spotlights how MIT researchers have developed a new sensor that can be applied to plant leaves and can identify when a plant is experiencing a water shortage. Prof. Michael Strano explains that the sensor allows users to, “detect the onset of water stress long before the tissue starts to be harmed.”