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The Prototype: New Bacteria Discovered On Chinese Space Station

The Prototype: New Bacteria Discovered On Chinese Space Station

Forbes23-05-2025
In this week's edition of The Prototype, we look at whether we should worry about spaceborne bacteria, a clinical trial for regenerating nerves after a traumatic injury, a new class of electronics and more. You can sign up to get The Prototype in your inbox here.
A Chinese spacecraft returning from the Tiangong space station
A previously unknown strain of bacteria is living on Chain's Tiangong space station, according to a study published this week. The new microorganisms were discovered on swabs taken from the station. The news immediately brought the novel (and movie) The Andromeda Strain into my brain, which is about a disease that makes it to Earth from space by way of a government satellite.
Luckily, Amesh Adalja, a senior scholar at the Johns Hopkins Center for Health Security, reassured me that any microorganisms found in space aren't likely to cause a new pandemic. 'It's important to remember that the vast, vast majority of bacterial organisms are not going to cause any harm,' he said.
One thing to consider about these types of microbes, he said, is that their ability to adapt to one extreme environment does not mean they will thrive in another environment that it's not adapted to.' And to determine whether such an organism might pose a disease risk, it's important to consider whether they can survive in human bodies. If they can, do they even cause any harm? Odds are, they don't, he said. 'Most bacteria that live on or in us aren't harmful,' he said.
Even if a new microorganism adapted to space or some other environment were to cause disease, humans still wouldn't necessarily be helpless, Adalja said. That's because lots of microorganisms share characteristics with each other, meaning the study of a new pathogen's data, like its DNA, can help researchers determine ways to find a treatment or vaccine.
Stay tuned.
Auxilium Biotechnologies
Over 300,000 people every year experience an accident that causes damage to their peripheral nerves–those that exist outside of the brain and spinal cord. These injuries can be serious and lead to disability in some cases. There's no easy way to treat them, either. When repairs are possible, they often require surgically grafting a portion of a healthy nerve from another part of the body to the injured one. Sometimes that canlead to difficult complications and side effects like chronic pain.
San Diego-based Auxilium Biotechnologies has a different approach. It's developed a device it calls a NeuroSpan Bridge, which it hopes will enable damaged nerves to regenerate into health. It does this by physically guiding the nerves to grow in a single direction to repair the damage. The company announced this week that it will begin a clinical trial of 80 nerve trauma patients with its device.
Nerves do actually regenerate naturally, CEO and cofounder Jacob Koffler, who is also a professor of neuroscience at UC San Diego, told me. But the problem is that 'the nerve goes wherever it wants,' he said. It doesn't necessarily reconnect with the rest of the healthy nerve. 'What we bring to the table is a technology that organizes regeneration' by guiding the regenerated nerves directly to the healthy one. The company has already successfully demonstrated the device in mice, so humans are the next step.
The clinical trial will take about a year, Koffler said. If results are good, the company would then work to seek a green light from the FDA to commercialize its device.
Scientists at Rutgers University have created 'intercrystals' - a new substance that could power the electronics of the future. It consists of two layers of graphene, each one atom thick, which are laid on top of a crystal made from boron and nitrogen. The result is a structural pattern in the chemistry that allows a very efficient transmission of electrons that can be refined on the atomic level. The researchers behind the discovery say it could someday lead to more efficient electronics materials such as sensors or transistors. Even more importantly–all the components are cheap. 'Because these structures can be made out of abundant, non-toxic elements such as carbon, boron and nitrogen, rather than rare earth elements, they also offer a more sustainable and scalable pathway for future technologies,' researcher Eva Andrei said in a press release about the discovery.
NASA says that a 'cumulative multi-year budget reduction' will force cutbacks in crew size and scientific research on board the International Space Station. NASA is currently considering operating the U.S. portion of the station with a three person crew, rather than four. There are also fewer planned cargo flights to the International Space Station, which will reduce revenues for contractors like SpaceX and Northrop Grumman. It's not clear yet whether NASA will be able to continue to support private missions to the ISS, such as those from SpaceX purchased by Axiom Space.
I wrote about Abel Avellan, whose company AST SpaceMobile is taking on SpaceX and Jeff Bezos' Project Kuiper in the battle to provide broadband satellite internet directly to your smartphone. This would enable connectivity in remote areas and help the over 2.6 billion people who currently lack regular internet access o get online.
In my other newsletter, InnovationRx, Amy Feldman and I looked at the FDA's new COVID-19 vaccine rules, Novartis's acquisition strategy, Medtronic's diabetes spinoff, Regeneron's purchase of 23AndMe, and more.
Recycling electronics might get easier thanks to researchers at the University of Helsinki, who figured out a way to extract silver from old electronics with used cooking oil.
Funding for scientific research is at its lowest point in 35 years, reports the New York Times, with nearly every field being impacted by the slowdown in grants from the National Science Foundation.
Energy infrastructure projects tend to be over budget and behind schedule, a new study finds. Nuclear power plants are the worst offenders. If you want the best bang for your energy investment buck, build a solar power project–they tend to finish under budget or ahead of schedule.
Researchers built a new kind of lithium battery that works by pulling carbon dioxide out of the atmosphere. Previous attempts at this kind of chemistry tended to be expensive and not work well, but the new version could allow them to scale cheaply. And good news for Elon Musk–they're ideal for Mars, where the atmosphere is 95% carbon dioxide.
One of the downfalls of restrictive dieting to lose weight is that pretty soon you start craving certain foods–and once you give in after prolonged abstinence, you may start binging, which can derail your diet completely. A new study suggests a better way: eat what you crave. During the study, a group of people on a diet were encouraged to include the foods they love, even junk food, into otherwise balanced meals. That group of people not only lost more weight, they also reported fewer food cravings than those who didn't incorporate such foods into their meal plans.
One of the comforts of the streaming era is the chance to finally get around to shows that you missed the first time. Right now, for example, I'm watching Boardwalk Empire, which aired on HBO from 2009 to 2014. The series is centered on organized crime and corruption in Atlantic City during the Prohibition era, using real-life characters like Al Capone, Lucky Luciano and Meyer Lansky. Steve Buscemi is excellent in the lead role and it's a great watch for anyone who's into a good mob drama. All episodes are streaming on Max–or HBO Max–or whatever we're calling it now.
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Pope Leo XIV marks 56th anniversary of moon landing with observatory visit, call to Buzz Aldrin
Pope Leo XIV marks 56th anniversary of moon landing with observatory visit, call to Buzz Aldrin

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Pope Leo XIV marks 56th anniversary of moon landing with observatory visit, call to Buzz Aldrin

ROME (AP) — Pope Leo XIV marked the 56th anniversary of man's arrival on the moon Sunday with a visit to the Vatican astronomical observatory in Castel Gandolfo and a call to astronaut Buzz Aldrin. After praying the Sunday Angelus at his summer retreat in Castel Gandolfo, Leo headed to the astronomical observatory located in the Pontifical Villas, where he took a close look at the telescopes that have supported celestial exploration from a faith-based perspective for decades. The pontiff was accompanied by astronomers and students participating in the traditional summer school organized by the observatory. This was Pope Leo's first visit to the observatory, founded in 1891 by Leo XIII. The first vision of it, however, can be traced back to the establishment by Pope Gregory XIII of a commission aimed at studying the scientific data and implications of the calendar reform that took place in 1582. The Vatican Observatory has generated top-notch research from its scientist-clerics, drawing academics to its meteorite collection, which includes bits of Mars and is considered among the world's best. Later Sunday, the pope called astronaut Buzz Aldrin, who shared with Neil Armstrong and Michael Collins the historic 1969 moonwalk. 'This evening, 56 years after the Apollo 11 moon landing, I spoke with the astronaut Buzz Aldrin,' Pope Leo wrote on his X account. 'Together we shared the memory of a historic feat, a testimony to human ingenuity, and we reflected on the mystery and greatness of Creation.' Pope Leo then blessed the astronaut, his family and his collaborators. There are a few precedents of papal calls to 'space.' In 2011, Pope Benedict XVI rang the space station and asked about the future of the planet and the environmental risks it faced. Before Benedict, Pope Paul VI sent a radio message to astronauts Armstrong, Aldrin and Collins after their moonwalk, calling them 'conquerors of the Moon.'

Does red light therapy help with anti-aging?
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(NewsNation) — With the help of social media, red light therapy has become a popular treatment for skin conditions, wrinkles, redness, scars and acne. But before TikTokers, there were astronauts. NASA originally began working with red light therapy, a non-invasive treatment that uses red or near-infrared light, on plant growth in space and later found it helped heal astronauts' wounds. RLT is accessible in some dermatologists' offices, which offer in-office treatments. Devices are also sold for at-home treatment. AI pen can detect Parkinson's disease through handwriting Regular RLT treatments may help with improving skin health and cosmetic appearance by increasing collagen in the skin, increasing circulation between blood and tissue cells, and reducing fine lines and the severity of wrinkles in the skin, a National Institutes of Health study found. RLT has not been associated with any side effects if used short-term and with a dermatologist consultation. The treatment also does not use ultraviolet (UV) lights, which has been linked to increased cancer risk. Copyright 2025 Nexstar Media, Inc. All rights reserved. This material may not be published, broadcast, rewritten, or redistributed. Solve the daily Crossword

NASA's Roman Space Telescope could discover 100,000 new cosmic explosions: 'We're definitely expecting the unexpected'
NASA's Roman Space Telescope could discover 100,000 new cosmic explosions: 'We're definitely expecting the unexpected'

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When you buy through links on our articles, Future and its syndication partners may earn a commission. It's little wonder that astronomers are excited for the launch of NASA's next big space telescope project, the Nancy Grace Roman Telescope. Recent research has suggested that Roman, currently set to launch no later than May 2027, will discover as many as 100,000 powerful cosmic explosions as it conducts the High-Latitude Time-Domain Survey observation program. These powerful and violent events will include supernovas that signal the deaths of massive stars, kilonovas, which happen when two of the universe's most extreme dead stars, or "neutron stars," slam together, and "burps" of feeding supermassive black holes. Roman could even detect the explosive destruction of the universe's first generation of stars. These explosions could help scientists crack the mystery of dark energy, the placeholder name for the strange force that is causing the expansion of the universe to accelerate, and a multitude of other cosmic conundrums. "Whether you want to explore dark energy, dying stars, galactic powerhouses, or probably even entirely new things we've never seen before, this survey will be a gold mine," research leader Benjamin Rose, an assistant professor at Baylor University, said in a statement. Roman will hunt white dwarfs that go boom! The High-Latitude Time-Domain Survey will obtain its explosive results by scanning the same large region of space every five days for a period of two years. These observations will then be "stitched together" to create movies revealing a wealth of cosmic explosions. Many of these will be Type Ia supernovas, a type of cosmic explosion that occurs when a "dead star" or white dwarf feeds on a companion star so ravenously that it blows its top. These cosmic explosions are vital to astronomers because their light output and peak brightness are so regular from event to event that they can be used to measure cosmic distances. This regularity means astronomers refer to Type Ia supernovas as "standard candles." This new research, which simulated Roman's entire High-Latitude Time-Domain Survey, suggests the space telescope could reveal up to 27,000 new Type Ia supernovas. That is about 10 times as many of these white dwarf destroying explosions as the combined harvest of all previous surveys. By looking at standard candles across differing vast distances, astronomers are essentially looking back into cosmic time, and that allows them to determine how fast the universe was expanding at these times. Thus, such a wealth of Type Ia supernovas should reveal hints at the secrets of dark energy. This could help verify recent findings from the Dark Energy Spectroscopic Instrument (DESI) that suggest this strange force is actually weakening over time. "Filling these data gaps could also fill in gaps in our understanding of dark energy," Rose explained. "Evidence is mounting that dark energy has changed over time, and Roman will help us understand that change by exploring cosmic history in ways other telescopes can't." Dying stars tell the tale of the stellar life cycle The team estimates that as many as 60,000 of the 100,000 cosmic explosions that could be detected by Roman will be so-called "core collapse supernovas." These occur when massive stars at least 8 times heavier than the sun reach the end of their nuclear fuel and can no longer support themselves against gravitational collapse. As these stars' cores rapidly collapse, the outer layers are blasted away in supernovas, spreading the elements forged by these stars through the cosmos to become the building blocks of the next generation of stars, their planets, and maybe even lifeforms dwelling on said planets. Core collapse supernovas leave behind either neutron stars or black holes, depending on the mass of the progenitor star. This means that while they can't help unravel the mystery of dark energy like Type Ia supernovas may, they can tell the tale of stellar life and death. "By seeing the way an object's light changes over time and splitting it into spectra — individual colors with patterns that reveal information about the object that emitted the light—we can distinguish between all the different types of flashes Roman will see," research team member Rebekah Hounsell from NASA's Goddard Space Flight Center explained. "With the dataset we've created, scientists can train machine-learning algorithms to distinguish between different types of objects and sift through Roman's downpour of data to find them. "While searching for Type Ia supernovas, Roman is going to collect a lot of cosmic 'bycatch'—other phenomena that aren't useful to some scientists, but will be invaluable to others." Rare cosmic gems and pure gold kilonovas One of the rarer events that Roman could also detect occurs when black holes devour unfortunate stars that wander too close to them. During these tidal disruption events (TDEs), the doomed star is ripped apart by the tremendous gravitational influence of the black hole via the immense tidal forces it generates. Though much of the star is consumed by the black hole, these cosmic titans are messy eaters, meaning the vast amount of that stellar material is vomited out at velocities approaching the speed of light. This jet of matter and the stellar material of the destroyed star that settles around the black hole in a flattened swirling cloud called an accretion disk generate emissions across the electromagnetic spectrum. Roman will hunt these emissions to detect TDEs, with this team predicting that the High-Latitude Time-Domain Survey will turn up around 40 of these star-destroying events. Even more elusive than TDEs are kilonovas, explosive bursts of light that occur when two neutron stars smash together and merge. The team estimates that Roman could uncover around 5 new kilonovas, and while this is a small harvest, these observations could be vital to understanding where precious metals like gold and silver come from. Though most of the elements we see around us are generated at the heart of stars, even these stellar furnaces lack the pressures and temperatures needed to form elements heavier than iron. The environments around neutron star collisions are thought to be the only furnaces in the cosmos extreme enough to generate elements like gold, silver and plutonium. These would start life as even heavier elements that are unstable and rapidly decay. This decay releases the light seen as kilonovas, and thus studying that light is vital to understanding that process. The study of kilonovas could also help determine what types of celestial bodies are created when neutron stars merge. This could be an even larger neutron star that rapidly collapses into a black hole, an immediately formed black hole, or something entirely new and unthought of. Thus far, astronomers have only definitively confirmed the detection of one kilonova, meaning even another five would be a real boon to science. Roman looks for instability in the first stars Perhaps the most exciting cosmic explosion discovery that Roman could make would be the observation of the strange explosive death of the universe's first stars. Currently, it is theorized that these early massive stars may have died differently than modern stars. Rather than undergoing the core collapse described above, gamma-rays within the first stars could have generated matter-antimatter pairs in the form of electrons and positrons. These particles would meet and annihilate each other within the star, and this would release energy, resulting in a self-detonation called a "pair-instability supernova.' These blasts are so powerful that it is theorized that they leave nothing behind, barring the fingerprint of elements generated during that star's lifetime. As of yet, astronomers have dozens of candidates for pair-instability supernovas, but none have been confirmed. The team's simulation suggests that Roman could turn up as many as ten confirmed pair-instability supernovas. "I think Roman will make the first confirmed detection of a pair-instability supernova," Rose said. "They're incredibly far away and very rare, so you need a telescope that can survey a lot of the sky at a deep exposure level in near-infrared light, and that's Roman." Related Stories: — New kind of pulsar may explain how mysterious 'black widow' systems evolve — Hear 'black widow' pulsar's song as it destroys companion —NASA X-ray spacecraft reveals secrets of a powerful, spinning neutron star The team intends to perform a further simulation of Roman's study of the cosmos, which could indicate its capability to spot and even wider array of powerful and violent events, maybe even some that haven't yet been theorized. "Roman's going to find a whole bunch of weird and wonderful things out in space, including some we haven't even thought of yet," Hounsell concluded. "We're definitely expecting the unexpected." This research was published on Tuesday (July 15) in The Astrophysical Journal. Solve the daily Crossword

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