Astronomers use the Webb to study a distant fast radio burst and reveal clues as to the origin of these mysterious events.

It's not too often that a high school student-turned undergraduate gets three galaxies named after him, especially ones that are breaking the rules of star formation. Julian Shapiro, an astrophysics student at the University of California, Berkeley, found strange dwarf galaxies in the vicinity of the large spiral M101 while doing research into their star formation rates as a high school student. They're now known as Shapiro I, II, and III. In the process, he's become an inspiration to other students who might be interested in astrophysical research.

In the early history of our solar system, scientists theorize that a Mars-sized object called Theia smashed into the infant Earth, creating the Earth-Moon system. Using Webb, astronomers are studying young star systems to learn more about the early Solar System's evolution.

Neutrinos are persnickety particles. We couldn't really detect neutrinos from deep space until Francis Halzen had a brilliant, Nobel Prize-winning idea.

NASA has selected a Planetary Science Institute-led proposal to investigate whether a potentially large underground cave extends beyond the opening of a lunar pit.

A surprising discovery suggests that Mars and Earth formed through different processes, which could help scientists confirm whether exoplanets are habitable.

According to stellar evolution models, there should be hundreds of millions of black holes floating around in our galaxy. But so far we’ve only found 70. That’s in large part because they are so hard to find, but a citizen science project from the University of Southampton is actively seeking out these hidden monsters with the help of tens of thousands of amateur astronomers through a project on Zooniverse called [Black Hole Hunters](https://www.zooniverse.org/projects/cobalt-lensing/black-hole-hunters).

According to new research, "wandering" black holes may have left an imprint on the Universe as they traveled for billions of years.

In recent decades, astronomers have found evidence that supermassive black holes can really mess with their galaxies' evolution. They gobble up material intended for star formation, quenching the birth of stars. Conversely, jets streaming away from those hungry monsters can also energize gas-rich regions and enhance the chances of a galaxy birthing batches of stars in those areas.

Global Positioning Systems are a key feature in everyday life for much of the world’s population. Whether it’s ensuring a ship delivers its goods safely, or you’re able to avoid a road closure on your commute home, GPS can help. But the system has a weakness - it relies on ground stations that could suffer from blackouts, natural disasters, or cyber attacks. And if those ground stations go offline for long enough, the whole system itself can begin to “drift”. Aerospace engineers have been attempting to counteract this problem for years, but so far with little success. But a new paper from a research team led by Xia Lin and Baojun Lin at the Shanghai Engineering Center for Microsatellites, and published in Satellite Navigation, explains a potential answer to this problem - link the GPS satellites up with some in orbit around the Moon.

Scientists know for certain the moon doesn’t currently have a magnetosphere. But they’ve been debating for decades about whether it ever did. Data from both Apollo samples and orbital scientific instruments have proven divisive, and so the debate still rages. But a new paper from researchers at ETH Zurich, DLR, and the Institute of Applied Geosciences hopes to resolve the debate once and for all - by definitively proving that the Moon did, indeed, once have a magnetic dynamo.

In a recent study, researchers at the international MEGATRON project used some of the most detailed simulations of the early Universe to investigate how the first stars and galaxies formed.

The core of the Milky Way is a dense, active, messy region, dominated by a supermassive black hole called Sagittarius A* (Sgr A*) hiding at the heart of the galaxy. But Sgr A* is only a supporting actor in this stunning new image from the Chandra X-ray Observatory.

Supermassive black holes generate tremendous amounts of energy through their accretion disks and jets. But they can also generate energy through the magnetic Penrose process. A new study looks at how we might observe this process through multimessenger astronomy.

Deep space travel comes with a huge potential downside - radiation exposure that can kill an astronaut either quickly or slowly over time if not managed correctly. But what exactly does that mean, and is there any way to handle it other than sticking more and more protective layers between the squishy biological systems inside a spacecraft and the radiative void of deep space? A new paper from researchers at Oklahoma State University and the University of Texas Health Science Center hopes to answer both questions, and while the causes of radiation they point out are complex, they also offer some potential solutions as well.

Heat shields are undeniably one of the most important parts of any spacecraft that intends to enter an atmosphere. And the material they are made out of is absolutely critical. Improving them has been a bit of a challenge though, as typically researchers only get “before” and “after” pictures of when the heat shield completes its job of helping a spacecraft land safely back on Earth. That changed recently, though, with a collaboration between NASA and the Advanced Light Source (ALS) located at Lawrence Berkeley National Laboratory, which allowed researchers to watch a heat shield fall apart in real time.

Using data from the Japan-led XRISM observatory, astronomers have directly observed a giant star’s stellar wind captured by its compact companion (triggering X-ray flares) for the first time.

Asteroid sample return missions have brought well preserved samples of the early solar system (that hadn’t been roasted in a fireball) back to Earth for the first time. But those samples, like the OSIRIS-REx sample from asteroid (101955) Bennu, sometimes provide more questions than answers. A new paper, published in Science Advances from researchers at ETH Zurich and Lawrence Livermore National Laboratory, highlights one of those questions - why Bennu appears to have been born in both the inner and outer solar system - and a possible answer to it.

NASA announced Wednesday a mission to explore the history and evolution of the universe, PRIMA (PRobe far-Infrared Mission for Astrophysics), is advancing to the next phase of development. This space telescope is the first in a new class of NASA astrophysics missions, called Probe Explorers, within the agency’s longstanding Explorers Program.

NASA’s Hubble Space Telescope completed its 200,000th orbit around Earth on Sept. 19th and marked this milestone with observations that could help refine astronomers' measurements of cosmic expansion (aka. the Hubble Constant).