James Webb images Tc 1 nebula

- Western University astronomers released a new James Webb mid-infrared image of planetary nebula Tc 1 on April 22, 2026, revisiting the first known cosmic buckyball site. (news.westernu.ca) - The image combines nine MIRI filters from 5.6 to 25.5 microns, showing hotter gas in blue, cooler material in red, and a puzzling question-mark feature. (news.westernu.ca) - It matters because Tc 1 already changed astrochemistry in 2010, when Spitzer data showed C60 and C70 fullerenes there for the first time. (nature.com)

A planetary nebula is what a Sun-like star leaves behind when it sheds its outer layers and exposes a hot stellar core. Tc 1 is one of those wreckage fields — but not a routine one. (news.westernu.ca)e, and now a new James Webb image is giving that old result a much sharper physical setting. Western University’s team released the new view on April 22, 2026, using Webb’s Mid-Infrared Instrument, or MIRI. (news.westernu.ca) ### Why does Tc 1 matter so much? Tc 1 was already famous before this image. In 2010, Ja(nature.com)0 and C70 fullerenes there — carbon molecules shaped like cages, with C60 looking like a soccer ball. That was a big deal because fullerenes had been made in labs for decades, but space detections had stayed elusive. (nature.com) ### What changed now? The new thing is not the existence of buckyballs themselves. It is the view. Webb’s MIRI gave the team a first detailed mid-infrared image of the nebula, letting them map s(news.westernu.ca)rring chemistry from older spectra. The release came from a new JWST General Observer program led by Cami. (news.westernu.ca) ### What are we actually looking at? This image combines nine filters spanning 5.6 to 25.5 microns — wavelengths your eyes cannot see. The color is therefore translated for humans. Blu(nature.com)hs, while red traces cooler material at longer wavelengths. That is why the nebula looks like blue inner glow wrapped in red filaments and shells. (news.westernu.ca) ### Why use mid-infrared at all? Because Tc 1 is really a dust-and-molecule story. Visible-light images can show shape, but mid-infrared light is where wa(news.westernu.ca)t for exactly that range — roughly 5 to 28 microns — so Webb can separate structures that older instruments blurred together. Basically, it is the difference between seeing smoke and seeing the layers inside the smoke. (jwst-docs.stsci.edu) ### What is the “soccer ball molecule” claim? That nickname refers to C60 buckminsterful(news.westernu.ca) was the first place in space where astronomers nailed down that molecule, along with C70. Earlier work suggested the fullerene signal dominates Tc 1’s infrared spectrum and may account for about 1.5% of the nebula’s carbon — roughly three Moon masses in fullerene material. (nature.com) ### What is the weird question-mark shape? The new image shows an upside-down question-mark-like feature near th(jwst-docs.stsci.edu)elf framed it as a sign that Tc 1’s internal structure is more complicated than earlier pictures suggested. In other words, Webb gave astronomers a sharper mystery, not just a prettier poster. (news.westernu.ca) ### So what does this unlock? The real payoff is spatial context. Astronomers now have a much better map of where the hot gas, cooler dust, and likely fullerene-rich regi(nature.com)the harder question — not just whether buckyballs exist in space, but how dying stars make them and how those carbon cages survive long enough to drift into the wider interstellar medium. (news.westernu.ca) ### Bottom line This Tc 1 image is not just another gorgeous Webb nebula shot. It is a new look at the original cosmic buckybal(news.westernu.ca)mistry maps in disguise. (news.westernu.ca)

Get your own daily briefing

Scout delivers personalized news, insights, and conversations tailored to your role and industry.

Download on the App Store

Shared from Scout - Be the smartest in the room.