The bearded vulture (Gypaetus barbatus) is a very large bird of prey in the monotypic genus Gypaetus. It is vernacularly known as the Homa, a bird in Iranian mythology. The bearded vulture is the only known vertebrate whose diet consists of 70 to 90 per cent bone. It lives and breeds on crags in high mountains in Iran, southern Europe, East Africa, the Indian subcontinent, Tibet, and the Caucasus. The bearded vulture population is thought to be in decline; since 2014, it has been classified as near threatened on the IUCN Red List. Bearded vultures are 94 to 125 centimetres (37 to 49 inches) long, with a wingspan of 2.31 to 2.83 metres (7.6 to 9.3 feet). This bearded vulture was photographed carrying a piece of carrion in the Alps in Switzerland, where the species was reintroduced in the late 20th century after having become locally extinct in the early 20th century. Photograph credit: Giles Laurent Recently featured: London King's Cross railway station Daft Punk Eastern quoll Archive More featured pictures

Bacteria wouldn’t be so bad if we could tell them what to do. “Stop spreading! Stop sticking together! Stop fending off our antibiotics!” A new method is starting to allow scientists to do just that, letting them use light to control certain functions of bacteria. Introduced in a paper published in The European Physical Journal Plus, the preliminary approach could have several potential applications, including a possible avenue for combating antibiotic resistance.The Problem of Antibacterial Resistance Bacteria are behind a variety of diseases, from strep to staph to pneumonia and meningitis, and they attack our bodies in a variety of ways, as well, including through the production of toxins that damage and disrupt our cells. Some of these infections stop on their own, but others are too stubborn, or too serious, to leave untreated. These are the infections that we target with antibiotics — that is, as long as our antibiotics are working.But, because bacteria are constantly changing, they can develop defenses against the antibiotics that we use to stave them off, making these treatments much less effective. That’s the gist of the growing threat posed by antibiotic resistance, which has contributed to millions of deaths since 1990 and is anticipated to contribute to millions more by 2050. Setting out to find a new solution to this growing problem, scientists from the Italian Institute of Technology and the Polytechnic University of Milan embarked on the Engineering of Bacteria to See Light (EOS) project. The project aims to use light to control bacteria, primarily for the fight against antibiotic resistance. And the new method pushes the project closer to achieving that aim. Using light and light-sensitive molecules to adjust the electrical signals that are transmitted across the bacterial membrane, the method impacts the biological activity of bacteria without any alterations to their genetic makeup.“This interplay between light and electrical [signaling] allows us to control key biological processes such as movement, biofilm formation, and antibiotic sensitivity,” said Giuseppe Maria Paternò, a study author and a professor at the Polytechnic University of Milan, according to a press release. “We can influence antibiotic uptake and restore or even enhance the effectiveness of treatments against resistant strains.”Coating Bacteria to Curb Antibiotic ResistanceTo control bacteria, the method takes advantage of a light-sensitive molecule called Ziapin2, which sticks to the bacterial surface. By covering bacteria with this light-sensitive molecule and by subjecting the covered bacteria to light, the scientists were able to modify the electrical signals that were transmitted across their bacterial membranes, transforming the bacteria’s basic functioning. Testing their method on one of the most studied bacterial species, the scientists changed the electrical signaling across the membranes of Bacillus subtilis, a popular model organism that’s often used as a stand-in for Staphylococcus aureus, the bacterium that causes staphylococcus, or staph, infections.When tested, the method modulated the bacteria’s susceptibility to Kanamycin, an intracellular antibiotic that’s frequently used as a treatment for severe bacterial infections after other treatments fail. “Under blue light,” Paternò said in the release, “the effectiveness of Kanamycin was significantly reduced,” indicating that the electrical signaling on the bacterial membrane “plays a crucial role in the drug’s uptake.”Additional research is required to tailor the method to increase the effectiveness of Kanamycin and other antibiotics against bacteria. But for now, it seems that such an outcome could be possible. “This initial assessment […] represents a first step in a completely new field of study,” the scientists state in their paper. “This proof-of-concept study underscores the potential of non-genetic, light-based interventions to modulate bacterial susceptibility in real time. Future work will expand this approach […] ultimately advancing our understanding of bacterial bioelectric regulation and its applications in antimicrobial therapies.”This article is not offering medical advice and should be used for informational purposes only.Article SourcesOur writers at Discovermagazine.com use peer-reviewed studies and high-quality sources for our articles, and our editors review for scientific accuracy and editorial standards. Review the sources used below for this article:The European Physical Journal Plus. Photocontrol of Bacterial Membrane Potential Regulates Antibiotic Persistence in B. SubtilisSam Walters is a journalist covering archaeology, paleontology, ecology, and evolution for Discover, along with an assortment of other topics. Before joining the Discover team as an assistant editor in 2022, Sam studied journalism at Northwestern University in Evanston, Illinois.

Great star corals in the grip of disease have been saved with probiotics — beneficial bacteria that attack or displace invading pathogens or possibly trigger immune responses to them. What’s causing this deadly disease remains unidentified. But researchers at the Smithsonian Marine Station in Fort Pierce, Fla., were able to successfully halt progression of the disease’s symptoms, the team reports June 5 in Frontiers in Marine Science. The condition is called stony coral tissue loss disease and is characterized by white lesions that lead to the loss of polyps — tiny soft-bodied organisms similar to sea anemones — blanketing coral. Eventually, nothing but the white coral skeleton is left behind. The disease emerged in Florida in 2014 and has spread rampantly throughout the Florida Keys and the Caribbean. A great star coral (M. cavernosa) colony is infected with stony coral tissue loss disease on the coral reef in Fort Lauderdale. The lesion, where the white band of tissue occurs, typically moves across the coral, killing coral tissue along the way. Kelly Pitts/Smithsonian Researchers suspect that the disease is bacterial in nature. Antibiotic treatments can offer a quick fix, but these drugs do not prevent reinfection and carry the risk of the mysterious pathogen building resistance against them. So, in late 2020, the Smithsonian group tried for a more sustainable solution, giving probiotics to 30 infected great star coral colonies. The helpful microbes came from corals tested in the lab that showed resistance to the disease. “We noticed that one of the coral fragments would not get infected … so one of the first things we did was try to culture the microbes that are on this coral,” says microbiologist Blake Ushijima, who developed the probiotic used in the team’s experiment. “These microbes produce antibacterial compounds … and one had a high level of activity against bacteria from diseased corals,” acting as a “pro” biotic, by somehow neutralizing pathogens. The identified microbe, a bacterium called McH1-7, became the active ingredient in a paste delivered by divers to several infected colonies. They covered these colonies with plastic bags to immerse them in the probiotic solution, injecting the paste into the bags using a syringe. They also applied the paste directly to other colonies, slathering lesions caused by the disease. A probiotic paste of McH1-7 is applied to the disease lesion of a great star coral (M. cavernosa) colony infected with stony coral tissue loss disease. The paste was then smoothed flat with a gloved hand so that all apparently infected tissue was covered by the lesion-specific treatment.Kelly Pitts/Smithsonian For two and a half years, the team monitored the corals’ health. The probiotics slowed or stopped the disease from spreading in all eight colonies treated inside bags. On average, the disease’s ugly advance was held to only 7 percent of tissue, compared with an aggressive 30 percent on untreated colonies. The paste put directly on the coral had no beneficial effect. The results are encouraging, but coauthor Valerie Paul cautions against declaring the probiotic a cure. She doubts the practicality of swimming around with heavily weighted plastic bags and putting them on corals. And, she points out, the study was limited to one species of coral, when the disease plagues over 30. Sponsor Message Still, Ushijima considers the study a proof of concept. “The idea of coral probiotics has been thrown around for decades, but no one has directly shown their effects on disease in the wild,” he says. “I think it’s very exciting because it’s actually opening the door to a new field.”

Get the Popular Science daily newsletter💡 Breakthroughs, discoveries, and DIY tips sent every weekday. Probiotics are everywhere, claiming to help us poop, restore gut health, and more. They can also be used to help threatened coral reefs. A bacterial probiotic has helped slow the spread of stony coral tissue loss disease (SCTLD) in wild corals in Florida that were already infected with the disease. The findings are detailed in a study published June 5 in the journal Frontiers in Marine Science and show that applying this new probiotic treatment across coral colines helped prevent further tissue loss. What is stony coral tissue loss disease (SCTLD)? SCTLD first emerged in Florida in 2014. In the 11 years since, it has rapidly spread throughout the Caribbean. This mysterious ailment has been confirmed in at least 20 other countries and territories. Other coral pathogens typically target specific species. SCTLD infects more than 30 different species of stony corals, including pillar corals and brain corals. The disease causes the soft tissue in the corals to slough off, leaving behind white patches of exposed skeleton. The disease can devastate an entire coral colony in only a few weeks to months.  A great star coral (Montastraea cavernosa) colony infected with stony coral tissue lossdisease (SCTLD) on the coral reef in Fort Lauderdale, FL. The lesion, where the white band of tissue occurs, typically moves across the coral, killing coral tissue along the way. CREDIT: KellyPitts, Smithsonian. The exact cause of SCTLD is still unknown, but it appears to be linked to some kind of harmful bacteria. Currently, the most common treatment for SCTLD is using a paste that contains the antibiotic amoxicillin on diseased corals. However, antibiotics are not a silver bullet. This amoxicillin balm can temporarily halt SCTLD’s spread, but it needs to be frequently reapplied to the lesions on the corals. This takes time and resources, while increasing the likelihood that the microbes causing SCTLD might develop resistance to amoxicillin and related antibiotics. “Antibiotics do not stop future outbreaks,” Valerie Paul, a study co-author and the head scientist at the Smithsonian Marine Station at Fort Pierce, Florida, said in a statement. “The disease can quickly come back, even on the same coral colonies that have been treated.” Finding the right probiotic Paul and her colleagues have spent over six years investigating whether beneficial microorganisms (aka probiotics) could be a longer lasting alternative to combat this pathogen. Just like humans, corals are host to communities known as microbiomes that are bustling with all different types of bacteria. Some of these miniscule organisms produce antioxidants and vitamins that can help keep their coral hosts healthy.  First, the team looked at the microbiomes of corals that are impervious to SCTLD to try and harvest probiotics from these disease-resistant species. In theory, these could be used to strengthen the microbiomes of susceptible corals.  They tested over 200 strains of bacteria from disease-resistant corals and published a study in 2023 about the probiotic Pseudoalteromonas sp. McH1-7 (or McH1-7 for short). Taken from the great star coral (Montastraea cavernosa), this probiotic produces several antibacterial compounds. Having such a stacked antibacterial toolbox made McH1-7 an ideal candidate to combat a pathogen like SCTLD. They initially tested McH1-7 on live pieces of M. cavernosa and found that the probiotic reliably prevented the spread of SCTLD in the lab. After these successful lab tests, the wild ocean called next. Testing in the ocean The team conducted several field tests on a shallow reef near Fort Lauderdale, focusing on 40 M. cavernosa colonies that showed signs of SCTLD. Some of the corals in these colonies received a paste containing the probiotic McH1-7 that was applied directly to the disease lesions. They treated the other corals with a solution of seawater containing McH1-7 and covered them using weighted plastic bags. The probiotics were administered inside the bag in order to cover the entire coral colony.   “This created a little mini-aquarium that kept the probiotics around each coral colony,” Paul said. For two and a half years, they monitored the colonies, taking multiple rounds of tissue and mucus samples to see how the corals’ microbiomes were changing over time. They found that  the McH1-7 probiotic successfully slowed the spread of SCTLD when it was delivered to the entire colony using the bag and solution method. According to the samples, the probiotic was effective without dominating the corals’ natural microbes.  Kelly Pitts, a research technician with the Smithsonian Marine Station at Ft. Pierce, Floridaand co-lead author of the study treats great star coral (Montaststraea cavernosa) colonies infected with SCTLD with probiotic strain McH1-7 by covering the coral colony in a plastic bag, injecting a probiotic bacteria solution into the bag and leaving the bag for two hours to allow for the bacteria to colonize on the coral. CREDIT: Hunter Noren. Fighting nature with nature While using this probiotic appears to be an effective treatment for SCTLD among the reefs of northern Florida, additional work is needed to see how it could work in other regions. Similar tests on reefs in the Florida Keys have been conducted, with mixed preliminary results, likely due to regional differences in SCTLD. The team believes that probiotics still could become a crucial tool for combatting SCTLD across the Caribbean, especially as scientists fine tune how to administer them. Importantly, these beneficial bacteria support what corals already do naturally.  “Corals are naturally rich with bacteria and it’s not surprising that the bacterial composition is important for their health,” Paul said. “We’re trying to figure out which bacteria can make these vibrant microbiomes even stronger.”

These Australian Cockatoos Learned to Operate Drinking Fountains With Their Feet to Quench Their Thirst Birds in Sydney’s western suburbs have figured out how to get a sip from the fountains, even though they have access to nearby streams Cockatoos in the western suburbs of Sydney, Australia, will wait in line for a taste of drinking fountain water. Klump et al., Biology Letters, 2025 Australia’s suburban-dwelling cockatoos are adept at picking up new skills. The clever birds had already figured out how to open trash cans to access scraps in neighborhoods outside Sydney—and now, scientists have observed others using their claws to turn on drinking fountains. Barbara Klump, a behavioral ecologist now at the University of Vienna, first noticed the cockatoos drinking from public water fountains west of Sydney in 2018. She thought someone had forgotten to turn off the water, but video footage from her research project showed a bird operating the handle with its foot. “Then, of course, a million questions went through my mind,” she tells Gemma Conroy at the New York Times. “How the hell did it figure that out?” Now, after monitoring cockatoos with wildlife cameras placed near one drinking fountain in Sydney’s western suburbs, Klump and her research team have confirmed that the birds regularly do this in local parks—something local wildlife experts also told her, per the New York Times. Over 44 days, the team recorded nearly 14 hours of the cockatoos around the fountain. The birds made 525 drinking attempts, of which 41 percent were successful. The findings were published Wednesday in the journal Biology Letters. Smart cockatoos use their beaks and claws to drink from water fountain Watch on Turning on the water fountains takes skill, so it makes sense that not all attempts worked out. To quench their thirst, the birds would place one foot on the fountain’s stem and the other on the spring-loaded handle, twisting it clockwise by leaning their body weight. “It’s a bit of an awkward body position they have to hold, but it’s pretty impressive,” says Lucy Aplin, an ecologist at the Australian National University and a study co-author, to Peter de Kruijff at the Australian Broadcasting Corporation. The researchers don’t yet understand why the birds go through the effort of maneuvering the fountains when there are easily accessible streams and creeks nearby. At the fountains, meanwhile, the cockatoos will wait for as long as ten minutes to get a turn to drink. “They appear to be quite willing to queue for a considerable amount of time,” Aplin says to Science News’ Jake Buehler. One possibility is that the birds have gotten a taste for the purer water coming from the fountains, explains Klump to Jack Tamisiea at Science. Or, the birds may prefer the height of the fountain, as drinking from a ground source leaves them less able to see predators like eagles and falcons. Spending time at the fountains could also be a form of social cohesion for the birds. “I think all three are possible,” Aplin says to Science News. The cockatoos might also just enjoy turning on the fountains, adds Alice Auersperg, a cognitive biologist at the University of Veterinary Medicine, Vienna, who was not involved in the research, to the Australian Broadcasting Corporation. “If there is no super urgent need and you’re not dying of thirst, then why not do something you enjoy?” Klump says to the New York Times. For now, the fountain drinking behavior hasn’t spread widely among Sydney’s cockatoos. The researchers looked through the citizen science platform Big City Birds, but they didn’t find any evidence of the behavior happening outside of the western suburbs. That’s unlike the species’ trash bin-opening habit, which has inconvenienced homeowners across at least 44 different suburbs. Residents in Brisbane, Australia, however, have also spotted cockatoos drinking from water fountains, Alpin says to the New York Times. The birds don’t migrate, so the two populations couldn’t have learned the behavior from each other. This suggests there’s potential for the “independent invention of the behavior and local spread in other places,” Alpin adds. Given their cleverness, it might not be long until more cockatoos are drinking from Australia’s fountains. Klump tells Science that she believes the birds are likely to come up with more ways to operate them, even fountains that turn on in a different way. “They’re so innovative and good at problem solving that they seem to eventually figure out a solution,” says Klump. “In a weird way, cockatoos constantly surprise me, but I’m also never that surprised.” Get the latest stories in your inbox every weekday.

A Deadly Disease Is Eating Away at Caribbean Corals and Wreaking Havoc on Reefs. Could Probiotics Be the Solution? New research suggests the probiotic McH1-7 could help stop the spread of stony coral tissue loss disease among wild corals near Fort Lauderdale, Florida Scientists determined the most effective method of halting the disease was covering a coral colony with a weighted plastic bag, then injecting a seawater solution that contains the probiotic. They left the colony covered for two hours to allow the probiotic bacteria to colonize the coral. Hunter Noren Probiotics can be good for human health. Now, new research suggests they might also help protect coral reefs. A bacterial probiotic helped slow the advance of stony coral tissue loss disease—a fast-spreading and deadly condition—among wild corals in Florida, researchers report today in a new study published in the journal Frontiers in Marine Science. The probiotic may be a good alternative to antibiotics like amoxicillin, which temporarily curb the spread of the disease but must be reapplied frequently. In addition, scientists fear stony coral tissue loss disease may one day become resistant to these antibiotic treatments—just as “superbugs” that infect humans are building resistance to our own drugs. Antibiotics are meant to kill microorganisms, but probiotics are beneficial living microbes. The idea is that a probiotic can be incorporated into corals’ natural microbiomes, ideally offering them longer-lasting protection. First discovered in Florida in 2014, stony coral tissue loss disease attacks the soft tissue of more than 30 different species of coral. Without treatment, the disease eventually kills the corals, and their soft tissue falls off, revealing the white calcium carbonate skeleton below. In just weeks or months, it can devastate a whole colony. Stony coral tissue loss disease can be spread by fish that eat coral, as well as by boaters and divers who do not disinfect their gear. The condition has since expanded its range beyond Florida to reefs throughout the Caribbean. Several years ago, researchers looking at the great star coral (Montastraea cavernosa) discovered a probiotic called Pseudoalteromonas sp. strain McH1-7. Laboratory tests showed McH1-7 stopped or slowed the progression of stony coral tissue loss disease in infected corals. It also helped prevent the disease from spreading to healthy corals. But that was in the lab. Would McH1-7 be similarly effective in the ocean? Researchers were eager to find out, so they set up an experiment on a shallow reef off the coast of Fort Lauderdale. Study co-author Kelly Pitts, a research technician with the Smithsonian Marine Station, applies a paste containing the probiotic directly onto the disease lesion of an infected coral. Hunter Noren Experimenting with wild corals For the study, the scientists focused on 40 great star coral colonies that were showing symptoms of stony coral tissue loss disease. In one experimental condition, the researchers made a paste that contained McH1-7 and applied it directly onto the disease lesions. For comparison, they also applied the same paste, minus the probiotic, to some corals. In another condition, they covered infected coral colonies with weighted plastic bags, then filled the bags with seawater solutions made with and without McH1-7. They left the corals covered for two hours. “This created a little mini-aquarium that kept the probiotics around each coral colony,” says study co-author Valerie Paul, head scientist at the Smithsonian Marine Station at Fort Pierce, Florida, in a statement. The scientists completed all the treatments within the first 4.5 months of the project. Then, they returned periodically to gather tissue and mucus samples from the corals to measure changes to their microbiomes. Over the next 2.5 years, they took photos from a variety of different angles, which they then used to create 3D models that could track the disease’s progression. In the end, the results suggest covering the corals with plastic bags filled with the probiotic seawater solution was the most effective method. More than two years post-treatment, the colonies that received the probiotic bag had lost just 7 percent of their tissue, while colonies in the control bag condition faced 35 percent tissue loss. Scientists applied a probiotic paste directly to disease lesions on some corals. Kelly Pitts The probiotic paste, by contrast, appears to have made the situation worse: The corals that had the probiotic paste applied directly to their lesions lost more tissue than those treated with the control paste, which did not contain McH1-7. “We do not really know what is going on with the probiotic paste treatment,” Paul tells Smithsonian magazine in an email. But she has a few theories. It’s possible the high concentrations of McH1-7 contributed to localized hypoxia, or low-oxygen conditions that further harmed the already stressed corals, she says. Or, the probiotic could have changed the microbiome at the lesion site in some negative way. Another possibility is that McH1-7 produces antibiotics or other substances that were harmful at high concentrations. Amanda Alker, a marine microbiologist at the University of Rhode Island who was not involved with the study, wonders if this finding suggests McH1-7 is beneficial at specific dosages—a question future laboratory research might be able to answer, she tells Smithsonian magazine in an email. She’s also curious to know which specific molecular components of the probiotic are responsible for the increased tissue loss when applied as a paste. More broadly, Alker would like to see additional experiments validating the bag treatment method, but she says this “inventive” technique seems promising. “Their approach is a safer solution than antibiotic treatment methods that have been deployed to combat [stony coral tissue loss disease] in the field so far,” she says. “Further, this is a practical solution that could be implemented widely because it doesn’t require highly specialized equipment and has the ability to be used with any type of microbial solution.” Looking ahead to save reefs Probiotics are likely not a silver bullet for protecting corals. For one, researchers still don’t know exactly what causes stony coral tissue loss disease, which makes it difficult to determine how or why the probiotic works, Paul says. In addition, since the disease has spread to many different parts of the Caribbean, it might be challenging to use the bag treatment technique on all affected colonies. “We would need to develop better methods of deploying the probiotic through time release formulations or other ways to scale up treatments,” Paul says. “Right now, having divers swim around underwater with weighted bags is not a very scalable method.” The researchers have also conducted similar experiments on infected corals located farther south, in the Florida Keys. However, these tests have produced mixed results, probably because of regional differences in stony coral tissue loss disease. This is another hurdle scientists will likely need to overcome if they hope to expand the use of probiotics. “We probably need to develop different probiotics for different coral species and different regions of the Caribbean,” Paul says. Researchers returned to gather samples of tissues and mucus to see how the corals' microbiomes had changed. Hunter Noren Even so, scientists are heartened by the results of the experiments conducted near Fort Lauderdale. With more research, the findings suggest probiotics could be a promising tool for combatting the disease elsewhere. “Coral probiotics is a challenging field, because there are hundreds of different types of bacteria that associate with corals, and there are limitless experiments that need to be performed,” Amy Apprill, a marine chemist at Woods Hole Oceanographic Institution who was not involved with the research, tells Smithsonian magazine in an email. “These researchers made a major advance with their study by demonstrating the utility of whole colony treatment as well as the specific probiotic tested.” Apprill adds that, while antibiotics have been widely used to control stony coral tissue loss disease, scientists haven’t conducted much research to see how these treatments are affecting the plants and creatures that live nearby. “Using a naturally occurring bacterium for disease treatment may result in lessened impacts to other members of the coral reef ecosystem,” she says. Amid rising ocean temperatures, scientists expect to find even more diseased coral colonies in the future. Warmer waters may also allow other pathogens to thrive and proliferate. Against that backdrop, Apprill adds, probiotics and the different methods of applying them will be “major allies” in the fight to save coral reefs. Paul is also optimistic. Through research and field studies, she’s confident researchers will be able to develop interventions that can “help corals better survive changing environments and respond better to diseases and bleaching,” she says. Get the latest stories in your inbox every weekday.

F1 25 is a near-perfect mix of realism and playability that offers much of the drama from the real-life sport and a sprinkling of fiction and, uh, Brad Pitt just becauseTech18:11, 02 Jun 2025This year's game looks better than everIn many ways, writing an F1 25 review should be the easiest of this year’s critical assessments. Codemasters is legendary for its commitment to digital recreations of automotive competition (I’ve been playing its games since TOCA on the PS1 ), and having the F1 licence means it’ll always be cutting-edge in terms of racers, tracks, and more.If you’re an F1 fan, you’ve almost certainly already bought it, and while non-fans of sports games will baulk at paying for a “roster update” each year, Codemasters simply refuses to coast, keeping its foot firmly on the gas and moving from last year’s podium finish to Championship-winning form with this year’s entry.‌Conditions can be treacherous‌Last year’s F1 24 was easily one of the most impressive games to look at on PS5 Pro, and while Codemasters had talked a good game about visual fidelity , I wasn’t sure it would be able to take much of a realistic step beyond.And yet, F1 25 is frequently stunning. In motion, it’s hard to see anything wholly new, but that’s more down to the speed at which you’ll be taking corners of meticulously detailed tracks. Slow things down a tad, though, and you’ll find things a little less sterile than they had been.Whereas F1 24 circuits felt a little too clean at times, there’s a little more dirt here and there, more wear on the track, and even correctly identified tree species in tracks that have been scanned via LiDAR.Article continues belowIt’s likely an ongoing process, with Bahrain, Miami, Melbourne, Suzuka and Imola getting the scanned treatment so far, but it’s an impressive taste of what’s to come and could mean upcoming games look even better.On track, the handling model feels much breezier. You can still crank up the difficulty by leaving the assists in the pits, but cars feel more responsive than ever.You’ll need that, too, because some tracks can be driven in reverse (complete with mirrored pit lanes).‌You can still race, but you'll pick one of your stars to "follow" for the weekendThe crown jewel of this year’s entry, however, is My Team. The mode has always been solid, but lacking in ambition, but this year sees Codemasters really go to town on its underlying machinery.While you’ll no longer be some team owner/driver hybrid superstar like Tony Stark in Iron Man 2, that adds an interesting new flavour to the mode. You’ll start as boss of an existing team or form your own, and then hire drivers, work to improve your car, and try to woo sponsors.‌Because you’re no longer racing yourself, there are more magnanimous decisions to be made about car parts. Research costs time, manufacturing costs money, and then you’re left to decide which of your racers gets the added boost.Consistently upsetting one can see them look elsewhere, while you can plan for next season’s drivers right from the off, making a Lewis Hamilton-esque switch to a rival a pressing concern throughout the year.While much of My Team takes place in menus, they all feel dynamic enough to feel much more enjoyable than you might expect, and while it doesn’t get quite as deep as F1 Manager, it’s still full of potential.‌You can even sneak some star power onto the grid, too, taking the reins of Brad Pitt’s racing team from the upcoming F1 movie , or signing iconic former drivers to build a dream lineup.As an aside, I love that EA is experimenting with things like this in its career modes, especially since EA FC added Icons to its own version. Long may it continue.Konnersport are now vying for titles(Image: EA)‌Another big return this year comes from Braking Point , marking its third instalment. The mode that essentially condenses a season’s worth of drama into playable chunks with a healthy dose of inspiration from Netflix ’s Drive to Survive is back as part of its “one season off, one season on” cadence.It’s packed with sporting cliches and no small amount of cheese, but it humanises a sport that can sometimes feel more focuses on cutting seconds off a lap than it can the drivers doing that work.After years of building a team, Konnersport is finally competing for the Championship, and players can switch between their driver roster to achieve different objectives, and there’s an alternative ending for those willing to commit.Article continues belowF1 25 is the best entry in years, with changes big and small piling up to offer a truly immersive and feature-packed title.My Team will get the plaudits (and rightfully so), but Braking Point’s return and Codemasters’ continued commitment to realism shouldn’t be forgotten.Reviewed on PS5 Pro. Review copy provided by the publisher.‌‌‌

Nearly two decades ago, scientists made an alarming discovery in upstate New York: Bats, the world’s only flying mammal, were becoming infected with a new, deadly fungal disease that, in some cases, could wipe out an entire colony in a matter of months. Since then, the disease — later called white-nose syndrome — has spread across much of the country, utterly decimating North American bats that hibernate in caves and killing over 90 percent of three bat species. According to some scientists, WNS has caused “the most precipitous wildlife decline in the past century in North America.” These declines have clear consequences for human populations — for you, even if you don’t like bats or visit caves. Bats eat insect pests, such as moths and beetles. And as they decline, farmers need to spray more pesticides. Scientists have linked the loss of bats in the US to an increase in insecticide use on farmland and, remarkably, to a rise in infant deaths. Insecticide chemicals are known to harm the health of newborns. The only reason we know any of this is because of a somewhat obscure government program in the US Geological Survey (USGS), an agency nested within the Interior Department. That program, known as the Ecosystems Mission Area (EMA), is the biological research division of Interior. Among other functions, it monitors environmental contaminants, the spread of invasive species, and the health of the nation’s wildlife, including bees, birds, and bats.White-nose syndrome, a fungal disease, has caused massive declines in a handful of bat species, including the tricolored bat, shown here in flight. J. Scott Altenbach/Bat Conservation InternationalThe Ecosystems Mission Area, which has around 1,200 employees, produces the premier science revealing how animals and ecosystems that Americans rely on are changing and what we can do to keep them intact — or risk our own health and economy. This program is now at an imminent risk of disappearing.Send us a confidential tipAre you a current or former federal employee with knowledge about the Trump administration’s attacks on wildlife protections? Reach out to Vox environmental correspondent Benji Jones on Signal at benji.90 or at benji.jones@vox.com or at benjijones@protonmail.com.In the White House’s 2026 budget request, the Trump administration asked Congress to slash funding for EMA by about 90 percent, from $293 million in 2025 to $29 million next year. Such cuts are also in line with Project 2025, the Heritage Foundation’s conservative policy roadmap, which calls for the government to “abolish” Interior’s Biological Resources Division, an outdated name for the Ecosystems Mission Area.Meanwhile, the Trump administration is also reportedly trying to fire government employees in the Ecosystems Mission Area, though a federal judge has so far blocked those efforts. Eliminating biological research is not good. In fact, it’s very bad.For a decade now, EMA’s North American Bat Monitoring Program, or NABat, has been gathering and analyzing data on bats and the threats they face. NABat produces research using data from hundreds of partner organizations showing not only how white-nose syndrome is spreading — which scientists are using to develop and deploy vaccines — but also how bats are affected by wind turbines, another known threat. Energy companies can and do use this research to develop safer technologies and avoid delays caused by wildlife regulations, such as the Endangered Species Act. The irony, an Interior Department employee told me, is that NABat makes wildlife management more efficient. It also helps reveal where declines are occurring before they become severe, potentially helping avoid the need to grant certain species federal protection — something the Trump administration would seem to want. The employee, who’s familiar with Interior’s bat-monitoring efforts, spoke on the condition of anonymity for fear of retaliation by the Trump administration. A northern long-eared bat with white-nose syndrome. Steve Taylor/University of IllinoisA dead bat infected with white-nose syndrome under UV light. USGS“If they want to create efficiencies in the government, they should ask us,” another Interior employee told Vox. “The damage that can be done by one administration takes decades to rebuild.”In response to a request for comment, an Interior Department spokesperson told Vox that “USGS remains committed to its congressional mandate as the science arm of the Department of the Interior.” The White House did not respond to a request for comment. In a Senate appropriations hearing last week, Interior Secretary Doug Burgum refused to commit to maintaining funding for EMA.“There’s no question that they don’t know what EMA does,” said a third Interior employee, who has knowledge of the Ecosystems Mission Area.Ultimately, it’s not clear why the administration has targeted Interior’s biological research. EMA does, however, do climate science, such as studying how plants and animals are responding to rising temperatures. That’s apparently a no-go for the Trump administration. It also gathers information that sometimes indicates that certain species need federal protections, which come with regulations (also a no-go for President Donald Trump’s agenda).What’s especially frustrating for environmental advocates is that NABat, now 10 years old, is starting to hit its stride.“We should be celebrating the 10-year anniversary of this very successful program that started from scratch and built this robust, vibrant community of people all collecting data,” said Winifred Frick, the chief scientist at Bat Conservation International, an environmental group. “We have 10 years of momentum, and so to cut it off now sort of wastes all that investment. That feels like a tremendous loss.” Meanwhile, the cost of maintaining the program is less than 1 percent of Interior’s overall budget.The government’s wildlife monitoring programs are “jewels of the country,” said Hollis Woodard, an associate professor of entomology at University of California Riverside who works with USGS on bee monitoring. “These birds and bats perform services for us that are important for our day-to-day lives. Literally everything I value, including food, comes down to keeping an eye on these populations. The idea that we’re just going to wipe them out is just terrifying.”Update, June 2, 12:58 pm ET: This article was originally published on May 29, 2025, and has been updated to include newly public details on the 2026 White House budget request.See More:

The eastern quoll (Dasyurus viverrinus) is a medium-sized carnivorous marsupial in the dasyurid family, and one of six extant species of quolls. Endemic to Australia, the species occurs on the island of Tasmania, and was formerly found across much of southeastern mainland Australia before becoming functionally extinct there in the 1960s. Eastern quolls are about the size of a small domestic cat and have a thick, light fawn or near-black, coat with white spots. They are solitary predators, hunting at night for their prey of insects, small mammals, birds, and reptiles. This fawn-morph eastern quoll was photographed in Upper Esk, Tasmania. Photograph credit: Charles J. Sharp Recently featured: Battle of Diamond Rock Drosera capensis Cucumis metuliferus Archive More featured pictures

In Sequoia and Kings Canyon National Parks in California, trees that have persisted through rain and shine for thousands of years are now facing multiple threats triggered by a changing climate. Scientists and park managers once thought giant sequoia forests were nearly impervious to stressors like wildfire, drought and pests. Yet, even very large trees are proving vulnerable, particularly when those stressors are amplified by rising temperatures and increasing weather extremes. The rapid pace of climate change—combined with threats like the spread of invasive species and diseases—can affect ecosystems in ways that defy expectations based on past experiences. As a result, Western forests are transitioning to grasslands or shrublands after unprecedented wildfires. Woody plants are expanding into coastal wetlands. Coral reefs are being lost entirely. To protect these places, which are valued for their natural beauty and the benefits they provide for recreation, clean water and wildlife, forest and land managers increasingly must anticipate risks they have never seen before. And they must prepare for what those risks will mean for stewardship as ecosystems rapidly transform. As ecologists and a climate scientist, we’re helping them figure out how to do that. Managing changing ecosystems Traditional management approaches focus on maintaining or restoring how ecosystems looked and functioned historically. However, that doesn’t always work when ecosystems are subjected to new and rapidly shifting conditions. Ecosystems have many moving parts—plants, animals, fungi, and microbes; and the soil, air and water in which they live—that interact with one another in complex ways. When the climate changes, it’s like shifting the ground on which everything rests. The results can undermine the integrity of the system, leading to ecological changes that are hard to predict. To plan for an uncertain future, natural resource managers need to consider many different ways changes in climate and ecosystems could affect their landscapes. Essentially, what scenarios are possible? Preparing for multiple possibilities At Sequoia and Kings Canyon, park managers were aware that climate change posed some big risks to the iconic trees under their care. More than a decade ago, they undertook a major effort to explore different scenarios that could play out in the future. It’s a good thing they did, because some of the more extreme possibilities they imagined happened sooner than expected. In 2014, drought in California caused the giant sequoias’ foliage to die back, something never documented before. In 2017, sequoia trees began dying from insect damage. And, in 2020 and 2021, fires burned through sequoia groves, killing thousands of ancient trees. While these extreme events came as a surprise to many people, thinking through the possibilities ahead of time meant the park managers had already begun to take steps that proved beneficial. One example was prioritizing prescribed burns to remove undergrowth that could fuel hotter, more destructive fires. The key to effective planning is a thoughtful consideration of a suite of strategies that are likely to succeed in the face of many different changes in climates and ecosystems. That involves thinking through wide-ranging potential outcomes to see how different strategies might fare under each scenario—including preparing for catastrophic possibilities, even those considered unlikely. For example, prescribed burning may reduce risks from both catastrophic wildfire and drought by reducing the density of plant growth, whereas suppressing all fires could increase those risks in the long run. Strategies undertaken today have consequences for decades to come. Managers need to have confidence that they are making good investments when they put limited resources toward actions like forest thinning, invasive species control, buying seeds or replanting trees. Scenarios can help inform those investment choices. Constructing credible scenarios of ecological change to inform this type of planning requires considering the most important unknowns. Scenarios look not only at how the climate could change, but also how complex ecosystems could react and what surprises might lay beyond the horizon. Scientists at the North Central Climate Adaptation Science Center are collaborating with managers in the Nebraska Sandhills to develop scenarios of future ecological change under different climate conditions, disturbance events like fires and extreme droughts, and land uses like grazing. [Photos: T. Walz, M. Lavin, C. Helzer, O. Richmond, NPS (top to bottom)., CC BY] Key ingredients for crafting ecological scenarios To provide some guidance to people tasked with managing these landscapes, we brought together a group of experts in ecology, climate science, and natural resource management from across universities and government agencies. We identified three key ingredients for constructing credible ecological scenarios: 1. Embracing ecological uncertainty: Instead of banking on one “most likely” outcome for ecosystems in a changing climate, managers can better prepare by mapping out multiple possibilities. In Nebraska’s Sandhills, we are exploring how this mostly intact native prairie could transform, with outcomes as divergent as woodlands and open dunes. 2. Thinking in trajectories: It’s helpful to consider not just the outcomes, but also the potential pathways for getting there. Will ecological changes unfold gradually or all at once? By envisioning different pathways through which ecosystems might respond to climate change and other stressors, natural resource managers can identify critical moments where specific actions, such as removing tree seedlings encroaching into grasslands, can steer ecosystems toward a more desirable future. 3. Preparing for surprises: Planning for rare disasters or sudden species collapses helps managers respond nimbly when the unexpected strikes, such as a severe drought leading to widespread erosion. Being prepared for abrupt changes and having contingency plans can mean the difference between quickly helping an ecosystem recover and losing it entirely. Over the past decade, access to climate model projections through easy-to-use websites has revolutionized resource managers’ ability to explore different scenarios of how the local climate might change. What managers are missing today is similar access to ecological model projections and tools that can help them anticipate possible changes in ecosystems. To bridge this gap, we believe the scientific community should prioritize developing ecological projections and decision-support tools that can empower managers to plan for ecological uncertainty with greater confidence and foresight. Ecological scenarios don’t eliminate uncertainty, but they can help to navigate it more effectively by identifying strategic actions to manage forests and other ecosystems. Kyra Clark-Wolf is a research scientist in ecological transformation at the University of Colorado Boulder. Brian W. Miller is a research ecologist at the U.S. Geological Survey. Imtiaz Rangwala is a research scientist in climate at the Cooperative Institute for Research in Environmental Sciences at the University of Colorado Boulder. This article is republished from The Conversation under a Creative Commons license. 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