- Ukraine’s Defense Ministry: AFU successfully advancing on several fronts in the south Meduza
- Russia-Ukraine War: Kyiv retakes string of settlements in Donetsk region | Latest World News | WION WION
- Russia-Ukraine war live: counteroffensive records ‘tactical successes’ as troops advance south – as it happened The Guardian
- Ukraine troops secure village as new push seeks momentum Yahoo News
- As Ukraine pushes to recapture territory, Russia moves ahead with elections in occupied areas. The New York Times
- View Full Coverage on Google News
Tag Archives: Successfully
NASA successfully tests new engine for deep space exploration
NASA announced that its engineers have developed and tested the agency’s first full-scale rotating detonation rocket engine (RDRE).
The agency said that the design could significantly change how future propulsion systems are built. The supersonic rocket engine uses detonation, with the design producing more power while using less fuel than today’s propulsion systems.
It has the potential to power both human landers and interplanetary vehicles to deep space destinations, like the moon or Mars.
NASA AND DARPA TO DEVELOP NUCLEAR THERMAL ROCKET ENGINE THAT MAY PUT HUMANS ON MARS: REPORT
Rotating detonation rocket engine, or RDRE hot fire test at Marshall Space Flight Center.
(NASA)
The engine was fired over a dozen times during testing conducted at the Alabama-based Marshall Space Flight Center’s East Test Area.
NASA said that the engine achieved its primary objective by demonstrating that its hardware could function for long periods of time while also withstanding the extreme heat and pressure environments generated by detonations. At full throttle, the RDRE produced more than 4,000 pounds of thrust for nearly a minute at an average chamber pressure of 622 pounds per square inch. That’s the highest pressure rating for this design on record.
NASA’S ARTEMIS I LAUNCH TO BRING US STEP CLOSER TO ‘SUSTAINABLE HUMAN FOOTPRINT ON THE MOON’
Notably, there was also the successful performance of both deep throttling and internal ignition.
The Rotating detonation rocket engine
(NASA)
“This successful demonstration brings the technology closer to being used with future flight vehicles, enabling NASA and commercial space to move more payload and mass to deep space destinations, an essential component to making space exploration more sustainable,” NASA said.
CLICK HERE TO GET THE FOX NEWS APP
Due to this recent success, additional work is being conducted by engineers to develop a fully reusable 10,000-pound class RDRE to identify performance benefits over traditional liquid rocket engines.
Live longer: Five factors common to 70% of people who age successfully
Optimal ageing is a complex blend of high cognitive and physical functioning and social components. Factors that determine our chances of successful ageing are also partly rooted in our genetic make-up, but many are within our control too. A new study followed 7,000 middle-aged Canadians to determine which factors are associated with excellent health in later life.
The findings of a new study published in the International Journal of Environmental Research and Public Health have uncovered multiple factors conducive to optimal ageing.
In keeping with other research-derived definitions, the concept of optimal ageing in the study included the absence of memory problems, freedom from mental illness and disabling pain, and adequate social support.
The study used data available from 7,651 respondents aged 60 years or older. The final sample, however, was restricted to patients in excellent health at baseline, which was 45 percent of respondents.
The first author of the study, Mabel Ho, a doctoral candidate at the Institute of Life Course and Ageing said she was surprised at the number of people who maintained excellent health over the three-year study.
READ MORE: Longevity doc shares tip for activating ‘gene’ that mitigates ageing
She said: “We were surprised and delighted to learn that more than 70 percent of our sample maintained their excellent state of health across the study period.
“Our findings underline the importance of a strength-based rather than a deficit-based focus on ageing and older adults.
“The media and researchers tend to ignore the positives and just focus on the problems.”
According to the data, three-quarters of respondents aged 55 to 64 at the start of the study maintained excellent health over the three-year period.
DON’T MISS:
Among those aged 80 and older, approximately half remained in excellent health.
The research found that participants who were more likely to maintain excellent health across the study had the following factors in common:
- They had never smoked
- They had no history of heart disease or arthritis
- They had higher incomes
- They did not have insomnia
- They were female
- They were not obese.
Those who had these factors in common were less likely to develop debilitating cognitive, physical or emotional problems.
“It is remarkable that half of those aged 80 and older maintained this extremely high bar of cognitive, physical and emotional well-being across the three years of the study,” added Doctor Ho.
READ MORE: Live longer – four expert tips to reduce your metabolic age
Older adults who never smoked were 46 percent more likely to maintain good health over the same period.
Regarding income, roughly half of individuals below the poverty line aged optimally compared to three-quarters of those living above the poverty line.
Compared to adults who were obese, those who had a normal weight were 24 percent more likely to age optimally.
The researchers hope the findings will help health practitioners and policymakers create an environment conducive to a healthy later life.
Days After China Clash, Agni V Successfully Tested, It Can Reach Beijing
The Agni V missile can hit targets more than 5,400 km away. (File)
New Delhi:
India has successfully carried out night trials of the Agni V nuclear-capable ballistic missile which can hit targets beyond 5,400 km, sources in the Defence Ministry said on Thursday, amid heightened tensions with China over clashes along the de facto border in Arunachal Pradesh last week.
The test was carried out to validate new technologies and equipment on the missile and has proved that the missile can now hit targets further away than before, they added.
The nuclear-capable ballistic missile was fired from Abdul Kalam Island, off the coast of Odisha. This is the ninth flight of the Agni V – a missile first tested in 2012 – and was a routine test, Defence Ministry sources said.
While the test was carried out days after the clashes, it had been planned earlier. India had announced its intention to test a long-range missile and issued a NOTAM or Notice to Airmen well before the incident in Arunachal’s Tawang.
With the incursion in Arunachal, China had tried to “unilaterally change the status quo” on the de facto border known as Line of Actual Control last week, triggering clashes that left troops on both sides injured, the government had said, adding that the attempt had been successfully repulsed.
The incident is thought to be the most serious on the nuclear-armed Asian giants’ disputed frontier since 2020 when 20 Indian troops and four Chinese soldiers died in brawling in Ladakh’s Galwan Valley.
China and India fought a full-scale war in 1962 over control of Arunachal Pradesh, which Beijing claims in its entirety and considers part of Tibet.
The clash in Tawang followed joint military exercises that irked Beijing last month between India and the United States in Uttarakhand, which borders China.
Splashdown! NASA’s Orion Successfully Returns to Earth After Historic Moon Mission
At 12:40 p.m. EST, December 11, 2022, NASA’s Orion spacecraft for the Artemis I mission splashed down in the Pacific Ocean after a 25.5 day mission to the Moon. Orion was recovered by NASA’s Landing and Recovery team, U.S. Navy, and Department of Defense partners aboard the USS Portland. Credit: NASA/Josh Valcarcel
Sunday at 9:40 a.m. PST,
Splashdown is the final milestone of the Artemis I mission that began with a successful liftoff of NASA’s Space Launch System (
“The splashdown of the Orion spacecraft – which occurred 50 years to the day of the Apollo 17 Moon landing – is the crowning achievement of Artemis I. From the launch of the world’s most powerful rocket to the exceptional journey around the Moon and back to Earth, this flight test is a major step forward in the Artemis Generation of lunar exploration,” said NASA Administrator Bill Nelson. “It wouldn’t be possible without the incredible NASA team. For years, thousands of individuals have poured themselves into this mission, which is inspiring the world to work together to reach untouched cosmic shores. Today is a huge win for NASA, the United States, our international partners, and all of humanity.”
NASA’s Orion spacecraft for the Artemis I mission was successfully recovered inside the well deck of the USS Portland on December 11, 2022, off the coast of Baja California. After launching atop the Space Launch System rocket on November 16, 2022, from the agency’s Kennedy Space Center in Florida, Orion spent 25.5 days in space before returning to Earth, completing the Artemis I mission. Credit: NASA/Kim Shiflett
During the mission, Orion performed two lunar flybys, coming within 80 miles (129 km) of the lunar surface. At its farthest distance during the mission, Orion traveled nearly 270,000 miles (435,000 km) from our home planet, more than 1,000 times farther than where the International Space Station orbits Earth, to intentionally stress systems before flying with crew onboard.
“With Orion safely returned to Earth we can begin to see our next mission on the horizon which will fly crew to the Moon for the first time as a part of the next era of exploration,” said Jim Free, NASA associate administrator for the Exploration Systems Development Mission Directorate. “This begins our path to a regular cadence of missions and a sustained human presence at the Moon for scientific discovery and to prepare for human missions to 
Prior to entering the Earth’s atmosphere, the crew module separated from its service module, which is the propulsive powerhouse provided by ESA (European Space Agency). During re-entry, Orion endured temperatures about half as hot as the surface of the Sun at about 5,000 degrees 
Recovery teams are now working to secure Orion for the journey home. NASA leads the interagency landing and recovery team on the USS Portland, which consists of personnel and assets from the U.S. Department of Defense, including Navy amphibious specialists, Space Force weather specialists, and Air Force specialists, as well as engineers and technicians from NASA Kennedy, the agency’s Johnson Space Center in Houston, and Lockheed Martin Space Operations.
In the coming days, Orion will return to shore where technicians will offload the spacecraft and transfer it by truck back to Kennedy. Once at Kennedy, teams will open the hatch and unload several payloads, including Commander Moonikin Campos, the space biology experiments, Snoopy, and the official flight kit. Next, the capsule and its heat shield will undergo testing and analysis over the course of several months.
Artemis I was the first integrated test of NASA’s deep space exploration systems — the Orion spacecraft, SLS rocket, and the supporting ground systems — and was supported by thousands of people around the world, from contractors who built the spacecraft and rocket, and the ground infrastructure needed to launch them, to international and university partners, to small businesses supplying subsystems and components.
Through Artemis missions, NASA will land the first woman and the first person of color on the surface of the Moon, paving the way for a long-term lunar presence and serving as a stepping stone for astronauts on the way to Mars.
NASA’s Orion Spacecraft Successfully Breaks Free From Lunar Orbit
It’s day 16 of the 25.5-day Artemis 1 mission, which means it’s time for the Orion spacecraft to begin its journey back home. The uncrewed capsule departed distant retrograde orbit on Thursday afternoon following a successful exit burn.
Update: December 1, 5:02 p.m. ET: NASA declared a “nominal burn,” which began at 4:54 p.m. ET and lasted for one minute and 45 seconds. Orion will now leave distant retrograde orbit and perform a flyby of the Moon as it charts a course back home.
Original post follows.
Orion successfully entered into distant retrograde orbit (DRO) on November 25, but now the spacecraft will move to a trajectory that will take it back to Earth. The requisite departure burn is scheduled for today at 4:53 p.m. ET, with NASA coverage starting at 4:30 p.m. ET. You can follow along at NASA TV, YouTube, or at the live stream below.
The DRO departure burn will send Orion on a trajectory that will take it to within 80 miles (128 kilometers) of the lunar surface, which will happen on December 5, or day 20 of the Artemis 1 mission. During this close lunar approach, Orion will perform another course correction burn at 11:43 a.m. ET. NASA expects to gather more detailed images of the Moon during the flyby, similar to Orion’s first lunar flyby on November 21.
More on this story: NASA’s Orion sends back haunting new views of the Moon’s tortured surface
Orion made history earlier this week when it reached its maximum distance from Earth. At approximately 268,558 miles (432,194 km) from home, it’s the farthest that any crew-rated vehicle has ventured away from our home planet.
G/O Media may get a commission
Orion launched to space atop NASA’s Space Launch System (SLS) rocket on November 16. The purpose of this, the debut mission of the Artemis era, is for NASA to demonstrate the new rocket and an uncrewed Orion spacecraft. For Artemis 2, currently scheduled for 2024, NASA will perform a repeat of this mission but with four astronauts along for the ride. This is all prelude to the ultimate goal: landing a man and a woman on the lunar surface later this decade.
Artemis 1 appears to be going exceptionally well, with both SLS and Orion doing exactly what they’re supposed to do. The mission management team met yesterday, giving the “go” to proceed with today’s DRO departure burn.
“We are continuing to collect flight test data and buy down risk for crewed flight,” Mike Sarafin, Artemis mission manager, said in a statement. “We continue to learn how the system is performing, where our margins are, and how to operate and work with the vehicle as an integrated team.”
Orion will reach Earth on December 11 and perform a splashdown in the Pacific Ocean at 12:42 p.m. ET. Well, assuming the spacecraft survives atmospheric reentry, in which Orion’s heat shield must endure temperatures in excess of 5,000 degrees Fahrenheit.
More: Gifts for the spaceflight enthusiast in your life
NASA’s Orion crew vehicle successfully completes Moon flyby
NASA’s Orion spacecraft has one of the key maneuvers of its maiden journey: during which it got as close as 81 miles to the lunar surface. This was important for a few reasons, not least because it marked a critical test for the propulsion system.
carried out four trajectory correction burns on its way to the Moon, but this time around, the orbital maneuvering system engine fired for 2 minutes and 30 seconds. This accelerated Orion at a rate of more than 580MPH. At the time the burn started, the uncrewed spacecraft was traveling at 5,023MPH, 238 miles above the Moon. Shortly after the burn, it was 81 miles above the lunar surface and it was traveling at 5,102MPH.
The flyby burn was one of two necessary maneuvers for Orion to enter its retrograde orbit around the Moon. Next up is the distant retrograde orbit insertion burn, which is slated to take place on Friday at 4:52PM ET. Orion will remain in this orbit for around a week to test various systems, including guidance, navigation, communication, power and thermal control. Of note, the distant retrograde orbit will take Orion 40,000 miles past the Moon. The spacecraft is scheduled to return to Earth on December 11th.
will reveal more details about the flyby burn and offer updates on post-launch assessments for the Space Launch System rocket and Exploration Ground Systems (including the launch tower) at a press conference on Monday at 5PM ET. Meanwhile, engineers have been looking into RAM faults in the star tracker system, which have been resolved with power cycles. Another team examined an issue that has caused one of the eight service mobile units suppling solar array power to the crew module to open on a few occasions without a command. there have been no mission impacts as a result of these hiccups.
All products recommended by Engadget are selected by our editorial team, independent of our parent company. Some of our stories include affiliate links. If you buy something through one of these links, we may earn an affiliate commission. All prices are correct at the time of publishing.
The first cubesat to fly and operate at the Moon has successfully arrived
Enlarge / The CAPSTONE payload is seen here, atop an Electron rocket in New Zealand.
Rocket Lab
After a journey of nearly five months, taking it far beyond the Moon and back, the little CAPSTONE spacecraft has successfully entered into lunar orbit.
“We received confirmation that CAPSTONE arrived in near-rectilinear halo orbit, and that is a huge, huge step for the agency,” said NASA’s chief of exploration systems development, Jim Free, on Sunday evening. “It just completed its first insertion burn a few minutes ago. And over the next few days they’ll continue to refine its orbit, and be the first cubesat to fly and operate at the Moon.”
This is an important orbit for NASA, and a special one, because it is really stable, requiring just a tiny amount of propellant to hold position. At its closest point to the Moon, this roughly week-long orbit passes within 3,000 km of the lunar surface, and at other points it is 70,000 km away. NASA plans to build a small space station, called the Lunar Gateway, here later this decade.
But before then, the agency is starting small. CAPSTONE is a scrappy, commercial mission that was supported financially, in part, by a $13.7 million grant from NASA. Developed by a Colorado-based company named Advanced Space, with help from Terran Orbital, the spacecraft itself is modestly sized, just a 12U cubesat with a mass of around 25 kg. It could fit comfortably inside a mini-refrigerator.
The spacecraft launched at the end of June on an Electron rocket from New Zealand. Electron is the smallest rocket to launch a payload to the Moon, and its manufacturer, Rocket Lab, stressed the capabilities of the booster and its Photon upper stage to the maximum to send CAPSTONE on its long journey to the Moon. This was Rocket Lab’s first deep space mission.
After separating from its rocket, the spacecraft spent nearly five months traveling to the Moon, following what’s known as a ballistic lunar transfer that uses the Sun’s gravity to follow an expansive trajectory. Along the way, flight controllers managed to solve a spinning issue that otherwise could have led to loss of the spacecraft. This was a roundabout path, bringing the spacecraft to a distance of more than three times that between the Earth and Moon before arcing back, but required relatively little propellant to reach its destination.
For example, the burn executed by CAPSTONE on Sunday evening to transition into a near-rectilinear halo orbit was extremely tiny. According to Advanced Space, the vehicle burned its thruster for 16 minutes at about 0.44 Newtons, which is equivalent to the weight of about nine pieces of standard printer paper.
CAPSTONE will not only serve as a pathfinder in this new orbit—verifying the theoretical properties modeled by NASA engineers—it will also demonstrate a new system of autonomous navigation around and near the Moon. This Cislunar Autonomous Positioning System, or CAPS, is important because there is a lack of fixed tracking assets near the Moon, especially as the cislunar environment becomes more crowded during the coming decade.
The mission is planned to operate for at least six months in this orbit.
DART mission successfully changed motion of an asteroid
Sign up for CNN’s Wonder Theory science newsletter. Explore the universe with news on fascinating discoveries, scientific advancements and more.
CNN
—
The Double Asteroid Redirection Test successfully changed the trajectory of the asteroid Dimorphos when the NASA spacecraft intentionally slammed into the space rock on September 26, according to the agency.
The DART mission, a full-scale demonstration of deflection technology, was the world’s first conducted on behalf of planetary defense. The mission was also the first time humanity intentionally changed the motion of a celestial object in space.
Prior to impact, it took Dimorphos 11 hours and 55 minutes to orbit its larger parent asteroid Didymos. Astronomers used ground-based telescopes to measure how Dimorphos’ orbit changed after impact.
Now, it takes Dimorphos 11 hours and 23 minutes to circle Didymos. The DART spacecraft changed the moonlet asteroid’s orbit by 32 minutes.
Initially, astronomers expected DART to be a success if it shortened the trajectory by 10 minutes.
“All of us have a responsibility to protect our home planet. After all, it’s the only one we have,” said NASA Administrator Bill Nelson.
“This mission shows that NASA is trying to be ready for whatever the universe throws at us. NASA has proven we are serious as a defender of the planet. This is a watershed moment for planetary defense and all of humanity, demonstrating commitment from NASA’s exceptional team and partners from around the world.”
Neither Dimorphos nor Didymos pose a threat to Earth, but the double-asteroid system was a perfect target to test deflection technology, according to the DART team.
“For the first time ever, humanity has changed the orbit of a planetary object,” said Lori Glaze, director of the Planetary Science Division at NASA.
“As new data come in each day, astronomers will be able to better assess whether, and how, a mission like DART could be used in the future to help protect Earth from a collision with an asteroid if we ever discover one headed our way.”
The DART team continues to gather data by observing the double-asteroid system, and the orbital measurement may become more precise in the future. Currently, there is an uncertainty of plus or minus two minutes.
A new image of Dimorphos, captured by the Hubble Space Telescope, shows that the debris trail’s cometlike tail has split into two. Scientists are still working to understand the significance of the split.
The team is now focusing on measuring how much momentum was transferred from DART to Dimorphos. At the time of impact, the spacecraft was moving at about 14,000 miles per hour (22,530 kilometers per hour). Astronomers will analyze the amount of rocks and dust blasted into space after impact.
The DART team believes that the recoil from the plume “substantially enhanced” the spacecraft’s push against the asteroid, not unlike the release of air from a balloon propels it in the opposite direction, according to NASA.
“Although we have done more to the system than simply change the orbit, we may have left Dimorphos wobbling a bit,” said Tom Statler, DART program scientist at NASA. “So over time, there may be some interaction between the wobble and the orbit and things will adjust. But it’s certainly never going to go back to the old 11 hour 55 minute orbit.”
Astronomers are still investigating the surface of Dimorphos and how weak or strong it is. The DART team’s first look at Dimorphos, provided by DART before the crash, suggests that the asteroid is a pile of rubble held together by gravity.
Imagery continues to return from the Light Italian CubeSat for Imaging of Asteroids, or LICIACube, the mini satellite provided by the Italian Space Agency that tagged along as a robotic photojournalist on DART’s mission.
In about four years, the European Space Agency’s Hera mission will also fly by the double-asteroid system to study the crater left by the collision and measure the mass of Dimorphos.
“DART has given us some fascinating data about both asteroid properties and the effectiveness of a kinetic impactor as a planetary defense technology,” said Nancy Chabot, the DART coordination lead from the Johns Hopkins University Applied Physics Laboratory in Laurel, Maryland. “The DART team is continuing to work on this rich dataset to fully understand this first planetary defense test of asteroid deflection.”
The research team chose Dimorphos for this mission because its size is comparable to asteroids that could pose a threat to Earth. An asteroid the size of Dimorphos could cause “regional devastation” if it hit Earth.
Near-Earth objects are asteroids and comets with an orbit that places them within 30 million miles (48.3 million kilometers) from Earth. Detecting the threat of near-Earth objects that could cause grave harm is a primary focus of NASA and other space organizations around the world.
No asteroids are currently on a direct impact course with Earth, but more than 27,000 near-Earth asteroids exist in all shapes and sizes.
Finding populations of hazardous asteroids and determining their sizes are priorities of NASA and its international partners. The design for a space-based telescope called the Near-Earth Object Surveyor mission is currently in review.
“We should not be too eager to say that one test on one asteroid tells us exactly how every other asteroid would behave in a similar situation,” Statler said. “But what we can do is use this test as an anchor point for our physics calculations in our simulations that tell us how different kinds of impacts in different situations should behave.”
Scientists Successfully Create Diamonds Out of Bottle Plastic
In the experiment, a thin sheet of simple PET plastic was shot with a laser. The strong laser flashes that hit the foil-like material sample briefly heated it up to 6000 degrees Celsius and thus generated a shock wave that compressed the matter to millions of times the atmospheric pressure for a few nanoseconds. The scientists were able to determine that tiny diamonds, so-called nanodiamonds, formed under extreme pressure. Credit: HZDR / Blaurock
A research team utilizes laser flashes to replicate the interior of ice planets, which inspires a new method of creating tiny diamonds.
What transpires inside planets like
Extreme conditions occur in the interior of large icy planets like Neptune and Uranus, with pressure millions of times higher than on Earth and temperatures that can reach several thousand degrees
“PET has a good balance between carbon, hydrogen, and oxygen to simulate the activity in ice planets,” Kraus explains.
The team carried out their research using the Linac Coherent Light Source (LCLS), a powerful, accelerator-based X-ray laser, at the SLAC National Accelerator Laboratory in California. They utilized it to analyze what transpires when powerful laser flashes hit a PET film while simultaneously using two measuring techniques: X-ray diffraction to detect if nanodiamonds were created and so-called small-angle scattering to see how fast and how big the diamonds grew.
Oxygen facilitates the process
“The effect of the oxygen was to accelerate the splitting of the carbon and hydrogen and thus encourage the formation of nanodiamonds,” says Dominik Kraus, reporting on the results. “It meant the carbon atoms could combine more easily and form diamonds.” This further supports the assumption that it literally rains diamonds inside the ice giants. The findings are probably not just relevant to Uranus and Neptune but to innumerable other planets in our galaxy as well. While such ice giants used to be thought of as rarities, it now seems clear that they are probably the most common form of planets outside the solar system.
The team also encountered hints of another kind: In combination with the diamonds, water should be produced – but in an unusual variant. “So-called superionic water may have formed,” Kraus opines. “The oxygen atoms form a crystal lattice in which the hydrogen nuclei move around freely.” Because the nuclei are electrically charged, superionic water can conduct electric current and thus help to create the ice giants’ magnetic field. In their experiments, however, the research group was not yet able to unequivocally prove the existence of superionic water in the mixture with diamonds. This is planned to happen in close collaboration with the University of Rostock at the European XFEL in Hamburg, the world’s most powerful X-ray laser. There, HZDR heads the international user consortium HIBEF which offers ideal conditions for experiments of this kind.
Precision plant for nanodiamonds
In addition to this rather fundamental knowledge, the new experiment also opens up perspectives for a technical application: the tailored production of nanometer-sized diamonds, which are already included in abrasives and polishing agents. In the future, they are supposed to be used as highly-sensitive quantum sensors, medical contrast agents and efficient reaction accelerators, for splitting
CO2 for example. “So far, diamonds of this kind have mainly been produced by detonating explosives,” Kraus explains. “With the help of laser flashes, they could be manufactured much more cleanly in the future.”
The scientists’ vision: A high-performance laser fires ten flashes per second at a PET film which is illuminated by the beam at intervals of a tenth of a second. The nanodiamonds thus created shoot out of the film and land in a collecting tank filled with water. There they are decelerated and can then be filtered and effectively harvested. The essential advantage of this method in contrast to production by explosives is that “the nanodiamonds could be custom cut with regard to size or even doping with other atoms,” Dominik Kraus emphasizes. “The X-ray laser means we have a lab tool that can precisely control the diamonds’ growth.”
Reference: “Diamond formation kinetics in shock-compressed C─H─O samples recorded by small-angle x-ray scattering and x-ray diffraction” by Zhiyu He, Melanie Rödel, Julian Lütgert, Armin Bergermann, Mandy Bethkenhagen, Deniza Chekrygina, Thomas E. Cowan, Adrien Descamps, Martin French, Eric Galtier, Arianna E. Gleason, Griffin D. Glenn, Siegfried H. Glenzer, Yuichi Inubushi, Nicholas J. Hartley, Jean-Alexis Hernandez, Benjamin Heuser, Oliver S. Humphries, Nobuki Kamimura, Kento Katagiri, Dimitri Khaghani, Hae Ja Lee, Emma E. McBride, Kohei Miyanishi, Bob Nagler, Benjamin Ofori-Okai, Norimasa Ozaki, Silvia Pandolfi, Chongbing Qu, Divyanshu Ranjan, Ronald Redmer, Christopher Schoenwaelder, Anja K. Schuster, Michael G. Stevenson, Keiichi Sueda, Tadashi Togashi, Tommaso Vinci, Katja Voigt, Jan Vorberger, Makina Yabashi, Toshinori Yabuuchi, Lisa M. V. Zinta, Alessandra Ravasio and Dominik Kraus, 2 September 2022, Science Advances.
DOI: 10.1126/sciadv.abo0617