A prominent nose, striking blue eyes, and golden hair: The visage of King D. Dinis unveiled 700 years posthumously.

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Seven hundred years after his passing, the visage of King D. Dinis, Portugal's sixth monarch, was unveiled following comprehensive 3D facial reconstruction efforts. This facial analysis was conducted at the FaceLab of Liverpool John Moores University, with scientific oversight provided by anthropologist Eugénia Cunha from the University of Coimbra.

The initiative commenced in 2016 with efforts to restore the tomb of D. Dinis. Nevertheless, it wasn't until 2023 that the crucial decision to open the tomb and conduct DNA analysis was made.

D. Dinis’s face, at the time of his death, revealed an elderly man  64 years of age.

Eugénia Cunha explains, "The findings we have were based on robust scientific data derived from a remarkably well-preserved skeleton that retains all of its facial bones."

Cunha further describes the king as having “an elongated nose” and “a chin that is somewhat receding,” along with “blue eyes” that might have a hint of green blended in.

D. Dinis would have stood  “between 1.65 and 1.68 meters” the scientist also reveals, noting that she had a “population affinity 71% European”.

Miss Cunha noted that “he had all of his teeth at the time of death, with only one cavity,” highlighting that he was “an adult with remarkable resilience” and “quite sturdy.”

"While some individuals did live to advanced ages, being 63 years old 700 years ago would be akin to being 90 or older in today's context," the scientist elaborates, adding that such longevity would likely be attributed to "proper nutrition" and their status within "an elite group."

"Historical accounts suggest that the king was likely bedridden prior to his death, which could explain why he appeared gaunter in the face," she observes.

Eugénia Cunha also disclosed that this marks “the first portrait of a Portuguese king to be scientifically validated.”

“The appearance of this face is backed by scientific evidence. It wasn't the creativity of an artist that shaped the image of D. Dinis; rather, it was his skull and genetic makeup that revealed his true likeness,” emphasizes the anthropologist.

The scientist further clarified that DNA analysis was conducted using the root of a tooth. “Afterward, we replaced the crown. We only compromised the root,” she emphasized, noting that they were not “damaging a femur or extracting teeth.”

D. Dinis was responsible for one of the longest reigns in Portugal’s history  between the years 1279 and 1325. He was also known as the Farmer or Poet-King.

His likeness will be unveiled to the nation in a touring exhibition set to launch in April 2025.

This Marine Being Possesses a Body Covered in Eyes

View pictures in App save up to 80% data. Chiton featuring thousands of 'eyes'. Image sourced from Science Magazine on Youtube. Chitons possess distinctive 'eyes' that set them apart from all other organisms on the planet. These small lenses, known as ocelli, enable them to perceive light and shapes. Recent research has uncovered the evolutionary pathways that led to the development of these remarkable visual systems in various existing chiton species. Chitons View pictures in App save up to 80% data. Acanthopleura granulata, commonly known as the West Indian fuzzy chiton, is a tropical species belonging to the chiton family. Image credit: PiterKrig via Depositphotos. Chitons are marine mollusks That belong to the class Polyplacophora, which contains about 940 extant and 430 fossil species. Their aragonite shell plates allow them to flex and curl up into a ball for protection. Chiton Habitat Chitons are marine mollusks that primarily inhabit rocky shorelines in intertidal zones. They are commonly found clinging to rocks and other hard surfaces, where they can withstand the harsh conditions of wave action and varying water levels. These creatures prefer areas with plenty of algae and other food sources, as they graze on these organisms using their specialized radula. Chitons are also capable of hiding in crevices and under boulders during low tide to protect themselves from predators and desiccation. Overall, their habitat is crucial for their survival, providing both nourishment and shelter. View pictures in App save up to 80% data. Acanthopleura haddoni is a tropical chiton species found in the Red Sea. This marine mollusk can often be seen clinging to rocks. Image sourced from depositphotos. Chitons are typically seen clinging to rocks while feeding on algae, bryozoans, and diatoms. Nevertheless, certain species exhibit omnivorous or carnivorous feeding habits. A Collection of Gazes View pictures in App save up to 80% data. Chiton. Photo courtesy of Deep Marine Scenes through Depositphotos. A recent research study has shown that the ancestors of chitons developed eyes on four separate occasions, leading to the evolution of two unique types of eyes that are present in chitons today. Aesthetic enthusiasts View pictures in App save up to 80% data. Acanthopleura haddoni is a tropical chiton species found in the Red Sea. This marine mollusk can often be seen clinging to rocks. Image sourced from depositphotos. Their light-detecting components, known as aesthetes, are mixed with either larger ocular structures or smaller, more abundant eyespots that link to optic nerves through openings in the shell plates. Shell Vision View pictures in App save up to 80% data. Image captured from “Marine life forms a multitude of eyes using its shell”, Source: “YouTube”, Uploaded by “Science Journal” Chiton shell eyes are situated within their aragonite shells. Each of these 'eyes' comprises a lens, pigmented cells, and photoreceptor cells located beneath the lens. While the main role of these shell eyes is to sense light, researchers also think that ocelli may be capable of recognizing simple shapes. Eye Markings View pictures in App save up to 80% data. Image captured from “Marine life forms a multitude of eyes using its shell”, Source: “YouTube”, Uploaded by “Science Journal” View pictures in App save up to 80% data. “Marine organism creates a thousand eyes from its shell”, Source: “YouTube”, Uploaded by: “Science Magazine” Chitons featuring eyespots typically possess numerous slits across their shell segments. Like shell eyes, these eye spots are composed of a lens, a layer of pigmented cells that minimize light scattering, and photoreceptor cells located beneath the lens. Their primary role is to sense light. The Evolutionary Theory View pictures in App save up to 80% data. Image captured from “Marine life forms a multitude of eyes using its shell”, Source: “YouTube”, Uploaded by “Science Journal” Evolution describes how organisms developed from earlier life forms during the earth’s history. Charles Darwin introduced the concept of evolution. The evolution of chitons, a class of marine mollusks known as Polyplacophora, is a fascinating subject that showcases the adaptability and resilience of these creatures over millions of years. Chitons are characterized by their distinctive eight overlapping shell plates, which provide protection and flexibility. Fossil evidence suggests that chitons have existed for at least 500 million years, dating back to the Cambrian period. Their evolutionary history reflects significant changes in marine environments, with chitons adapting to various habitats ranging from rocky shorelines to deep-sea ecosystems. Throughout their evolution, chitons have developed specialized feeding mechanisms, such as their radula, which allows them to scrape algae and other organic material from surfaces. Their ability to cling tightly to rocks using their muscular foot has also contributed to their survival in turbulent coastal waters. As researchers continue to study the genetic and morphological diversity of chitons, they gain insights into how these creatures have evolved in response to environmental changes and ecological pressures. Understanding chitons not only sheds light on their evolutionary journey but also provides valuable information about marine biodiversity and the health of ocean ecosystems. View pictures in App save up to 80% data. Acanthopleura haddoni is a tropical chiton species found in the Red Sea. This marine mollusk can often be seen clinging to rocks. Image sourced from depositphotos. Researchers suggest that throughout their evolutionary history, chitons have developed four distinct types of visual systems, with two still in use today. Chiton species featuring fewer slits have adapted larger and more intricate shell eyes, whereas those possessing a greater number of slits have evolved numerous but simpler eyespots on their shells. Chiton Varieties Approximately 940 species of chitons, commonly referred to as polyplacophorans, exist. These marine mollusks are distinguished by their eight-part shells and inhabit a wide range of marine habitats across the globe. Chitons primarily feed on algae, particularly those found on rocky surfaces. They use their rasping tongues, known as radulas, to scrape off the algae and other organic material from rocks and substrates in their marine environments. Some species may also consume small invertebrates or detritus. View pictures in App save up to 80% data. Acanthopleura haddoni is a tropical chiton species found in the Red Sea. This marine mollusk can often be seen clinging to rocks. Image sourced from depositphotos. Chitons are herbivorous creatures that utilize their unique radula, a tongue-like structure adorned with numerous tiny, tough teeth, to scrape algae and various organic materials from rocky surfaces. While their main diet revolves around algae, they also feed on small invertebrates and detritus, helping to maintain the cleanliness of the marine ecosystem. Yes, chitons play a significant role in their ecosystems. As herbivores, they graze on algae and other plant materials on rocky surfaces, helping to control algal growth and maintain the balance of the ecosystem. Their feeding habits can prevent overgrowth of algae, which can otherwise suffocate other marine organisms. Additionally, chitons serve as a food source for various predators, contributing to the food web. Their presence can indicate the health of their marine environment, making them important indicators of ecosystem health. View pictures in App save up to 80% data. Acanthopleura haddoni is a tropical chiton species found in the Red Sea. This marine mollusk can often be seen clinging to rocks. Image sourced from depositphotos. Certainly! Chitons are vital for the health of their ecosystems. By feeding on algae, they help control its growth, preventing it from overwhelming coral reefs and other marine organisms. Their existence is essential for sustaining the delicate equilibrium of coastal marine habitats. To observe chitons in their natural habitat, follow these steps: 1. **Research Locations**: Identify coastal areas where chitons are known to inhabit, such as rocky shorelines, tide pools, or intertidal zones. 2. **Timing**: Plan your visit during low tide, as this will expose more of the intertidal zone and increase your chances of spotting chitons. 3. **Equipment**: Bring along necessary equipment such as water shoes, a tide pool guidebook, and a camera for documentation. 4. **Look Closely**: Chitons often blend in with the rocks, so take your time to look closely at the surfaces of rocks and other substrates. They may be hiding under seaweed or in crevices. 5. **Observe Behavior**: Spend time quietly observing their behavior, as chitons can be shy. Look for movement or changes in their position. 6. **Respect the Environment**: Be mindful of the ecosystem. Avoid disturbing the rocks and surrounding marine life while observing chitons. 7. **Join a Guided Tour**: Consider joining a marine biology tour or a guided beach walk, where experts can provide insights and help you spot chitons more easily. By following these guidelines, you can enhance your chances of successfully observing chitons in their natural habitat. View pictures in App save up to 80% data. Acanthopleura haddoni is a tropical chiton species found in the Red Sea. This marine mollusk can often be seen clinging to rocks. Image sourced from depositphotos. If you want to spot chitons, visit rocky coastlines when the tide is low. Search for them attached to rocks in tide pools or nestled beneath boulders. Approach with care and kindness—these ancient and hardy animals play an essential role in their ecosystems, and it’s important to keep their environments safe and undisturbed. Summary View pictures in App save up to 80% data. Acanthopleura haddoni is a tropical chiton species found in the Red Sea. This marine mollusk can often be seen clinging to rocks. Image sourced from depositphotos. This fascinating mollusk has evolved remarkable adaptations for safeguarding itself and perceiving its surroundings. Recent research offers insights into the evolutionary history of these captivating marine creatures. Additional Updates on Animal News View pictures in App save up to 80% data. Acanthopleura haddoni is a tropical chiton species found in the Red Sea. This marine mollusk can often be seen clinging to rocks. Image sourced from depositphotos. Latest posts by Cayla de Souza, M.Sc. Ocean Sciences & Marine Biology (see all)

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Groundbreaking Technique Reveals Fish Sense of Smell

View pictures in App save up to 80% data. Recent research has revealed significant new findings about the cellular structure and functional processes of the zebrafish olfactory epithelium, utilizing cutting-edge single-cell RNA sequencing technology. This advanced genomic technique offers an unparalleled view into the complex architecture and molecular characteristics of individual cell types within the zebrafish's olfactory system, a species renowned for its remarkable sense of smell. Led by a distinguished group of scientists from China, the study highlights the cellular variety present in the olfactory epithelium, identifying nine unique cell types that each play specialized roles in the chemical detection linked to zebrafish behavior. Zebrafish, known scientifically as Danio rerio, are widely recognized as key model organisms in the fields of neurobiology and behavioral studies. Their advanced olfactory system is vital for mediating essential survival behaviors such as feeding, selecting mates, and evading predators. In their study, researchers set up a control group alongside a group exposed to conspecific alarm substances (CAS)—chemical signals emitted by injured fish that elicit a startle reaction in others. This targeted approach enabled the researchers to explore the potential adaptability of cell populations within the olfactory epithelium when faced with environmental stressors. By employing single-cell sequencing techniques, the researchers were able to delineate a range of cell types within the olfactory epithelium of zebrafish, which included both immature and mature olfactory sensory neurons (OSNs), horizontal basal cells, and sustentacular cells. Furthermore, they identified immune cells such as lymphocytes and myeloid cells that exhibit critical immune signaling, highlighting the relationship between the sense of smell and immune function. The research team conducted an advanced clustering analysis that unveiled unique transcriptional profiles for each cell type, showcasing a significant degree of cellular diversity that had not been thoroughly investigated before. A particularly significant element of the research focused on assessing how CAS influences transcriptional dynamics in the olfactory epithelium of zebrafish. Subsequent analyses revealed marked alterations in the ratios of different cell types and certain populations of olfactory sensory neurons (OSNs). The lead author, Wenjun Chen, expressed that the study's results indicate that CAS exposure may trigger apoptosis in OSNs, leading to a reduction in their overall numbers. This reduction initiates a compensatory response, activating OSN progenitor cells to restore the diminished sensory neuron population, thereby underscoring the adaptability of the olfactory system. This research broadens our comprehension of how fish cells react to chemical signals, especially when under stress. While earlier studies suggested that teleost fishes harbor various cell types, this investigation offers a more precise and comprehensive view. The importance of this work extends beyond simply identifying different cell types; it also demonstrates how these cellular populations adaptively respond to environmental stimuli, which could have significant repercussions for our understanding of sensory biology and ecological dynamics. Additionally, the results reveal promising directions for future investigations into the genetic and functional characteristics of these cell types in different environmental and ecological contexts. This underscores the necessity of examining not just the cellular makeup of ecological systems such as zebrafish, but also the dynamic interactions of these cells in reaction to both internal and external factors. Such a holistic perspective allows researchers to broaden their studies to encompass wider ecological and evolutionary frameworks. Within the realms of conservation biology and environmental sustainability, exploring olfactory plasticity in reaction to chemical signals holds significant importance. This understanding can shed light on how fish populations adjust to alterations in their environments, especially when pollutants or other stressors disrupt standard chemical communication pathways. The zebrafish model serves as an excellent basis for deeper research into these critical matters, providing essential knowledge that could lead to practical ecological solutions in the real world. In conclusion, the research led by Wenjun Chen and his team marks a notable advancement in the realm of cellular biology, especially concerning sensory systems. The utilization of precision single-cell sequencing technology has transformed our capacity to analyze the complex molecular mechanisms governing cellular interactions in the zebrafish olfactory system. These comprehensive insights into cellular operations may pave the way for future biomedical innovations, potentially steering regenerative medicine approaches and therapeutic solutions aimed at addressing olfactory impairments. As researchers delve deeper into the intricacies of sensory biology using advanced methodologies, the zebrafish model emerges as an essential resource for comprehending both fundamental biological concepts and the practical dimensions of fisheries science and environmental health. The significance of these discoveries reaches far beyond the confines of academic research and laboratory experiments, influencing conservation projects and ecosystem management strategies that strive to maintain biodiversity in aquatic habitats. To sum up, the progress demonstrated in this study emphasizes the integration of technology and biology in unraveling the intricate workings of sensory systems and their adaptive mechanisms. The continuous investigation of the zebrafish olfactory epithelium stands out as an intriguing example, showcasing how model organisms can provide valuable insights into wide-ranging biological inquiries that hold importance for society. Subject of Research: Animals Article Title: Single-cell RNA sequencing of zebrafish olfactory epithelium reveals cellular heterogeneity and responses to a conspecific alarm substance News Publication Date: October 2023 Web References: DOI link References: Scientific Journal Article Image Credits: Wenjun Chen, et al Keywords: Bioinformatics, Developmental biology, Genetics, Freshwater biology, Organismal biology Explore additional insights from the world of Science. Sign up to receive the newest updates directly in your inbox.

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Breton, a massive great white shark weighing 1,400 pounds, has made his way back to the shores of Florida.

View pictures in App save up to 80% data. A 13-foot great white shark made a return appearance to the Florida waters Wednesday. The over 1,400-pound male shark, named Breton, has been tracked by researchers since 2020 and last resurfaced near Florida on New Year’s Day in 2024. Breton left the Newfoundland coast in early December and made his way south down the East Coast, according to the OCEARCH tracker.  The marine science organization OCEARCH monitors a shark named Breton, who was initially tagged by scientists in September 2020 close to Scatarie Island in Nova Scotia. He became the first shark to be tagged during OCEARCH's expedition in 2020. Since then, Breton has journeyed an impressive 40,913 miles.  Breton has taken trips to Florida during this season in the past, and in 2022, he gained significant attention when his tag pings suggested he had crafted a self-portrait. The great white shark has traveled up and down the East Coast for the past five years and in 2023, he was “pinged” near the Pamlico Sound on North Carolina’s Outer Banks. Great white sharks range from Maine down to the Gulf of Mexico and the Caribbean, according to the National Oceanic and Atmospheric Administration. Breton isn’t the only great white shark making his way south. Bob, another 13-foot male white shark, was pinged off the Florida coast on Jan. 5, according to the tracker.

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Mysterious and Unidentified Formations Discovered Beneath the Pacific Ocean

The formations might be new or old, but scientists remain uncertain. View pictures in App save up to 80% data. Here is a representation of the locations of cooler material within the mantle, made possible by an innovative computer model. Image Credit: Sebastian Noe / ETH Zurich. Geoscientists have leveraged earthquake data to investigate the makeup of the lower section of the Earth's mantle beneath the Pacific Ocean, leading to some intriguing findings. They've identified regions where seismic waves exhibit unusual movement patterns, indicating the presence of structures that are either colder or possess a distinct composition compared to the adjacent molten rocks. The researchers characterize these structures as a significant enigma. It is unclear what these structures are. If they were anywhere else, they could be portions of tectonic plates that have sunk in a subduction zone. But the Pacific is one large plate, so there should be no subduction material under it. The researchers are also uncertain about what kind of material these deep structures are made of or what this means for the internal structure of the planet. "That's our dilemma. With the new high-resolution model, we can see such anomalies everywhere in the Earth's mantle. But we don't know exactly what they are or what material is creating the patterns we have uncovered," Thomas Schouten, first author and doctoral student at the Geological Institute of ETH Zurich, said in a statement. The existence of numerous cold areas within the mantle implies that they may have originated at various points in time and from diverse sources. These regions are not solely the result of subduction plates from the past 200 million years. Schouten elaborated, "We believe that the irregularities in the lower mantle stem from multiple sources. They might be remnants of silica-dense substances that have existed since the mantle's formation around 4 billion years ago, managing to endure the convective shifts within the mantle. Alternatively, these anomalies could represent areas where iron-laden rocks have gathered due to the mantle's movements over the span of billions of years." Further efforts are required. The team relies solely on one characteristic of seismic waves—their speed—to deduce a great deal about the processes occurring beneath our surface. Despite having impressive models, it remains a challenge to derive all necessary information from this single aspect. We cannot physically access the Earth's interior to observe its contents.   "Schouten explained, 'We need to assess the various material parameters that could account for the observed velocities of the different wave types. In essence, we must investigate the material characteristics that influence wave speed more thoroughly.'" A paper describing these findings is published in the journal Scientific Reports.

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Archaeologists recover a 2,600-year-old shipwreck near the shores of Spain | Global | Headlines

View pictures in App save up to 80% data. After more than three decades since its initial discovery, archaeologists have unearthed a shipwreck off the coast of Spain that dates back 2,600 years. The Mazarrón II went down around 600 B.C.E and was quickly covered by sand, which played a significant role in preserving it out of sight for many centuries. In a remarkable achievement, researchers successfully brought the shipwreck back to the surface from its underwater resting place between September and November 2024. While conducting the extraction, researchers uncovered new materials such as pieces of rope and ceramic fragments. The preservation of these fragile items offers a rare chance for advancement in archaeological studies. Step by step, a group of 14 experts, directed by Carlos de Juan from the University of Valencia, meticulously moved the Phoenician ship onto dry land for further study and preservation. Now, those fragments are going to a lab at the Museum of Underwater Archaeology in Cartagena for conservation and reconstruction.  Scientists are optimistic that the remains will provide fresh insights into the Phoenician civilization. Carlos de Juan, the director of the excavation project, told El Cronista: “It has been delicate work, but mechanical. Slow, but equivalent to what the team had already done before in other scenarios of extracting archaeological remains. "The vessel now resembles a cake in texture: it remains stable when horizontal but falls apart with even a slight tilt." Divers initially located The Mazarrón II in 1994 in the waters of Murcia, Spain’s Ministry of Culture revealed. It was one of two wrecks found near the town of Mazarrón, which they have both been named after. The vessel has a length of 8.10 meters and a maximum width of 2.25 meters. The wreck had been covered by a protective metal box, however, a group of experts found that the metal box was sinking and threatened to crush the shipwreck. In the summer of 2023, archaeologists devised a strategy to recover the shipwreck from the ocean floor. They dedicated 560 hours to diving at the site, meticulously creating detailed diagrams of the ship's numerous fractures. Currently, the team is focused on rehabilitating the artifacts and safeguarding them within the National Museum of Underwater Archeology. The University of Valencia stated: “This dedicated center will carry on the efforts of restoration and research, guaranteeing the conservation and examination of this invaluable historical accomplishment.”

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Discover the Secrets Behind Pruney Fingers: A Dive into Biology, Evolution, and Health

View pictures in App save up to 80% data. Ever wondered about pruney fingers? Dive into this intriguing occurrence that highlights aspects of biology, evolution, and the crucial role of staying hydrated. The Unexpected Science of Wrinkled Fingers For centuries, the phenomenon of pruney fingers has intrigued people. While many believe that it’s simply a result of being in water for too long, the truth is more intricate, involving our nervous system and evolutionary biology. When our hands are submerged, the nervous system sends signals that prompt the skin to wrinkle. This response is not just a trivial consequence of wet skin; rather, it has an important function, reflecting a mechanism that has been refined over generations of evolution. A Benefit of Evolution The capacity to produce pruney fingers presents notable advantages for survival, especially for our forebears. Picture a setting where the ability to obtain food and endure challenges relied greatly on agility and grip strength. The wrinkling of finger skin improves traction in moist environments, whether it's scaling rocky terrains, collecting water plants, or gripping slippery objects. This evolutionary characteristic exemplifies nature's cleverness, highlighting how biological changes can significantly impact a species' survival and prosperity. The Importance of Staying Hydrated It's fascinating how hydration levels can greatly impact the extent of skin wrinkling. Proper hydration not only promotes overall skin health but also plays a crucial role in determining the visibility of wrinkles. When the body is lacking hydration, the skin loses its elasticity, resulting in a diminished wrinkling response. By recognizing the connection between hydration and skin health, individuals may be encouraged to focus more on these aspects, ultimately enhancing their overall well-being. Comprehending Skin Wellness Healthy skin is a sign of overall wellness. Keeping your body hydrated is vital, not only to avoid wrinkled fingers but also for numerous skin functions. Water plays a key role in preserving skin elasticity, controlling temperature, and delivering important nutrients. Focusing on hydration can promote skin health and may also improve the skin’s response to wrinkling when needed—like during boating, swimming, or other water-related activities. Effective Strategies for Achieving Ideal Hydration To enhance your hydration, try adding more foods with high water content to your meals. Fruits such as cucumbers, watermelon, and oranges can significantly boost your daily fluid consumption. Establishing a habit of taking regular water breaks can serve as a helpful reminder to keep your hydration levels in check throughout the day. Staying properly hydrated is one of the easiest and most effective approaches to improve your skin health and overall performance in everyday tasks. Delving Deeper into the Marvels of Biology The phenomenon of pruney fingers encourages us to recognize the remarkable adaptations our bodies have undergone. This biological marvel provides a chance to explore the intriguing realm of human evolution. Gaining insight into how our forebears adjusted to their surroundings not only enhances our understanding of biology but also fosters a greater appreciation for the wonders of human progress. Incorporating Knowledge into Everyday Living Gaining awareness of these biological functions can result in meaningful lifestyle adjustments. By prioritizing proper hydration or understanding the benefits of our body's inherent reactions, mindfulness can elevate routine behaviors into effective strategies for promoting holistic health. Investigating how our nervous system influences skin reactions enhances our understanding of biological processes. Whether we're leisurely swimming, doing the dishes, or indulging in a soothing bath, this physiological phenomenon highlights the remarkable connection between our bodies and their surroundings. Final Thoughts: Embrace the Intricacies of the Natural World Wrinkled fingers are not just a trivial response to being submerged in water; they represent a fascinating convergence of biology, evolution, and health. This intriguing phenomenon highlights the intricate complexities of nature. By exploring the reasons behind this reaction, we can cultivate a greater appreciation for our bodies and recognize the critical importance of hydration in preserving skin health. As you delve deeper into the wonders of biological responses, keep in mind the significance of staying hydrated, embrace the subtleties of natural evolution, and use this understanding to enrich your everyday life.

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How to view the first complete 'Wolf' moon of 2025 and the story behind its name

Full Moons are eagerly awaited occasions in the lunar calendar. Here’s how you can catch the first full 'Wolf Moon' of 2025. View pictures in App save up to 80% data. The 'Wolf Moon' is set to illuminate the night sky shortly. Skywatchers won't have to wait much longer for the first full Moon of the year to illuminate our night skies. A full Moon occurs when the side of the Moon facing the Earth is fully illuminated by the Sun. It rises around sunset and sets around sunrise. The upcoming full Moon is scheduled for Monday, January 13, 2025. It will attain its full phase at 10:26 PM GMT, although the times for moonrise will differ based on your specific location within the UK. The same side of the Moon always faces Earth. NASA says this is due to the interplay of gravity between the Earth and Moon slowing the moon into a rotation at the same speed it orbits Earth – a process known as being ‘tidally locked’. During the course of the lunar month, observers of the Moon can witness the movement of the terminator, which is the dividing line between the illuminated and dark portions of the lunar surface. When a full Moon occurs, the side of the Moon that faces Earth is completely illuminated. The term 'Wolf Moon' is derived from Native American traditions, where it was used to describe the first full moon of January. This name reflects the time of year when wolves were often heard howling in the cold winter nights, as they ventured out in search of food. The name has since been adopted into modern culture and is commonly used to refer to this specific full moon. The term "Wolf Moon" refers to the second full moon of the winter season and marks the first full moon of the new year. This name is thought to have come from Indigenous peoples in North America, as it was during this time that the sounds of wolves howling could often be heard in the night. View pictures in App save up to 80% data. The 'Wolf Moon' marks the initial full Moon of the new year. Dr. Darren Baskill, an astrophysicist at the University of Sussex, explains, “Some European cultures refer to the January Full Moon as the Wolf Moon, inspired by the haunting howls of wolves that echo through the winter as they hunt for sustenance.” “Wolves were hunted to extinction in the UK just 250 years ago, being Britain’s last apex predator to go extinct,” Baskill told BBC Science Focus. “But their presence is still remembered today through the oral tradition of the names of the Full Moon.” Every month features a unique name for its full Moon. For instance, June is known for its 'Strawberry Moon,' while September is referred to as the 'Corn Moon.' Full Moon schedule for the remainder of 2025. Monday, January 13 — Wolf Moon Wednesday, February 12 — Snow Moon Friday, March 14 — Worm Moon Saturday, April 12 — Pink Moon Monday, May 12 — Flower Moon Wednesday, June 11 — Strawberry Moon Thursday, July 10 — Buck Moon Saturday, August 9 — Sturgeon Moon Sunday, September 7 — Corn Moon Monday, October 6 — Hunter’s Moon (Supermoon) Wednesday, November 5 — Beaver Moon (Supermoon)

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ISS National Lab Unveils Funding Opportunity of Up to $650,000 for Advancements in Low Earth Orbit Technology

KENNEDY SPACE CENTER, Fla., Jan. 8, 2025 /PRNewswire/ -- The International Space Station (ISS) National Laboratory is soliciting flight concepts for technology advancement that utilizes the space-based environment of the orbiting laboratory. This solicitation, "Technology Advancement and Applied Research Leveraging the ISS National Lab," is open to a broad range of technology areas, including chemical and material synthesis in space, translational medicine, in-space edge computing, and in-space servicing, assembly, and manufacturing. It also encompasses the application of space station remote sensing data to improve geospatial analytics for commercial use. The development and demonstration of space-based technologies is a key strategic focus for the ISS National Lab. This initiative offers a chance to fast-track technology maturation, potentially leading to innovations that enhance human life and foster commercial activities in low Earth orbit (LEO). In this research announcement, participants are invited to leverage the distinctive setting of the orbiting platform to innovate, refine, or advance products and processes that show promise for generating immediate and beneficial economic effects, either directly or indirectly. Concepts for flights chosen through this announcement may receive financial support to facilitate mission integration and operational assistance for initiatives intended for execution on the space station. Key focus areas for this solicitation encompass, but are not restricted to: Hardware prototype testing: Innovations addressing hardware product development gaps and emerging technology proliferation in the areas of electronics; semiconductors; nanotechnologies; robotics; sensors; and communications, remote sensing, computer, and satellite technology. Process improvements: Use of the space station as a test bed to advance the development of facilities for high-throughput investigations or to demonstrate new methodologies for spaceflight research and development, or the use of space-based data to facilitate modeling of industrial systems. Advanced materials: Current advanced materials research that addresses the development of next-generation production methods, testing of novel materials, and the exploitation of materials with unique properties. Translational medicine: Validation of accelerated disease modeling, analyzing macromolecular structures for drug design, and demonstration of novel drug delivery and diagnostic services. As an example, on SpaceX's most recent Commercial Resupply Services mission for NASA to the space station, Kall Morris Inc., launched a project funded through a prior ISS National Lab technology development solicitation. The project is testing the REACCH capture system for space debris removal using the Astrobees, free-flying autonomous robots on the space station, bringing the capture system closer to commercialization. The system could reduce risk to current space-based infrastructure and clear orbital slots for future infrastructure.  This research announcement will follow a two-step proposal submission process. Before being invited to submit a full proposal, all interested investigators must submit a Step 1: Concept Summary for review. The Center for the Advancement of Science in Space™, manager of the ISS National Lab, will host a webinar on Thursday, January 23, at 1 p.m. EST to discuss space station facilities and capabilities associated with this research announcement. Register in advance at the link.  Step 1: All Concept Summaries need to be submitted by the close of business on March 3, 2025. Step 2: Full Proposals from selected invitees must be submitted by the end of the day on May 19, 2025. It is anticipated that several projects will receive funding through this research announcement, with a total funding pool of up to $650,000. For more information about this opportunity, including how to submit a Step 1: Concept Summary, please visit the research announcement webpage. To learn more about the ISS National Lab and the science that it sponsors, please visit our website. Download a high-resolution image for this release: Astronaut Suni Williams Works With Astrobee Information on the International Space Station (ISS) National Laboratory:The International Space Station (ISS) is a one-of-a-kind laboratory that enables research and technology development not possible on Earth. As a public service enterprise, the ISS National Laboratory® allows researchers to leverage this multiuser facility to improve quality of life on Earth, mature space-based business models, advance science literacy in the future workforce, and expand a sustainable and scalable market in low Earth orbit. Through this orbiting national laboratory, research resources on the ISS are available to support non-NASA science, technology, and education initiatives from U.S. government agencies, academic institutions, and the private sector. The Center for the Advancement of Science in Space™ (CASIS®) manages the ISS National Lab, under Cooperative Agreement with NASA, facilitating access to its permanent microgravity research environment, a powerful vantage point in low Earth orbit, and the extreme and varied conditions of space. To learn more about the ISS National Lab, visit our website. As a 501(c)(3) nonprofit organization, CASIS® accepts corporate and individual donations to help advance science in space for the benefit of humanity. For more information, visit our donations page. Media Contact:       Patrick O'Neill  904-806-0035  International Space Station (ISS) National LaboratoryManaged by the Center for the Advancement of Science in Space, Inc. (CASIS) 1005 Viera Blvd., Suite 101, Rockledge, FL 32955 • 321.253.5101 • www.ISSNationalLab.org

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