MIT researchers have developed a new fiber, dubbed OmniFibers, that could potentially be used to help regulate breath, reports Ray White for Mashable. “When sewn into clothing, the fiber can sense how much it’s stretched. It then gives tactile feedback to the wearer via pressure, stretch or vibration.”
WBUR’s Andrea Shea spotlights how every weekend, members of the MIT Guild of Bellringers bring to life the bells at Boston’s Old North Church. MIT Guild of Bellringers ringing master John Bihn explains that “it is really exciting thinking that I'm ringing the same bells that nearly 300 years ago Paul Revere was ringing.”
Prof. Jonathan Gruber speaks with Boston Public Radio about the economics behind the music industry. “Music is an incredibly good deal, but part of the reason it’s an incredibly good deal is because musicians don’t make anything,” says Gruber. “Basically the music economy today is exactly where the rest of the economy is today. It’s a superstar economy.”
Boston Globe reporter Noah Schaffer spotlights “Subject to Change,” a program on WMBR that explores the evolution of a single song. The show’s host, Patrick Bryant, “usually starts with the original before showing how the song changes when interpreted by jazz improvisers, pop crooners, bluegrass pickers, indie rockers, or how it sounds in foreign tongues or when sampled for a hip-hop track,” writes Schaffer. “A reggae version is seemingly inevitable.”
MIT researchers have created 3D models of spiderwebs to help transform the web’s vibrations into sounds that humans can hear, writes Angela Moore for Reuters. “Spiders utilize vibrations as a way to communicate with the environment, with other spiders,” says Prof. Markus Buehler. “We have recorded these vibrations from spiders and used artificial intelligence to learn these vibrational patterns and associate them with certain actions, basically learning the spider’s language.”
In a new data sonification project, a team of MIT researchers have translated the vibrations of a spider’s web into music, writes Maddie Bender for Motherboard. The team "used the physics of spiderwebs to assign audible tones to a given string’s unique tension and vibration," writes Bender. "Summing up every string’s tone created an interactive model of a web that could produce sound through manipulation or VR navigation."
A team of MIT researchers have translated the vibrations of a spider’s web into music, reports Isaac Schultz for Gizmodo. “Spiders live in this vibrational universe,” says Prof. Markus Buehler. “They live in this world of vibrations and frequencies, which we can now access. One of the things we can do with this instrument with this approach is we can, for the first time, begin to feel a little bit like a spider or experience the world like the spider does.”
Forbes contributor Andrea Morris spotlights how MIT researchers have created a virtual reality experience that allows people to experience a spider web’s vibrations as music. "The team is working on a study exploring the boundaries between the kinds of compositions we humans create from synthetic instruments and our own conventional tuning, and compositions created from instruments that have been crafted and tuned by other biological beings, like spiders," writes Morris.
NPR’s Scott Simon remembers former MIT Professor Michael Hawley. Simon notes that Hawley’s “Things That Think and Toys of Tomorrow projects prophesied so much of the ways in which our world would become digitally connected.”
MIT researchers have created an app that translates proteins into music, reports Eva Amsen of Forbes. This method could potentially be used to “make it easier to process very subtle changes that would be less obvious if you looked at the data visually,” Amsen explains.
Prof. Markus Buehler speaks with Ira Flatow of Science Friday about his research, which attempts to better understand and create new proteins by translating them into music. Buehler explains that they were able to listen to proteins after discovering that “amino acids have a unique frequency spectrum which we could then make audible using a concept of transposition.”
Diana Cai writes for STAT about Prof. Markus Buehler’s new research to turn amino acids into music. “Buehler thinks the technology could help in understanding genetic diseases caused by misfolded proteins,” writes Cai, noting that, “AI may conceivably ‘hear’ patterns of misfolding that could distinguish dangerous mutations from harmless ones.”
In a new study, Prof. Markus Buehler converted 20 types of amino acids into a 20-tone scale to create musical compositions. “Those altered compositions were converted back into a conceptual amino acid chain, which enabled the team to generate variations of proteins that have never been seen in nature,” writes Becky Ferreira for Motherboard.
The MIT Chorallaries, a co-ed a cappella group at MIT, compete in WGBH’s Sing That Thing! competition. “I have always been really interested in music, but also really enjoyed doing math and science in school,” explains third-year student Madeline Wong. “I feel like they are both integral parts of my life and I couldn’t have one without the other.”