Category: 7. Science

  • NASA alert! Massive asteroid 2025 QH16 set to zoom past Earth today in a close flyby at 18,500 mph; here’s what you need to know |

    NASA alert! Massive asteroid 2025 QH16 set to zoom past Earth today in a close flyby at 18,500 mph; here’s what you need to know |

    Asteroid 2025 QH16 makes its presence known as a reminder that the night sky is never completely still. Although space often appears calm and infinite, near-Earth objects like this asteroid can approach our planet, drawing attention from astronomers worldwide. Measuring roughly 43 feet across and traveling at more than 18,500 miles per hour, it will safely pass Earth on September 2, 2025, at a distance exceeding 2.8 million miles. Its close approach underscores the ongoing need for asteroid monitoring, planetary defense strategies, and international scientific collaboration, proving that even seemingly quiet skies can host dynamic cosmic activity.

    Asteroid 2025 QH16 approaching Earth today: Size, speed and distance

    Asteroid 2025 QH16 is a relatively small near-Earth object, measuring around 43 feet (approximately 13 meters) wide. Despite its modest size, it travels at an astonishing speed of 18,583 miles per hour (29,900 kilometers per hour).On September 2, 2025, the asteroid will make its closest approach to Earth at a distance of 2,810,000 miles (4.52 million kilometers). To put this in perspective, it is more than 11 times the distance between the Earth and the Moon. While this may seem far, astronomers categorize such a flyby as “close” in cosmic terms, as asteroids of this size rarely pass within a few million miles of Earth.The asteroid belongs to the Aten group, a category of near-Earth asteroids whose orbits frequently intersect Earth’s path. While Aten asteroids are closely watched because of their orbital patterns, experts confirm that 2025 QH16 poses no threat to the planet.

    Why 2025 QH16 is not classified as hazardous

    NASA classifies an asteroid as potentially hazardous if it meets two criteria: size and proximity. Specifically:

    • Size: Asteroids wider than 85 meters (279 feet)
    • Distance: Objects passing within 7.4 million kilometers (4.6 million miles) of Earth

    Since 2025 QH16 is only 43 feet wide and will remain well outside the hazardous distance threshold, it does not qualify as a dangerous asteroid. Scientists emphasise that tracking these small objects remains essential, even when they are not hazardous, as slight changes in their orbits could alter their trajectories over time.

    How space agencies track asteroids and prepare for future threats

    Even seemingly harmless asteroids are carefully observed. Small gravitational nudges from planets, the Sun, or other objects can subtly shift an asteroid’s orbit, sometimes enough to change its future trajectory.To maintain readiness, global space agencies—including NASA, ESA, JAXA, and ISRO—coordinate to track near-Earth objects (NEOs) continuously. This ensures early detection of any unexpected path changes and provides time for mitigation strategies if needed.For example, ISRO Chairman S. Somanath has highlighted upcoming missions to study large asteroids, such as Apophis in 2029. Such initiatives will include collaborative research, orbital studies, and potentially landing missions, increasing global preparedness for future asteroid encounters.

    Asteroid 2025 QH16 flyby highlights the importance of planetary vigilance

    Although asteroid 2025 QH16 will safely pass Earth, its approach is a reminder of the dynamic nature of our solar system. A calm night sky can suddenly host fast-moving visitors, emphasizing the importance of scientific vigilance.The flyby also underscores why nations invest in planetary defense programs, asteroid tracking technologies, and collaborative research. By studying even small near-Earth objects, scientists can improve predictions, understand asteroid behavior, and prepare for any future risks.Events like 2025 QH16’s passage highlight both the excitement of space exploration and the necessity of continuous observation. Humanity’s efforts to monitor near-Earth objects are as much about scientific discovery as they are about protecting our planet from rare, but potentially serious, cosmic hazards.Also Read | Lunar eclipse 2025: Over 7 billion people to witness rare ‘Chandra Grahan’ on September 7; how to watch the blood moon and essential tips


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  • Victorian Science’s Duck-Billed Enigma | History Today

    Platypus – Greek for ‘flat-footed’ – may sound a derogatory name, but that was the least of the problems encountered by these small mole-like creatures from Australia. When the British Museum received its first specimen in 1799 the curator, George Shaw, was convinced that it must be a fake and attacked it with a pair of scissors in a failed attempt to detach the beak. Even when persuaded the animal was genuine he remained baffled, expostulating that of ‘all the Mammalia yet known it seems the most extra-ordinary in its conformation’ – and despite that reference to a mammal, the scientific label he devised suggests he thought it was a bird: Platypus anatus (anatus is Latin for ‘duck’).

    Three years later in Germany, renowned anatomist Johann Blumenbach reached a different conclusion. When a skin arrived from John Hunter, governor of New South Wales, Blumenbach denigrated it as Ornithorhynchus paradoxus, or ‘paradoxical bird-snout’. Debates about its identity proliferated as zoologists tried to accommodate this Antipodean discovery within an outdated European classification system. Eventually they settled on a permanent, if somewhat unsatisfactory, name. Two conventions came into play: platypus had to be jettisoned because it had already been adopted for some recently discovered beetles; and paradoxus also had to go, because taxonomic courtesy entailed standing by the initial nomenclature. The cumbersome compromise was Ornithorhynchus anatinus, which at least side-stepped the problem of remembering the appropriate plural of platypus (platypuses, not platypi).

    For decades, question marks hovered over the nature of the beast. Newcastle engraver Thomas Bewick is best known as an ornithologist, but he neatly summed up the quandary, remarking in 1800 that it was ‘an animal sui generis; it appears to possess a three-fold nature, that of a fish, a bird, and a quadruped, and is related to nothing that we have hitherto seen’. Fascinated yet puzzled, 19th-century scientists competed to unravel the mystery. Charles Darwin was thrilled to be included in a successful hunting expedition, although he did boast rather chillingly that ‘I consider it a great feat to be in at the death of so wonderful an animal’.

    Appalling numbers

    Traditional classification systems had been bursting at the seams ever since new species began arriving in Europe from the Americas. Under the old Aristotelian scheme, terrestrial life had been arranged in a single hierarchical chain that lay stretched out between inanimate minerals at the bottom and supra-human angels at the top. At the lower end of this ladder lay plants, followed in ascending order by insects, fish, and birds before reaching the quadrupeds; above them, the upper rungs were occupied by primates and, finally, human beings.

    That neat simplicity was being challenged long before the egg-laying, duck-billed, warm-blooded enigma appeared on the scene. Mammals, generally the most emotionally and economically significant animals for people, were often differentiated as ‘viviparous quadrupeds’, characterised not only by moving around on four feet, but also by giving birth to live offspring and dwelling on land. That solution provided a sensible way of distinguishing them from four-legged lizards and salamanders that lay eggs – but what about whales and walruses with no feet, or bats that have two wings and only two feet? For hundreds of years, several anomalies were included as if they were honorary quadrupeds.

    Whenever explorers triumphantly brought home exotic treasures from distant lands, they somehow had to be absorbed within this imperfect system. In the first half of the 18th century the number of species doubled from 150 to 300 – and by the end of the 19th century more than 1,000 new genera (each potentially including multiple species) were turning up each year. As a writer in Nature put it, this was ‘a simply appalling number’. Marsupials – opossums from South America and kangaroos from Australia – presented particular problems. If possessing a pouch was the main defining criterion, perhaps they could be squeezed in between bears and weasels? On the other hand, if feeding habits were more important, then opossums should be grouped with carnivores and kangaroos with ruminants.

    The term quadruped gradually faded away as mammal was perceived to be a more useful concept. But that made it even more difficult to determine the status of the platypus, which was reputed to lay eggs but also to suckle its young. One defiant protagonist declared himself undefeated: 

    from the want of mammae, and from the structure of the sexual organs, the naturalist surely cannot, with any degree of propriety, arrange this animal with the Mammalia; and very few will be hardy enough … to think of arranging it with Birds or Fishes. The only possible class that remains, is the Amphibia. 

    But amphibians are cold-blooded, so that solution hardly seemed viable.

    Other zoologists pondered the question more creatively, even inventing new groups. French evolutionist Jean-Baptiste Lamarck proposed that platypuses should join echidnas (spiny anteaters) in a non-mammalian class, ‘Prototheria’, while Shaw of the British Museum suggested lumping them together with anteaters and sloths as toothless animals. The debates straggled on for decades. Although plenty of self-styled experts relished the opportunity to make grand pronouncements, they were hampered by a shortage of reliable information. Restricted to examining dead samples in museums and laboratories, European zoologists were in the wrong place for settling the vital question: was it really true that this furry paradox laid eggs?

    European curiosity

    The true experts remained mostly invisible, unheeded and unnamed: the Aboriginal Australians had been interacting with indigenous fauna long before the first Europeans arrived to declare that they owned the land and that they knew best. Some curious visitors took advantage of local skills and traditions, although results were not guaranteed: ‘I was doomed not to see a living platypus or even a Kangaroo’, lamented Henry Nottidge Moseley, a naturalist on HMS Challenger: ‘I saw only the footprint of the Platypus (like those of a duck).’

    Success demanded perseverance. To obtain his specimen for Blumenbach, Hunter had waited for an hour while an experienced fisherman sat patiently by a river, watching his prey surface periodically to take a breath; when he judged the moment was right, he suddenly lunged forward and pierced it with his short wooden spear. Like many other long-term Australians, this anonymous angler was well versed in platypus habits, but many Europeans refused to accept their accounts of eggs as proof, instead insisting on the necessity of scientific training.

    There were three major schools of thought, driven by personal and national rivalries as much as by scientific logic. Some French and German biologists chose the easy option of maintaining that platypuses bear live young just like more familiar mammals, while others decreed that they should be placed in a separate category because they laid eggs. Britain’s most vocal representative was the vituperative Richard Owen, who insisted that the eggs were very large but stayed inside the mother’s body. Operating at long-distance from London, he sent out ruthless instructions for resolving the dispute: every week during the breeding season, a specially convened shooting party should kill a female platypus and investigate the state of any eggs. Luckily, the curator of the Australian Museum called a halt to this massacre before the animals fell extinct.

    Eager to gratify European curiosity, collectors despatched eggs from other creatures – tortoises, snakes, lizards – and some gullible scientists duly published accounts in scholarly journals. It took 80 years for the colonial invaders to confirm that platypuses do indeed lay eggs, even though that had long been common knowledge among local people. As a Sydney newspaper explained, for evidence to be accepted it must be ‘examined and reported on by scientists in whom all the world has faith’.

    Eventually, the matter was settled in under six months of field work by William Caldwell, a recent Cambridge graduate who solicited funds for a research project with the aim of finding platypus eggs. Where others had failed, he succeeded by recruiting over 100 Aboriginal assistants to join him in his search. Spending hours every day in the water, he was soon able to report that: ‘I shot an Ornithorynchus whose first egg had been laid; her second egg was in a partially dilated os uteri [cervical canal]. This egg … was at a stage equal to a 36-hour chick.’

    Resolution

    In his quest for scientific truth, Caldwell slaughtered 70 females from a single pond in just three months. Numbers plummeted towards the end of the 19th century. In 1912 this unique species – the sole living representative of its family – became legally protected. Once the scientific controversies had been resolved, tempers cooled, and the poet Ogden Nash could indulge in a more whimsical view:

    I like the duck-billed platypus
    Because it is anomalous.
    I like the way it raises its family,
    Partly birdly, partly mammaly.
    I like its independent attitude.
    Let no one call it a duck-billed platitude.

     

    Patricia Fara is an Emeritus Fellow of Clare College, Cambridge.

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  • Geometry Revealed At Heart Of Quantum Matter

    Geometry Revealed At Heart Of Quantum Matter

    A UNIGE team reveals a once purely theoretical geometry at the heart of quantum materials, with major implications for future electronics.

    A glimpse into how hidden geometry shapes the motion of electrons in quantum materials. Electrons flowing upstream feel an extra resistance that reveals the quantum metric. © Xavier Ravinet – UNIGE

    How can data be processed at lightning speed, or electricity conducted without loss? To achieve this, scientists and industry alike are turning to quantum materials, governed by the laws of the infinitesimal. Designing such materials requires a detailed understanding of atomic phenomena, much of which remains unexplored. A team from the University of Geneva (UNIGE), in collaboration with the University of Salerno and the CNR-SPIN Institute (Italy), has taken a major step forward by uncovering a hidden geometry — until now purely theoretical — that distorts the trajectories of electrons in much the same way gravity bends the path of light. This work, published in Science, opens new avenues for quantum electronics.

    Future technologies depend on high-performance materials with unprecedented properties, rooted in quantum physics. At the heart of this revolution lies the study of matter at the microscopic scale — the very essence of quantum physics. In the past century, exploring atoms, electrons and photons within materials gave rise to transistors and, ultimately, to modern computing.

    These discoveries open up new avenues for exploring and harnessing quantum geometry in a wide range of materials.

    New quantum phenomena that defy established models are still being discovered today. Recent studies suggest the possible emergence of a geometry within certain materials when vast numbers of particles are observed. This geometry appears to distort the trajectories of electrons in these materials — much like Einstein’s gravity bends the path of light.

    From theory to observation

    Known as quantum metric, this geometry reflects the curvature of the quantum space in which electrons move. It plays a crucial role in many phenomena at the microscopic scale of matter. Yet detecting its presence and effects remains a major challenge.

    ”The concept of quantum metric dates back about 20 years, but for a long time it was regarded purely as a theoretical construct. Only in recent years have scientists begun to explore its tangible effects on the properties of matter,” explains Andrea Caviglia, full professor and director of the Department of Quantum Matter Physics at the UNIGE Faculty of Science.

    Thanks to recent work, the team led by the UNIGE researcher, in collaboration with Carmine Ortix, associate professor in the Department of Physics at the University of Salerno, has detected quantum metric at the interface between two oxides — strontium titanate and lanthanum aluminate — a well-known quantum material. ”Its presence can be revealed by observing how electron trajectories are distorted under the combined influence of quantum metric and intense magnetic fields applied to solids,” explains Giacomo Sala, research associate in the Department of Quantum Matter Physics at the UNIGE Faculty of Science and lead author of the study.

    Unlocking Future Technologies

    Observing this phenomenon makes it possible to characterise a material’s optical, electronic and transport properties with greater precision. The research team also demonstrates that quantum metric is an intrinsic property of many materials — contrary to previous assumptions.

    ”These discoveries open up new avenues for exploring and harnessing quantum geometry in a wide range of materials, with major implications for future electronics operating at terahertz frequencies (a trillion hertz), as well as for superconductivity and light–matter interactions,” concludes Andrea Caviglia.

    /Public Release. This material from the originating organization/author(s) might be of the point-in-time nature, and edited for clarity, style and length. Mirage.News does not take institutional positions or sides, and all views, positions, and conclusions expressed herein are solely those of the author(s).View in full here.

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  • Giant sandy ‘slug’ crawls through floodplains in Kazakhstan, but it could soon be frozen in place — Earth from space

    Giant sandy ‘slug’ crawls through floodplains in Kazakhstan, but it could soon be frozen in place — Earth from space

    A large field of sand dunes located alongside the village of Oyyl in the Kazakh Steppe bears a striking resemblance to a giant slug. (Image credit: NASA/ISS program)

    QUICK FACTS

    Where is it? Oyyl dune field, Kazakhstan [49.0485097, 54.776320616]

    What’s in the photo? A large field of sand dunes in the shape of a slug

    Who took the photo? An unnamed astronaut on board the International Space Station

    When was it taken? June 15, 2022

    This intriguing astronaut photo shows off an oddly shaped field of dunes in Kazakhstan that strongly resembles a giant slug meandering across the landscape. The mollusk mimic is covered with clusters of vegetation, suggesting its sands are slowly being frozen in place.

    The dune field is located around 175 miles (280 kilometers) northeast of the Caspian Sea in the western reaches of the Kazakh Steppe — a vast region of open grassland covering north Kazakhstan and parts of Russia. It is sandwiched between the village of Oyyl to the west (left in the image) and a large floodplain to the east (right in the image).

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  • ExtractoDAO Labs simulation predicts cosmic structures 2 billion years before the Big Bang that may be observed

    "Illustration of two scientists: one representing the ΛCDM model looking distressed by the discovery of ancient galaxies, and another representing the Dead Universe Theory (DUT) smiling confidently at the predictions."

    DUT Quantum Simulator interface: a decentralized scientific tool for testing cosmological hypotheses based on non-singular geometries and unified general relativity.

    "Comparative chart of Dead Universe Theory (DUT) predictions versus James Webb Space Telescope (JWST) confirmations, highlighting Little Red Dots (LRDs) at redshift 9–17, dust-dominated spectra, quiescent galaxies, and pending confirmations for LRDs at z>

    “Previsões da Dead Universe Theory (DUT) comparadas com observações confirmadas e pendentes do Telescópio Espacial James Webb (JWST).”

    Simulations by ExtractoDAO Labs suggest the universe exists in a continuum, extending its age to 15.8B years — 2B before the Big Bang.

    We are delivering 76.8 billion years of simulations, marking the onset of the high fossilization phase, within a continuum universe projected to 180 billion years — redefining cosmology’s future.”

    — oel Almeida, Research Leader, ExtractoDAO Labs

    CURITIBA, PARANá, BRAZIL, September 2, 2025 /EINPresswire.com/ — DUT Quantum: Advanced Cosmological Simulation Technology Created by ExtractoDAO Labs Predicts Structures Formed 15.8 Billion Years Ago, i.e., 2 Billion Years Before the Big Bang

    The James Webb Space Telescope has left the scientific community increasingly uncomfortable, breaking record after record in the discovery of galaxies in the deep universe, at high redshift, and creating serious problems for the old ΛCDM model. The ΛCDM framework can no longer explain the existence of mature, well-formed galaxies that should not exist. In fact, what has happened is that the model failed in its dating of 13.8 billion years, and there is no way to fix it: the model can no longer be patched.

    Since the discovery of supermassive black hole structures with more than 30 billion solar masses, scientists working within the ΛCDM paradigm should have raised the alarm. Instead, they tried to patch the model by classifying them as “cosmic seeds.” New theories have emerged, proposing that perhaps the Big Bang never happened, that the universe collapsed from cosmic dust clouds, or that it originated from black holes. However, none of these proposals truly explain what needed to be addressed: did the observable universe have an absolute beginning or not?

    On the other hand, researcher Joel Almeida spent about three years working with his development team while also writing a new theory that would not only explain the universe’s past but do so through advanced code and simulations capable of producing results with unquestionable precision. The first results came with the accurate anticipation of the existence of the so-called “Little Red Dots.”

    Based on the article Small Red Dots and the DUT Framework, the DUT Quantum Simulator anticipated, prior to JWST observations, the following key properties of Small Red Dots (LRDs or SRDs for DUT, https://zenodo.org/records/16879286
    ):

    High masses: 10⁶–10⁸ M⊙, already within the first 200–300 Myr.

    Quiescent environment: extremely low star-formation rates, in contrast with the ΛCDM scenario.

    Dust obscuration: compact nuclei detectable only in the infrared.

    Infrared spectrum: dominant emission at 2.5–5 μm, with no strong high-ionization lines.

    Stable and non-singular structure: persistent nuclei regulated by entropic potentials.

    These characteristics were simulated and published with DOI months before independent JWST confirmations in objects such as CAPERS-LRD-z9 (z = 9.28; Taylor et al.), JADES-GS-z13-0 (z ≈ 13.2), and CEERS-93316 (z ≈ 16.7).

    Since March 15, 2025, executions of the DUT Quantum Simulator had already anticipated the existence of compact red sources at z ≈ 9, including morphological and spectral properties that were later reported for CAPERS-LRD-z9 by Taylor et al. From a cosmological interpretation standpoint, z ≈ 9 and z = 9.288 are equivalent within the margins of uncertainty; however, the latter value was only presented in a subsequent study, without prior documentation of the applied methodology or reproducible data that transparently demonstrated how the result was obtained.

    “The question is not just to say that they exist, but to describe their characteristics, masses, sizes, and properties. This is very difficult to achieve with simulator technologies like NASA’s. Otherwise, if they could do it, why haven’t they? Fear of being wrong? Whoever fears error is not delivering scientific verdicts. A technology that does not expose itself to the possibility of being wrong should not be used for serious science. All simulators developed by ExtractoDAO are free, open-source, and the simulations are available online for the scientific community to analyze and either validate or reject. That is part of science.”
    (Eduardo Rodrigues – CEO and Researcher, ExtractoDAO)

    The new simulations are now available, predicting the existence of mature and forming galaxies as early as 30 million years after the Big Bang. Furthermore, new advanced modules, already partially published, demonstrate the existence of structures at 15.8 billion years, i.e., 2 billion years before the Big Bang. These simulations will be made available in several repositories for validation as JWST data continues to arrive:

    https://zenodo.org/records/17025329

    https://zenodo.org/records/16994153

    In other words, no matter how far the JWST points its lens, nor the variety of data it reveals, all of these findings will, as much as possible, be interpreted or even anticipated by the DUT Quantum Simulator for the scientific community.

    The DUT successfully anticipated the existence, general properties (high mass, compactness, dust, quiescence), and the redshift range (z ~ 9 to z ~ 17) of the population of sources now known as Little Red Dots (LRDs), observed by JWST. The timestamped pre-registration on Zenodo, prior to official confirmation publications, is a strong indicator of the predictive power of the theory.

    Joel Almeida
    ExtractoDAO Labs
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    Gravitational Core of the Dead Universe — DUT Quantum

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  • Canada’s lunar dream: First-ever moon rover unveiled for launch |

    Canada’s lunar dream: First-ever moon rover unveiled for launch |

    Canada has officially unveiled its first-ever lunar rover, marking a historic leap in the nation’s space exploration journey. Developed in collaboration between the Canadian Space Agency (CSA) and domestic tech firms, the rover is designed to explore the Moon’s surface, conduct scientific experiments, and test new technologies vital for future missions. The announcement represents Canada’s entry into lunar exploration, placing it among a select group of nations pursuing robotic and human presence beyond Earth. With its rover slated for launch later this decade, Canada is not only showcasing its technological capabilities but also signaling a bold commitment to space innovation and international cooperation.

    A milestone in Canada’s space journey

    The lunar rover project builds on Canada’s celebrated space legacy, best known for contributions like the Canadarm on NASA’s Space Shuttle and the International Space Station. By extending its robotics expertise to planetary exploration, Canada is now pushing into an entirely new frontier on the Moon. This step underscores the country’s ambition to play a stronger role in global space exploration at a time when interest in lunar missions is rapidly accelerating.Designed for the harsh conditions of the Moon, the rover will endure extreme temperatures, rugged terrain, and abrasive lunar dust. Its instruments will be tasked with analyzing soil composition, searching for water ice, and studying the impact of lunar dust on machinery. These findings could provide essential knowledge for sustaining human presence on the Moon, making the mission not just a symbolic achievement but a scientific necessity.

    Partnerships, innovation, and future vision

    Canada’s lunar rover is also a story of collaboration. The mission aligns with NASA’s Artemis program and other international partnerships, ensuring that Canada’s contribution has a direct role in advancing humanity’s broader return to the Moon. By focusing on polar exploration, the rover will gather data critical for long-term lunar habitation, supporting both robotic and human-led missions in the future.Beyond science and technology, officials emphasize the rover’s inspirational role at home. Canada’s first attempt at the Moon is expected to spark curiosity among young people, encourage careers in STEM fields, and energize innovation across industries. As a symbol of national pride, the rover demonstrates that Canada is ready to transform its space legacy into a bold vision for the future, from robotic arms orbiting Earth to a rover rolling on the Moon. The mission also highlights Canada’s growing role in international space collaborations and sets the stage for more ambitious extraterrestrial projects in the decades to come.


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  • Chemists Have Recreated a Critical Moment in The Creation of Life : ScienceAlert

    Chemists Have Recreated a Critical Moment in The Creation of Life : ScienceAlert

    The spontaneous coalescence of the molecules that led to life on primordial Earth, some 4 billion years ago, may have finally been observed in a laboratory.

    Replicating the likely conditions of our newborn planet, chemists have joined together RNA and amino acids – the crucial first step that would eventually lead to the proliferation of living organisms that crawl all over Earth today.

    The experimental work could yield important clues about the origins of one of the most important biological relationships: the one between nucleic acids and proteins.

    Related: Building Blocks of Life Can Be Forged by ‘Dark Chemistry’ Far From Stars or Planets

    “Life today uses an immensely complex molecular machine, the ribosome, to synthesize proteins. This machine requires chemical instructions written in messenger RNA, which carries a gene’s sequence from a cell’s DNA to the ribosome. The ribosome then, like a factory assembly line, reads this RNA and links together amino acids, one by one, to create a protein,” explains chemist Matthew Powner of University College London.

    “We have achieved the first part of that complex process, using very simple chemistry in water at neutral pH to link amino acids to RNA. The chemistry is spontaneous, selective, and could have occurred on the early Earth.”

    A complex process using biochemical machinery known as a ribosome ‘reads’ nucleic acid templates and produces proteins. (selvanegra/Getty Images/Canva)

    Although we know that life must have wriggled its way out of Earth’s primordial ooze – after all, here we are – scientists are not as sure about how it happened. One growing school of thought invests in RNA as a self-replicating nucleic acid, which, thanks to its knack for also performing mechanical work, can catalyze other chemical reactions. This is known as the RNA world hypothesis.

    Proteins cannot self-replicate; the instructions for their exact sequencing of amino acids are encoded in sequences of nucleic acid, such as RNA.

    So while proteins play a necessary role in many biological processes, molecules of nucleic acid provide a crucial template for their production. Still, this means that the two molecular components would have needed to find a way to join together in the soggy, steamy conditions of early Earth.

    “Life relies on the ability to synthesize proteins – they are life’s key functional molecules. Understanding the origin of protein synthesis is fundamental to understanding where life came from,” Powner says.

    “Our study is a big step towards this goal, showing how RNA might have first come to control protein synthesis.”

    Many attempts have been made to replicate the natural coalescence of amino acids and RNA. This process requires a high-energy mediator, and past studies have found that some highly reactive molecules are not fit for this purpose, since they tend to break down in water, leading the amino acids to react with each other rather than the RNA.

    Led by chemist Jyoti Singh of University College London, the research team took their cues instead from biology. As a mediator, they tried a thioester, a high-energy, highly reactive compound that contains carbon, oxygen, hydrogen, and sulfur – four of the six elements that are thought to be vital to life.

    Thioesters are known to play a key intermediary role in some biological processes, and are thought to have been abundant in the ‘primordial organic soup’. Some scientists believe their proliferation preceded the RNA world, known as the thioester world hypothesis.

    In their simulated organic soup, the researchers found that thioester provided the necessary external energy to allow the amino acid to bind to the RNA – a pretty significant breakthrough that neatly unifies the two hypotheses.

    “Our study unites two prominent origin of life theories – the ‘RNA world’, where self-replicating RNA is proposed to be fundamental, and the ‘thioester world’, in which thioesters are seen as the energy source for the earliest forms of life,” Powner says.

    To be clear, we’re still quite far from having a detailed, comprehensive understanding of the origins of life. The new research shows that it’s possible these components can come together with a high-energy mediator; the next step is to see if RNA will preferentially bind to the specific amino acids that would facilitate the emergence of genetic code.

    “Imagine the day that chemists might take simple, small molecules, consisting of carbon, nitrogen, hydrogen, oxygen, and sulphur atoms, and from these Lego pieces form molecules capable of self-replication. This would be a monumental step towards solving the question of life’s origin,” Singh says.

    “Our study brings us closer to that goal by demonstrating how two primordial chemical Lego pieces (activated amino acids and RNA) could have built peptides, short chains of amino acids that are essential to life.”

    The research has been published in Nature.

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  • Chemists Have Replicated a Critical Moment in The Creation of Life

    Chemists Have Replicated a Critical Moment in The Creation of Life

    The spontaneous coalescence of the molecules that led to life on primordial Earth, some 4 billion years ago, may have finally been observed in a laboratory.

    Replicating the likely conditions of our newborn planet, chemists have joined together RNA and amino acids – the crucial first step that would eventually lead to the proliferation of living organisms that crawl all over Earth today.

    The experimental work could yield important clues about the origins of one of the most important biological relationships: the one between nucleic acids and proteins.

    Related: Building Blocks of Life Can Be Forged by ‘Dark Chemistry’ Far From Stars or Planets

    “Life today uses an immensely complex molecular machine, the ribosome, to synthesize proteins. This machine requires chemical instructions written in messenger RNA, which carries a gene’s sequence from a cell’s DNA to the ribosome. The ribosome then, like a factory assembly line, reads this RNA and links together amino acids, one by one, to create a protein,” explains chemist Matthew Powner of University College London.

    “We have achieved the first part of that complex process, using very simple chemistry in water at neutral pH to link amino acids to RNA. The chemistry is spontaneous, selective, and could have occurred on the early Earth.”

    A complex process using biochemical machinery known as a ribosome ‘reads’ nucleic acid templates and produces proteins. (selvanegra/Getty Images/Canva)

    Although we know that life must have wriggled its way out of Earth’s primordial ooze – after all, here we are – scientists are not as sure about how it happened. One growing school of thought invests in RNA as a self-replicating nucleic acid, which, thanks to its knack for also performing mechanical work, can catalyze other chemical reactions. This is known as the RNA world hypothesis.

    Proteins cannot self-replicate; the instructions for their exact sequencing of amino acids are encoded in sequences of nucleic acid, such as RNA.

    So while proteins play a necessary role in many biological processes, molecules of nucleic acid provide a crucial template for their production. Still, this means that the two molecular components would have needed to find a way to join together in the soggy, steamy conditions of early Earth.

    “Life relies on the ability to synthesize proteins – they are life’s key functional molecules. Understanding the origin of protein synthesis is fundamental to understanding where life came from,” Powner says.

    “Our study is a big step towards this goal, showing how RNA might have first come to control protein synthesis.”

    Many attempts have been made to replicate the natural coalescence of amino acids and RNA. This process requires a high-energy mediator, and past studies have found that some highly reactive molecules are not fit for this purpose, since they tend to break down in water, leading the amino acids to react with each other rather than the RNA.

    Led by chemist Jyoti Singh of University College London, the research team took their cues instead from biology. As a mediator, they tried a thioester, a high-energy, highly reactive compound that contains carbon, oxygen, hydrogen, and sulfur – four of the six elements that are thought to be vital to life.

    Thioesters are known to play a key intermediary role in some biological processes, and are thought to have been abundant in the ‘primordial organic soup’. Some scientists believe their proliferation preceded the RNA world, known as the thioester world hypothesis.

    In their simulated organic soup, the researchers found that thioester provided the necessary external energy to allow the amino acid to bind to the RNA – a pretty significant breakthrough that neatly unifies the two hypotheses.

    “Our study unites two prominent origin of life theories – the ‘RNA world’, where self-replicating RNA is proposed to be fundamental, and the ‘thioester world’, in which thioesters are seen as the energy source for the earliest forms of life,” Powner says.

    To be clear, we’re still quite far from having a detailed, comprehensive understanding of the origins of life. The new research shows that it’s possible these components can come together with a high-energy mediator; the next step is to see if RNA will preferentially bind to the specific amino acids that would facilitate the emergence of genetic code.

    “Imagine the day that chemists might take simple, small molecules, consisting of carbon, nitrogen, hydrogen, oxygen, and sulphur atoms, and from these Lego pieces form molecules capable of self-replication. This would be a monumental step towards solving the question of life’s origin,” Singh says.

    “Our study brings us closer to that goal by demonstrating how two primordial chemical Lego pieces (activated amino acids and RNA) could have built peptides, short chains of amino acids that are essential to life.”

    The research has been published in Nature.

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  • Moon phase today explained: What the moon will look like on September 2, 2025

    Moon phase today explained: What the moon will look like on September 2, 2025

    The moon is appearing bigger and brighter to us every night right now. This is due to where we are in the lunar cycle.

    The lunar cycle is a series of eight unique phases of the moon’s visibility. The whole cycle takes about 29.5 days, according to NASA, and these different phases happen as the Sun lights up different parts of the moon whilst it orbits Earth. 

    So, let’s see what’s happening with the moon tonight, Sept. 2.

    What is today’s moon phase?

    As of Tuesday, Sept. 2, the moon phase is Waxing Gibbous, and 72% will be lit up to us on Earth, according to NASA’s Daily Moon Observation.

    We’re getting closer and closer to the Full Moon, and with each night there’s more and more to see on the moon’s surface. Tonight with no visual aids, you’ll see the Mare Imbrium, Mare Serenitatis, and the Mare Vaporum. With binoculars, you’ll also get a glimpse of the Clavius Crater, the Alphonsus Crater, and the Apennine Mountains. If you have a telescope too, enjoy glimpses of the Apollo 12, Apollo 17, and the Rima Ariadaeus.

    When is the next full moon?

    The next full moon will be on Sept. 7. The last full moon was on Aug. 9.

    What are moon phases?

    According to NASA, moon phases are caused by the 29.5-day cycle of the moon’s orbit, which changes the angles between the Sun, Moon, and Earth. Moon phases are how the moon looks from Earth as it goes around us. We always see the same side of the moon, but how much of it is lit up by the Sun changes depending on where it is in its orbit. This is how we get full moons, half moons, and moons that appear completely invisible. There are eight main moon phases, and they follow a repeating cycle:

    Mashable Light Speed

    New Moon – The moon is between Earth and the sun, so the side we see is dark (in other words, it’s invisible to the eye).

    Waxing Crescent – A small sliver of light appears on the right side (Northern Hemisphere).

    First Quarter – Half of the moon is lit on the right side. It looks like a half-moon.

    Waxing Gibbous – More than half is lit up, but it’s not quite full yet.

    Full Moon – The whole face of the moon is illuminated and fully visible.

    Waning Gibbous – The moon starts losing light on the right side.

    Last Quarter (or Third Quarter) – Another half-moon, but now the left side is lit.

    Waning Crescent – A thin sliver of light remains on the left side before going dark again.

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  • China astronauts generate rocket fuel, oxygen in space using “artificial photosynthesis”

    China astronauts generate rocket fuel, oxygen in space using “artificial photosynthesis”

    Astronauts aboard China’s Tiangong space station have, for the first time, produced oxygen and ingredients for rocket fuel in orbit using “artificial photosynthesis” technology, in a breakthrough that could support long-term human presence beyond Earth.

    In January 2025, the Shenzhou-19 crew carried out 12 experiments in a drawer-sized device using semiconductor catalysts to convert carbon dioxide and water into oxygen and hydrocarbons, state media and the China Manned Space (CMS) agency said.

    The results mark the first in-orbit demonstration of the process, which mimics plant photosynthesis but functions at room temperature and normal pressure, reducing energy consumption compared with conventional systems, reports NDTV.

    Keep updated, follow The Business Standard’s Google news channel

    Researchers successfully generated ethylene, a hydrocarbon that can be used as rocket fuel, paving the way for sustained crewed missions, including China’s goal of landing astronauts on the moon before 2030, the South China Morning Post reported.

    The experiments also examined gas transport and separation in microgravity and real-time detection of reaction products. Adjusting catalysts could enable the system to produce other fuels such as methane, CMS said.

    “Artificial photosynthesis uses engineered physical and chemical methods to replicate how plants process carbon dioxide, producing oxygen and fuels in confined or extraterrestrial environments,” state broadcaster CCTV said.

    Current life-support systems, such as those aboard the International Space Station, rely on splitting water with electricity from solar panels. While effective, this consumes nearly a third of the station’s energy, according to a 2023 study led by Katharina Brinkert of the University of Bremen.

    By contrast, China’s technology could make long-duration space missions more viable by cutting energy costs and creating locally sourced propellant.


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