This week in stories we’re covering from The Debrief, a new twist on gravity measurement, hidden in a mysterious envelope, may point to a subtle flaw in our understanding of the universe. Elsewhere, researchers are breaking the tiny bounds of Quantum mechanics by creating a massive Schrödinger cat particle under ultracold conditions. And finally, NASA officials just confirmed a rare event captured in satellite images that caused loud booms heard throughout New England.

Meanwhile, here’s a look at other stories we’re covering right now in our reporting at The Debrief: 

• Scientists Just Revealed Something Massive Has Been Hiding Beneath This New York Cemetery for More Than a Century
  Cornell University researchers have confirmed a massive, century-old underground discovery hidden below a New York cemetery.
• Exoplanet Magnetism Revealed in New Study Researchers Call a “Key Step” in Decoding the Survival of Planets
  The best evidence for exoplanet magnetic fields ever discovered has emerged from new research that measures wind speeds on ultra-hot Jupiters.
• “Explore a Scene from Any Vantage Point You Want”: 3D Volumetric Video Breakthrough Means Streaming in 3D May Soon Be a Reality
  A 3D volumetric video breakthrough, overcoming previous technological limitations, could finally enable true 3D streaming on everyday devices.
• “How in the World Can These Things Happen?”: After a Series of ‘Mystery’ Quakes Shook Utah, Scientists Finally Think They Know Why
  Nearly five decades after the first in a series of mystery quakes rocked the Utah-Wyoming region, scientists think they’ve figured it out.
• Astronomers Discover New Way to Weigh Planets Hidden Inside Dusty Disks
  Newborn planets’ dusty rings hold the secret to uncovering their mass, say researchers who have now characterized these once-obscured celestial objects.
• A Single Jawbone From Egypt Is Changing How Scientists Think About Ape Origins
  For much of the past century, fossils from East Africa have shaped our understanding of ape evolution. Now, a jawbone found in the Egyptian desert adds a new dimension to that story.
• Pavlov’s Mosquito: Pests Can Be Conditioned to See DEET as a Meal Ticket Instead of a Deterrent
  Mosquitoes may have surprisingly overcome one of humanity’s best defenses against them, associating the smell of DEET with a nearby meal.
• Einstein-Rosen Bridges May Not Be Wormholes After All, Physicists Reveal
  Recent research suggests that the original bridge theory was not a wormhole but a mathematical feature of how time is structured.
• Newly Discovered “Witch Croc” Reveals Dinosaur-Like Evolution in the Triassic
  A newly described fossil from Ghost Ranch, New Mexico, belongs to the crocodile family tree, but unlike most crocodile-line archosaurs, it walked on two legs, had small arms, and a toothless beak.
• Something Revealed Itself by Bending the Light of a Distant Star in 2019—Now Astronomers Are Racing to Find Out What It Was
  For just an hour in late 2019, a cosmic mystery revealed itself to astronomers in an unprecedented way: by bending the light of a star.
• “The Sun May be Entering a Different Mode of Behavior”: Scientists Say Something is Happening Beneath the Solar Surface
  The Sun is experiencing long-term changes, producing a major squeeze in the four most recent solar activity cycles.
• Asteroid Impact Craters May Have Helped Create Early Habitats for Oxygen-Producing Life
  Scientists studying an ancient asteroid crater on the Korean Peninsula have uncovered rock formations that may offer clues to the rise of atmospheric oxygen on Earth.
• Scientists Locked ‘Virtual’ Astronauts in a Moon Base with Equipment Failures, Moonquakes and Extreme Radiation. Here’s What Happened.
  Scientists locked virtual astronauts in a simulated Lunar Base with system failures and natural disasters and watched how they’d respond.

Residents of New England were startled over the weekend as a loud quaking boom shook the northeast, while many observers spotted a bright fireball streaking through the skies over the U.S. and Canada.

Now, NASA has confirmed that the energy released as a meteor exploded in the northeastern skies on May 30, 2026, was roughly equivalent to 230 tons of TNT. The resulting blast was also so bright that it registered in satellite imagery normally used to detect powerful lightning bolts.

Shortly after the incident, NASA took to social media, reporting that the GOES-19 satellite had detected a bright fireball at 2:06 p.m. EDT that coincided with reports of loud booms.

“The meteor appears to have fragmented at an altitude of 40 miles over northeast MA and southeast NH,” the NASA statement read, adding that at the time, the energy released as the object tore apart while streaking through the atmosphere was approximately the “equivalent to about 300 tons of TNT, which accounts for the loud noise.”

In the video above, provided by NOAA, imagery from the GOES East (GOES-19) satellite revealed the meteor, which the satellite’s sensors registered as a lightning bolt. The meteor appears approximately one second into the looped imagery above, seen as a bluish-white flash to the right of the center of the frame.

In a subsequent update issued on Monday, NASA officials have now revealed new details about the incident, confirming the object’s size, mass, and the approximate speed as it passed above the Earth.

“The meteor was about 5 feet (1.6 meters) in diameter with a mass of 5.6 metric tons and entered Earth’s atmosphere at roughly 42,000 mph,” NASA officials wrote in Monday’s statement. “The meteor traveled through the atmosphere from northwest to southeast for 26 miles before breaking up at an altitude of 31 miles and producing a meteorite fall into Cape Cod Bay.”

The NASA update also slightly downgraded the power of the blast that the exploding object produced.

“Based on the latest data, the energy released at breakup is estimated to be equivalent to about 230 tons of TNT,” NASA’s statement on Monday noted.

Fortunately, there were no injuries or damage to property or infrastructure resulting from the May 30 incident. However, some area residents who were present at the time of the explosion reported feeling buildings shaking on Saturday afternoon.

In a statement provided by the agency from its NASA Space Alerts account on X, which periodically issues notifications on “cosmic activity in near-Earth space including solar events, asteroids, comets, and meteors,” the agency noted that objects like the one observed over the northeast, while capable of producing loud noise, are generally not viewed as being potentially dangerous.

“NASA’s planetary defense network watches the skies for objects of all sizes – and specifically is tasked with finding objects 140 meters and larger which can cause widespread damage,” the notification read.

“Meteoroids, like this one over New England, are much much smaller,” the statement added, calling them “almost impossible to track in space” and adding that “they do not survive passage through our atmosphere intact and do not pose a hazard.”

Fortunately, larger and potentially more dangerous space objects aren’t as “impossible” for NASA to track. Presently, the American space agency and its international partners are tracking more than 40,000 larger near-Earth objects (NEOs) and are frequently discovering new ones as part of their broader planetary defense objectives.

The explosion heard over the northeast on Saturday marked only the latest in a series of similar incidents that have occurred in the early part of 2026.

On March 21, a meteor crashed through the roof of a Texas home, causing minor damage, although no injuries were reported. Also in March, a meteor that exploded above Ohio on Saint Patrick’s Day similarly alarmed residents, one of whom described the sound to The Debrief as having resembled “a nuclear explosion” due to its volume and duration.

NASA provides additional information about meteor reentries and their effects at its Fireballs FAQ page, which can be found here.

Micah Hanks is the Editor-in-Chief and Co-Founder of The Debrief. A longtime reporter on science, defense, and technology with a focus on space and astronomy, he can be reached at micah@thedebrief.org. Follow him on X @MicahHanks, and at micahhanks.com.

Hidden insights into the fall of meteors, long unrecognized in the observational data, are finally being revealed thanks to AI in new research out of Flagstaff, Arizona’s Lowell Observatory.

Detailed in a new paper published in Icarus, researchers used data from the Lowell Observatory Cameras for All-Sky Meteor Surveillance (LO-CAMS) network, part of the Global Meteor Network, which characterized over 28,000 meteor events.

Their work goes a long way toward expanding the parameters used to classify meteors, providing a much deeper understanding of what makes these space rocks so unique.

Meteors Explained

Meteors are objects that burn up in the sky in a brilliant streak across the sky, commonly called shooting or falling stars. Meteorites are those space rocks that manage to hold together and land on the Earth’s surface.

The terminology used to describe these objects can be confusing, as the distinction between a meteoroid, a meteor, and a meteorite may not always be readily apparent. When still in space, we call these rocks meteoroids, but as soon as they enter the Earth’s atmosphere, the differences are noted.

While meteors are a common sight in the night sky and have fascinated humans for millennia, there is still a great deal to learn about them, according to researchers at Lowell Observatory.

“Meteors have been observed for centuries, but only recently have we had datasets large and detailed enough to apply modern machine-learning methods,” said lead author Sam Hemmelgarn. “This allows us to extract physical information that was previously hidden in the data.”

Advancing Meteor Observations

Traditionally, only a few parameters were used to characterize meteors; the new work expanded this to 13, including speed, brightness, duration, height, and atmospheric density.

“Our goal was to move beyond traditional classification schemes,” said co-author Nick Moskovitz. “Modern meteor networks capture a wealth of observational information, and we wanted a framework that could fully take advantage of that.”

The team combined multiple machine learning algorithms to identify natural groupings in the data, which mirrored existing physical meteoroid models. Three key factors that dictate a meteor’s behavior upon atmospheric entry emerged from this analysis. These were its size and shape, how easily it heats up, also known as “activation,” and its path of travel.

“One of the most exciting results was how clearly the ‘activation’ behavior separated asteroidal material from cometary material,” Hemmelgarn explained. “That tells us we’re capturing something fundamentally physical, not just statistical patterns.”

A New Classification Scheme

As a result of their work, the researchers developed Hclass, a new classification system to identify a meteor’s hardness. On the hardest end of the new scale is dense material with a high iron content, generally associated with asteroids, while the distant end contains fragile, porous material likely to come from cometary debris.

The scheme in this new classification system is multi-layered, allowing for more general or more granular classifications depending on the researcher’s need. Additionally, it works with a broad range of datasets, from single digits to millions of observations.

“Hclass gives us a more nuanced view of meteoroid composition,” Hemmelgarn said. “It bridges the gap between classical meteor theory and the realities of modern, large-scale observations.”

The team tested their new scale by fitting data from known meteor showers to it and then examining how those matters behaved in real-world observations. Their validation was successful, with the meteors behaving as expected based on their classifications.

“This work shows that machine learning isn’t just about handling big data,” Moskovitz said. “It’s about turning those data into physical understanding of where this material comes from and how our solar system works.”

The paper, “A Machine Learning Approach to Meteor Classification,” appeared in Icarus on April 27, 2026.

Ryan Whalen covers science and technology for The Debrief. He holds an MA in History and a Master of Library and Information Science with a certificate in Data Science. He can be contacted at ryan@thedebrief.org, and follow him on Twitter @mdntwvlf.