INST scientists find natural protein that can reshape future of electronic materials

(Photo: PIB)

New Delhi, (IANS) A team of scientists from Institute of Nano Science and Technology (INST), Mohali, an autonomous institute of the Department of Science and Technology (DST), have discovered semiconductor property of a known self-assembling bacterial shell protein could pave the way for safe, environmentally friendly electronics -- from mobile phones and smart watches to medical instruments and environmental sensors.

Traditional semiconductor materials, such as silicon, are valuable technological tools; however, they also have limitations. They are rigid, require high-energy processing, and contribute to the growing problem of electronic waste. Thus, there is increasing demand for sustainable, soft, and biocompatible electronics (wearables, implantable, green sensors).

The INST scientists experimented with self-assembling bacterial shell proteins to explore whether the proteins that naturally form stable, large flat 2D sheets with built-in electron density patterns and aromatic residues could be intrinsically photoactive.

They found that when the proteins form flat, sheet-like films, they absorb UV light and generate an electrical current without any added dyes, metals, or external power and act as light-driven, scaffold-free semiconductors, much like the materials used in electronic circuits and sensors.

Further, the team discovered that these proteins naturally arrange themselves into thin, sheet-like structures. When UV light shines on them, tiny electrical charges begin to move across the protein surface.

“This happens because the proteins contain tyrosine, a natural amino acid that can release electrons when excited by light. As these electrons and protons move, the protein sheet produces an electrical signal -- similar to how a miniature solar cell would operate. This light-driven effect relies on the protein’s internal order and does not require any synthetic additives or high-temperature manufacturing,” said the team led by Dr. Sharmistha Sinha, together with student researchers Silky Bedi and S. M. Rose.

“The discovery opens up exciting possibilities for real-world applications. Because the material is flexible and body-friendly, it could be used to create wearable health monitors, skin-safe UV-detection patches, and implantable medical sensors that work safely inside the human body,” the team said.

In the paper, published in the journal Chemical Science of the Royal Society of Chemistry, the team could also be used in temporary or disposable environmental sensors, such as pollution detectors or sunlight trackers, that naturally break down after use without harming the environment.Families, patients, and consumers may one day benefit from soft, comfortable, and environmentally responsible devices that integrate smoothly into daily life. INST scientists find natural protein that can reshape future of electronic materials | MorungExpress | morungexpress.com
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Scientists Were Wrong About How Fast Solar Panels Degrade – They May Last Twice as Long

A solar park in Brandenburg, where the study took place – credit, A Savin FAL License

A huge scientific survey of over 1 million German solar installations has revealed a surprising statistic: their potential to degrade year by year has been significantly exaggerated.

Previous models have overestimated the rate of degradation in a solar installation’s ability to generate power by between 20% to 50% according to this new survey.

“Back of the envelope,” the authors admit, “the estimated cost of degradation would decrease, compared to previous findings, by about €638 million per year to maintain installed capacity in 2040.”

Germany has been steaming forward with green energy installation for 20 years. Having decommissioned many of its coal power plants, and controversially eliminated its entire nuclear fleet as well, the country has installed some 60 gigawatts just of solar capacity since 2006.

A common criticism of solar is that photovoltaic panels—like all electrical hardware—lose efficiency over time, and, being exposed to the elements 365 days a year, frost, heat, wind, and dust beat them down such that the power you expected to receive when you built the solar installation isn’t what you are receiving a decade after.

The survey, conducted by scientists from Brandenburg University of Technology alongside a collaborator from University College London, involved around 1.25 million large and small solar installations across Germany, totaling 34 gigawatts of capacity. At 16 years, the study period was longer than any other examination, while the study period accounted for newer generations of solar panels.

The authors found annual degradation rates of 0.52–0.61%, roughly half the average reported in prior studies, which also had limitations of smaller sample sizes (the largest other survey of this kind was with 4,200 installations) and shorter study durations averaging between 2 and 7 years.

Other key findings support the value of large-scale solar installations. Degradation rates slow as the PV panels age. In other words, new PV panels lose capacity faster than older ones. Additionally, larger installations like solar farms degrade slower than smaller ones like rooftop arrays.

“That is important because it suggests that utility-scale PV cannot simply be treated as a scaled-up version of rooftop solar,” said lead author Peitro Melo, speaking with PV Magazine. “Reliability and maintenance strategies have a measurably different impact on outcomes.”

Frost, extreme heat, and air pollution affect PV panels differently at different stages of their lifespan. Extreme heat tends to reduce the efficiency of older panels more than newer ones, even though for frost and air pollution, it’s the opposite.

“This is a positive result for the solar industry, from households who have bought systems up to investors in megaprojects. Lower degradation means greater output and revenue over a project’s lifetime.”

Another way to summarize the team’s findings is that this new and more accurately-estimated degradation rate for PV systems translates to a 4.8% reduction in the levelized cost of electricity from solar panels. This means that, in order to maintain nameplate power production across the entire German fleet, 2.3 gigawatts of PV panels would have to be installed every year, while under previous assumptions, replacement rates have reached as high as 4.5 gigawatts. Scientists Were Wrong About How Fast Solar Panels Degrade – They May Last Twice as Long
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Chimps’ Love for Crystals Could Help Us Understand Our Own Ancestors’ Fascination with These Stones

A chimp named Toti observes the crystal – credit, García-Ruiz et al., 2026, according to CC 4.0. license

Scientists have found that chimpanzees are attracted to crystals, seem to value them, want to keep them where they sleep, and can easily distinguish any stone that shines or glitters from others that don’t.

The researchers were hoping to understand whether our own species’ long documented appreciation (bordering on obsession) with crystals, gems, and precious metals, extends even further back down our evolutionary timeline.

The findings must be taken with several grains of sodium chloride crystal, but may open up a fascinating field of study into the origins of value.

Maybe you’ve experienced this: news comes out about a large diamond or ruby selling at auction for the same price as a house, and you or a friend have a brief moment of wondering, “why?”

Similarly, maybe you subscribe, or at least sympathize, with Warren Buffet’s long-held views on gold—namely that it’s nothing but a shiny rock—”a barbarous relic,” as the Oracle of Omaha famously said.

But even so, there’s something about the appeal of shiny rocks that clearly transcends logic, and that’s been true not only for the 5,500 year history of gold’s use as money, but for likely our entire existence.

Crystals have repeatedly been found at archaeological sites alongside Homo remains. Evidence shows hominins have been collecting these stones for as long as 780,000 years. Yet, we know that our ancestors did not use them as weapons, tools, or even jewelry. So why did they collect them at all?

Something about these stones made them desirable, even when they weren’t used for anything, and hoping to understand why, Spanish scientists conducted an experiment with 9 encultured chimps at a primate rescue center.

Encultured means that the animals have had extensive contact with humans, and is the first reason to hold one’s horses regarding scientific conclusions, but the results of the experiment nevertheless left the scientists “amazed.”

“We were pleasantly surprised by how strong and seemingly natural the chimpanzees’ attraction to crystals was,” said lead author Juan Manuel García-Ruiz, a professor in San Sebastian in crystallography. “This suggests that sensitivity to such objects may have deep evolutionary roots.”

Modern humans diverged from chimps between 6 and 7 million years ago, so we share substantial genetic and behavioral similarities. To find out if fascination with crystals is one of them, the researchers provided two groups of chimpanzees (Manuela, Guillermo, Yvan, Yaki, and Toti in group one and Gombe, Lulú, Pascual, and Sandy in group two) with access to crystals.

A chimp named Yvan spent more than 15 minutes inspecting a small crystal – credit García-Ruiz et al., 2026, according to CC 4.0. license

In the first experiment, a large quartz crystal—called the monolith—was placed on a platform, along with a normal rock of similar size. While initially both objects caught the chimps’ attention, soon the crystal was preferred and the rock disregarded. Once they had removed it from the platform, all chimps inspected the crystal, rotating and tilting it so they could view it from specific angles. Yvan then picked up the crystal and decisively carried it to their hay-lined sleeping huts.

A second experiment showed that the chimps could identify and select smaller quartz crystals—similar in size to those found in hominin site excavations—from a pile of 20 rounded pebbles within seconds.

When pyrite (Fool’s Gold) and calcite crystals, which have different shapes than quartz crystals, were added to the pile, chimps still were able to pick out crystal-type stones.

“The chimpanzees began to study the crystals’ transparency with extreme curiosity, holding them up to eye level and looking through them,” García-Ruiz said. The animals then immediately, like the monolith experiment, took them back to their dormitories.

Chimps repeatedly examined the crystals for hours. Sandy, for example, carried pebbles and crystals in her mouth to a wooden platform where she separated them.

“She separated the 3 crystal types, which themselves differed in transparency, symmetry, and luster, from all the pebbles. This ability to recognize crystals despite their differences amazed us,” García-Ruiz said.

The authors pointed out that chimps don’t usually use their mouths to carry objects, so this could mean they were hiding them, a behavior consistent with treating the crystals as valuable, the team pointed out. It could, however, also mean they were testing to see if they were edible, but maybe not.

Another behavior by the chimps demonstrated the potential that they understood a value proposition in the crystals: that in order to get them back, the researchers had to barter for them, with substantially more pounds of food then the crystal. If indeed they were testing to see if it were edible, the amount of food they demanded in return seems strange.

Philosophically, the food trade experiment mirrors the classical value paradox of gems and precious metals.

One can’t eat a gemstone or gold coin, yet they cost far more than bread. Starving to death, one would trade every gemstone on Earth for a loaf of bread, so why do we assign them so much value? Based on how many bananas and how much yogurt García-Ruiz and his team had to offer, it could be that chimpanzees fall into that same paradox.

An interesting hypothesis as to why the chimps found the crystals interesting is their shape.

Crystals are the only natural polyhedral objects, meaning the only natural solids with many flat surfaces. When early humans tried to make sense of their environment, their cognitive processes might have been drawn to patterns that were unlike what they knew.

The clouds, trees, mountains, animals, and rivers of the natural world surrounding our ancestors were defined by curvature and ramification, so few items had straight lines and flat surfaces.

The combined observations from the experiments identified that both the transparency and the shape as alluring properties to the chimps. It might have been the same qualities attracting early humans to these rocks.

However, the fact that the chimps had long become accustomed to living with humans should, the researchers note, be considered a limiting factor in interpreting anything conclusively from the studies. Ideally, García-Ruiz said, the experiment should be replicated with wild apes, and preferably not only with Chimps, but also bonobos and gorillas.

Michael Haslam, an archaeologist with Historic Environment Scotland, told the New York Times that the great apes aren’t the only animals that value crystals: some birds have been known to collect them. Bowerbirds, fascinating birds that will decorate their nests with all sorts of objects, have been documented arranging quartz crystals around the perimeter of their nest to attract females.The gemstones of our marketplaces today are just certain kinds of scarcer crystals that are cut and polished, and there’s every reason to suspect that if the Hope Diamond were placed in front of Sandy, or the male bowerbird, they’d behave exactly the same. Chimps’ Love for Crystals Could Help Us Understand Our Own Ancestors’ Fascination with These Stones
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Triceratops Had Huge Nose to Control its Body Temperature, Suggests Curious Scientist

Seishiro Tada with fossilized Triceratops – SWNS

Scientists wanted to know why the iconic triceratops had such an unusually large nose compared to most species—both past and present.

Their new study shows the triple-horned dinosaur had a huge nose to help control its body temperature.

The team used CT scans of fossilized Triceratops skulls and compared their structures with modern animals including birds and crocodiles.

Through direct observation and inference, the research team reconstructed how nerves, blood vessels and structures for airflow fit together in the skulls.

They concluded that horned dinosaurs probably used their noses not just for smelling but also to help control temperature and moisture. Project Research Associate Dr. Seishiro Tada, from the University of Tokyo Museum in Japan, wondered about moisture control while studying a fossilized triceratops.

“I have been working on the evolution of reptilian heads and noses since my master’s degree,” said Dr. Tada.

“Triceratops in particular had a very large and unusual nose, and I couldn’t figure out how the organs fit within it even though I remember the basic patterns of reptiles.

“That made me interested in their nasal anatomy and its function and evolution.”

Horned dinosaurs (or Ceratopsia) had some of the most elaborate skull types—and Triceratops was the most iconic and instantly recognizable.

But due to its relative uniqueness, the internal anatomy of Triceratops skulls has been poorly understood, until Dr. Tada explored the internal soft tissues using modern tools at their disposal.

SWNS

“Employing X-ray-based CT-scan data of a Triceratops, as well as knowledge on contemporary reptilian snout morphology, we found some unique characteristics in the nose and provide the first comprehensive hypothesis on the soft-tissue anatomy in horned dinosaurs.

“Triceratops had unusual ‘wiring’ in their noses.

“In most reptiles, nerves and blood vessels reach the nostrils from the jaw and the nose. But in Triceratops, the skull shape blocks the jaw route, so nerves and vessels take the nasal branch.

“Essentially, Triceratops tissues evolved this way to support its big nose.

“I came to realize this while piecing together some 3D-printed Triceratops skull pieces like a puzzle.”

The findings, published in the journal The Anatomical Record, also revealed a special structure in Triceratops’ nose called a respiratory turbinate, which almost no other dinosaurs are known to possess. Yet modern birds have them, as do modern mammals.

The structures are thin, curled surfaces within the nose that increase the surface area for blood and air to exchange heat.

Dr Tada says Triceratops probably wasn’t fully warm-blooded, but the researchers believe the structures helped keep temperature and moisture levels under control as its large skull would be difficult to cool down otherwise.“Although we’re not 100% sure Triceratops had a respiratory turbinate, as most other dinosaurs don’t, some birds have an attachment base (ridge) for the turbinate. Horned dinosaurs have a similar ridge at the similar location in their nose as well. Triceratops Had Huge Nose to Control its Body Temperature, Suggests Curious Scientis
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Raincoat no longer waterproof? A textile scientist explains why – and how to fix it

You pull on your rain jacket, step out into the storm, and within half an hour your undershirt is soaked. The jacket you purchased as “waterproof” seems to have stopped working, and all the marketing claims feel a bit suspect.

In reality, the jacket probably hasn’t failed overnight: a mix of how it’s built, the exact level of water protection it offers, and years of sweat, skin oil and dirt have all played a part.

But there are a few simple ways you can care for your rain jacket to ensure you stay dry, even when it’s pouring.

The science behind rain jackets

Most proper rain jackets are built around a waterproof “membrane” sandwiched inside the fabric. Gore-Tex is the most popular technology used which includes a very thin layer of chemicals known as PTFE (polytetrafluoroethylene) or expanded PTFE (ePTFE) which are full of microscopic pores.

Those pores are much smaller than liquid water droplets. But they’re big enough for individual water vapour molecules, so rain on the outside can’t push through, but sweat vapour from your body can escape outwards.

Other fabrics use solid, non-porous membranes made from polyurethane or polyester that move water vapour by absorbing it and passing it through the material molecule by molecule rather than via tiny holes. This can make them a bit more tolerant of dirt.

The outer fabric is sometimes treated with a very thin chemical finish that makes water roll off the surface instead of soaking into the fibres – a bit like wax on a car. This finish is known as “Durable Water Repellent” and helps to reduce saturation of water in the exterior of the jacket.

In the past, many of these chemical finishes used “forever chemicals” (PFAS) that repelled both water and oil, but persist in the environment and build up in wildlife and people.

Because of this, brands and regulators have started using alternatives based on silicones or hydrocarbons. These still repel water but are generally less hazardous.

It’s also useful to understand the words you see on labels.

A waterproof jacket is built to stop rain coming through, even in heavy or prolonged downpours, and usually has a membrane, a chemical finish plus fully taped seams.

“Water resistant” means the fabric slows water down and copes with light showers but will eventually let water through. It often relies on a tight weave and a chemical finish but no true membrane.

“Water repellent” just describes that beading effect from the chemical finish. It can apply to both waterproof and non-waterproof fabrics.

Some brands also say rainproof or weatherproof as a friendlier way of saying “pretty much waterproof”, but there’s rarely a separate test behind that word.

 
The outer fabric of a rain jacket is sometimes treated with a very thin chemical finish that makes water roll off the surface instead of soaking into the fibres. Claudio Schwarz/Unsplash

Why do rain jackets degrade over time?

When you realise your jacket isn’t waterproof anymore, the first thing that has usually gone wrong isn’t the membrane. It’s the chemical finish on the outside.

That ultra thin surface layer gets scuffed by backpack straps and seat belts, baked by sun, and contaminated by mud, smoke and city grime.

These coatings can gradually lose their water repellent properties through abrasion and washing if harsh detergents and washing cycles are used, and bits of them are shed into the environment over time.

Body oils, sunscreen and insect repellent also play a role, as they build up in the fabric over time. Outdoor gear care guides and lab work on waterproof fabrics both point out that these oily contaminants can damage the chemical finish and clog the pores of the membrane, making it harder both for rain to be repelled and for sweat vapour to escape.

Over many years, slow physical ageing also takes a toll. Constant flexing can cause a membrane to thin or develop tiny cracks and the finish to deteriorate. Seam tapes can also start to peel away, especially on shoulders where backpack straps press.

How to keep a jacket waterproof

The single best thing you can do for both your comfort and the planet is to keep a good jacket working for as long as possible, because making new technical fabrics has a significant environmental footprint.

Gentle washing will help extend the life of your rain jacket, as it removes the build up of contamination such as dirt and body oils. Brands and care guides recommend closing zips and Velcro, then washing on a gentle cycle with a cleaner designed for waterproof fabrics or a very mild soap, avoiding normal detergents and softeners that leave residues.

Depending on the type of chemical finish, this coat can be re-applied through spray-on or wash-in products found commercially. Some finishes can be re-activated by exposure to low heat (low dryer heat or low ironing heat). Heat makes the water-repelling molecules stand back up after they have been “flattened” by use and contamination.

Although the above will help you to keep your jacket waterproof, it is best to follow the care instructions given by the manufacturer as they change according to the type of composition of the fabric.

In any case, it is important to avoid leaving the jacket wet and scrunched up for weeks, and be mindful of heavy sunscreens and repellents.The Conversation

Carolina Quintero Rodriguez, Senior Lecturer and Program Manager, Bachelor of Fashion (Enterprise) program, RMIT University

This article is republished from The Conversation under a Creative Commons license. Read the original article.

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New Spray-on Powder Instantly Seals Life-Threatening Wounds in Battle or During Disasters

South Korean scientists win award for wound powder – SWNS

A spray-on powder that instantly seals life-threatening wounds could save thousands of lives, say scientists.

The new substance can help prevent excessive bleeding which is the leading cause of death due to injuries in war, according to a study.

The fast-acting powder that stops bleeding in just one second was developed by South Korean scientists who say it can also be applied in emergency hospital procedures.

The research team at the Korea Advanced Institute of Science and Technology (KAIST) in Daejeon, which included an Army Major, created the powder that rapidly forms a strong hydrogel barrier when sprayed directly onto a bullet wound.

The team designed the technology with real combat conditions in mind, and the direct involvement of an Army Major helped ensure its practical readiness.

Major Kyusoon Park, who is also a PhD candidate and served as a study co-author, said the substance not only allows “instant hardening” under extreme conditions like combat or disasters but also delivers high usability and storage stability.

“Until now, patch-type hemostatic agents widely used in medical fields have had limitations due to their flat structure and sensitivity to temperature and humidity.”

They cannot withstand pressure applied to the wound. Also, current powders that stop blood flow have limited functionality by physically absorbing blood to form a barrier, according to the study published in the journal Advanced Functional Materials.
Medical first aide equipment for combat care at Marine Corps Base Camp Lejeune – Credit: Navy Medicine via Unsplash

“The new AGCL powder reacts with cations, such as calcium in the blood, to turn into a gel state in one second, instantly sealing the wound,” said study co-leader Professor Steve Park.

“Furthermore, by forming a three-dimensional structure inside the powder, it can absorb blood amounting to more than seven times its own weight.”

“It shows superior sealing performance compared to commercial hemostatic agents—with a high adhesive strength and a level of pressure that can withstand being pressed strongly by hand.”

AGCL powder is composed entirely of naturally derived materials with an antibacterial effect of 99.9%.

It has a structure that combines biocompatible natural materials such as alginate and gellan gum—that react with calcium for fast gelation and physical sealing—and chitosan, which bonds with blood components to enhance chemical and biological hemostasis.

“In animal experiments, excellent tissue-regeneration effects, such as rapid wound recovery and promotion of blood vessel and collagen regeneration, were confirmed,” explained Prof. Park.

“In surgical liver injury experiments, the amount of bleeding and hemostasis time were significantly reduced compared to commercial methods.”

“It also maintains its performance for two years, even in room temperature and high humidity environments, possessing the advantage of being ready for immediate use in harsh environments.

“Although this is an advanced new material technology developed with national defense purposes in mind,” said Major Park, “it has great potential for emergency medicine, disaster sites, developing countries, and medically underserved areas.”“I started the research with a sense of mission to save even one more soldier—but I also hope this technology will be used as a life-saving technology in private medical fields.” New Spray-on Powder Instantly Seals Life-Threatening Wounds in Battle or During Disasters
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Scientists Develop Biodegradable Smart Textile–A Big Leap Forward for Eco-Friendly Wearable Technology

Flexible inkjet printed E-textile – Credit: Marzia Dulal

Wearable electronic textiles can be both sustainable and biodegradable, shows a new study.

A research team led by the University of Southampton and UWE Bristol in the UK tested a new sustainable approach for fully inkjet-printed, eco-friendly e-textiles.

Named SWEET—for Smart, Wearable, and Eco-friendly Electronic Textiles—the new ‘fabric’ was described in findings published in the journal Energy and Environmental Materials.


E-textiles are those with embedded electrical components, such as sensors, batteries or lights. They might be used in fashion, for performance sportswear, or for medical purposes as garments that monitor people’s vital signs.

Such textiles need to be durable, safe to wear and comfortable, but also, in an industry which is increasingly concerned with clothing waste, they need to be kind to the environment when no longer required.

“Integrating electrical components into conventional textiles complicates the recycling of the material because it often contains metals, such as silver, that don’t easily biodegrade,” explained Professor Nazmul Karim at the University of Southampton.


“Our eco-friendly approach for selecting sustainable materials and manufacturing overcomes this, enabling the fabric to decompose when it is disposed of.”

The team’s design has three layers, a sensing layer, a layer to interface with the sensors and a base fabric. It uses a textile called Tencel for the base, which is made from renewable wood and is biodegradable.

The active electronics in the design are made from graphene, along with a polymer called PEDOT: PSS. These conductive materials are precision inkjet-printed onto the fabric.

The research team, which included members from the universities of Exeter, Cambridge, Leeds, and Bath, tested samples of the material for continuous monitoring of heart rates. Five volunteers were connected to monitoring equipment, attached to gloves worn by the participants. Results confirmed the material can effectively and reliably measure both heart rate and temperature at the industry standard level.

Gloves with e-textile sensors monitoring heart rate – Credit: Marzia Dulal

“Achieving reliable, industry-standard monitoring with eco-friendly materials is a significant milestone,” said Dr. Shaila Afroj, an Associate Professor of Sustainable Materials from the University of Exeter and a co-author of the study. “It demonstrates that sustainability doesn’t have to come at the cost of functionality, especially in critical applications like healthcare.”

The project team then buried the e-textiles in soil to measure its biodegradable properties.

After four months, the fabric had lost 48 percent of its weight and 98 percent of its strength, suggesting relatively rapid and also effective decomposition.

Furthermore, a life cycle assessment revealed the graphene-based electrodes had up to 40 times less impact on the environment than standard electrodes.

Four strips in a variety of decomposed states, during four months of decomposition – Credit: Marzia Dulal

Marzia Dulal from UWE Bristol, the first author of the study, highlighted the environmental impact: “Our life cycle analysis shows that graphene-based e-textiles have a fraction of the environmental footprint compared to traditional electronics. This makes them a more responsible choice for industries looking to reduce their ecological impact.”

The ink-jet printing process is also a more sustainable approach for e-textile fabrications, depositing exact numbers of functional materials on textiles as needed, with almost no material waste and less use of water and energy than conventional screen printing.“These materials will become increasingly more important in our lives,” concluded Prof. Karim, who hopes to move forward with the team to design wearable garments made from SWEET, particularly in the area of early detection and prevention of heart diseases. Scientists Develop Biodegradable Smart Textile–A Big Leap Forward for Eco-Friendly Wearable Technology
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AI tool can simulate complex fusion plasma in seconds

(Image: UKAEA)

A team of scientists from the UK Atomic Energy Authority, the Johannes Kepler University Linz, and Emmi AI, have developed an artificial intelligence tool - named GyroSwin - which can create simulations up to 1,000 times faster than traditional computational methods.

Magnetic nuclear fusion is considered a promising technology for sustainable and emission-free energy supply. However, to achieve fusion, machines need to confine plasma at extreme temperatures using powerful magnets. Managing turbulence within the plasma is a key fusion challenge so it needs to be accurately modelled.

Plasma scientists rely on state-of-the-art numerical simulations, using five-dimensional (5D) gyrokinetics, which includes three spatial dimensions plus two additional dimensions which account for parallel and perpendicular velocity of particles within the plasma. This 5D approach requires immense supercomputing power. Traditional simulations are extremely slow and computationally expensive, significantly lengthening design and development cycles. Previously, computation methods simulated a plasma by actively calculating the complex plasma dynamics.

GyroSwin uses the latest AI methods to learn the 5D simulation dynamics and the resulting surrogate models can run in seconds, in contrast to the hours or even days for conventional simulations. It was trained on six terabytes of data. This speed allows for much faster, more agile prediction of plasma turbulence, crucial for optimising fusion machine designs.

"Designing, developing, and operating a fusion power plant will involve millions of plasma simulations," said Rob Akers, Director of Computing Programmes at UKAEA. "Reducing runtimes from hours or days to minutes or seconds - whilst preserving sufficient accuracy - will be essential for making this challenge manageable. Pioneering AI-based tools like GyroSwin therefore show great promise for being genuinely transformative around time-to-solution and cost."

Processing 5D data has never previously been tackled by an AI surrogate model, and GyroSwin outperforms other AI methods it's been compared against, UKAEA noted. This increased performance is made possible because GyroSwin preserves key physical information from a fusion plasma, including the length scale of fluctuations, and the sheared flows that can reduce turbulence - all crucial to the physical interpretability of plasma simulations.

"We love scientific challenges, and building AI models that accelerate 5D gyrokinetic simulations is definitely one of the toughest challenges out there," said Johannes Brandstetter, Professor at JKU, co-founder and Chief Scientist at Emmi. "We are very proud of how far we got in this great collaboration, but we know that we have just scratched the surface."

UKAEA will now research how GyroSwin's advanced capability can be applied to next generation power plants such as the UK's Spherical Tokamak for Energy Production (STEP), where millions of simulations will potentially be required to optimise plasma scenario designs with uncertainty quantification. As more complex physics is included for power plant conditions, simulations become even more lengthy, making faster plasma modelling essential.This GyroSwin project was part-funded by the International Computing element of the UK Government's Fusion Futures Programme. AI tool can simulate complex fusion plasma in seconds
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Apes Show Ability to Imagine in ‘Tea Party’ Experiments, and Scientists are Very Excited

43-year-old bonobo named Kanzi – Courtesy of Ape Initiative / Johns Hopkins / SWNS

Apes share the human ability to imagine and pretend, suggests new research that included a series of tea party experiments.

Scientists at Johns Hopkins University in Baltimore, Maryland, called it the first study to show the capacity for pretending is not unique to mankind.

They learned that apes can use their imagination and play pretend. One bonobo engaged with cups of imaginary juice and bowls of pretend grapes “consistently and robustly” across three experiments, challenging long-held assumptions about the abilities of animals.

The findings, published this week in the journal Science, suggest that the capacity to understand pretend objects is within the cognitive potential of, at least, an “enculturated ape”, and likely dates back six to nine million years, to our common evolutionary ancestors.

“It really is game-changing that their mental lives go beyond the here and now,” said study co-author Dr. Christopher Krupenye.

“Imagination has long been seen as a critical element of what it is to be human, but the idea that it may not be exclusive to our species is really transformative.

“Jane Goodall discovered that chimps make tools and that led to a change in the definition of what it means to be human—and this, too, really invites us to reconsider what makes us special and what mental life is out there among other creatures.”

He said that, by the age of two, human children can engage in pretend scenarios, like tea parties. Even at 15-months-old, infants show measures of surprise when they see a person “drinking” from a cup after pretending to empty it.

Credit: Getty Images For Unsplash+

There had been no previous studies of pretend behavior in non-human animals, despite several reports of animals seemingly engaging in pretending behavior from both the wild and in zoos or captivity.

For instance, in the wild, young female chimps have been observed carrying and playing with sticks, holding them like mothers would hold their infants. And a chimp in captivity seemed to drag imaginary blocks along the floor after playing with real wooden blocks.

Dr. Krupenye and co-author Amalia Bastos, a former Johns Hopkins postdoctoral fellow who is now a lecturer at the University of St. Andrews in Scotland, wondered if they could test the capacity to pretend in a controlled environment.

They created experiments similar to a child’s tea party to test Kanzi, a 43-year-old bonobo living at Ape Initiative in Iowa, is the world’s only research center and sanctuary dedicated exclusively to the study and conservation of bonobos, our closest primate relative.

Kanzi had been anecdotally reported to engage in pretense, and could respond to verbal prompts by pointing.

In each test, a researcher and Kanzi faced one another, tea party-style, across a table. In the first task there were two transparent cups on the table, both empty, alongside an empty transparent pitcher.

Kanzi – Courtesy of Ape Initiative / Johns Hopkins / SWNS

The researcher tipped the pitcher to “pour” a little pretend juice into each cup, then pretended to dump the juice out of one cup, shaking it a bit to really get it out.

The researcher then asked Kanzi: “Where’s the juice?”

The bonobo pointed to the correct cup that still contained pretend juice, even when the researcher changed the position of the cup filled with pretend juice.


In case Kanzi thought there was real juice in the cup, even if he couldn’t see it, the team ran a second experiment, during which a cup of real juice was placed alongside the cup of pretend juice.

When Kanzi was asked what he wanted, he pointed toward the real juice almost every time.

A third experiment repeated the same concept, except with grapes. A researcher pretended to sample a grape from an empty container, then placed it inside one of the two jars.

After pretending to empty one of the containers, he asked Kanzi: “Where’s the grape?”

Kanzi again indicated the location of the pretend object. The researchers said Kanzi wasn’t perfect, but he was consistently correct.

“It’s extremely striking and very exciting that the data seem to suggest that apes, in their minds, can conceive of things that are not there,” said Dr. Bastos.

“Kanzi is able to generate an idea of this pretend object and, at the same time, know it’s not real.”

The researchers now want to test whether other apes and animals can engage in pretend play or track pretend objects. They also hope to explore other facets of imagination in apes, perhaps their ability to think about the future or to think about what’s going on in the minds of others.

“Imagination is one of those things that in humans gives us a rich mental life,” said Dr. Krupenye.“And if some roots of imagination are shared with apes, that should make people question their assumption that other animals are just living robotic lifestyles constrained to the present. We should be compelled by these findings to care for these creatures with rich and beautiful minds and ensure they continue to exist.” Apes Show Ability to Imagine in ‘Tea Party’ Experiments, and Scientists are Very Excited
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New Ultrasonic Imaging System Can Detect Deadly Defects in All Types of Concrete

– credit Fujikawa et al. with background / SWNS

If a physician needs to see what’s gone wrong inside a human body, it’s easy enough to order an ultrasound scan. But if the structural engineer wants to do the same in a block of concrete, his options are of limited effectiveness.

The range of materials that concrete contains, such as stone, clay, chalk, slate, iron ore, and sand, scatters normal sound waves, making clear images difficult to obtain.

Now, Japanese and American scientists have teamed up to develop a system that can identify interior defects in concrete buildings and bridges without destroying their structure.

Team members explain in a news release that their method sends sound waves into the material and captures the waves that echo back to create images of what’s inside, just like an ultrasound.

“In our approach, the ultrasonic wave is broadband, using a wide range of ultrasonic frequencies rather than operating around a single, fixed frequency,” said Professor Yoshikazu Ohara from Tohoku University in Japan.

“The receiver is capable of accepting an even broader range of frequencies. By automatically adapting the frequency to the material, our system improves the contrast between defects and background material in concrete.”

Tohoku and his colleagues joined the Los Alamos National Laboratory in New Mexico, and Texas A&M University to create the system.

A chief challenge is that it’s hard to know which frequencies of sound waves will survive traveling through concrete, as different material therein may interfere with different wavelengths.

To accommodate the uncertainty, the team used two devices: one to generate a wide range of frequencies to send into the material and another, called a vibrometer, to capture the outcoming waves.

The system, described in the journal Applied Physics Letters, can handle a wide range of frequencies, which means that even if ultrasonic waves are scattered by materials in the concrete, those that do make it through are still detected, regardless of what frequency they are.

“As the concrete filters out certain frequencies, the laser Doppler vibrometer simply captures whatever frequencies remain,” said Professor Ohara. “Unlike conventional systems, we don’t have to swap transducers or adjust the frequency beforehand. The system adapts automatically.”

The result is a high-resolution 3D image of the defect and its location in the concrete.For a repair planner or field technician, this provides ‘concrete’ information: how deep the defect is from the surface, how large it is, and how it extends in three dimensions, making it possible to plan repairs more efficiently. New Ultrasonic Imaging System Can Detect Deadly Defects in All Types of Concrete
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INST scientists find natural protein that can reshape future of electronic materials


(Photo: PIB)

New Delhi, (IANS) A team of scientists from Institute of Nano Science and Technology (INST), Mohali, an autonomous institute of the Department of Science and Technology (DST), have discovered semiconductor property of a known self-assembling bacterial shell protein could pave the way for safe, environmentally friendly electronics -- from mobile phones and smart watches to medical instruments and environmental sensors.

Traditional semiconductor materials, such as silicon, are valuable technological tools; however, they also have limitations. They are rigid, require high-energy processing, and contribute to the growing problem of electronic waste. Thus, there is increasing demand for sustainable, soft, and biocompatible electronics (wearables, implantable, green sensors).

The INST scientists experimented with self-assembling bacterial shell proteins to explore whether the proteins that naturally form stable, large flat 2D sheets with built-in electron density patterns and aromatic residues could be intrinsically photoactive.

They found that when the proteins form flat, sheet-like films, they absorb UV light and generate an electrical current without any added dyes, metals, or external power and act as light-driven, scaffold-free semiconductors, much like the materials used in electronic circuits and sensors.

Further, the team discovered that these proteins naturally arrange themselves into thin, sheet-like structures. When UV light shines on them, tiny electrical charges begin to move across the protein surface.

“This happens because the proteins contain tyrosine, a natural amino acid that can release electrons when excited by light. As these electrons and protons move, the protein sheet produces an electrical signal -- similar to how a miniature solar cell would operate. This light-driven effect relies on the protein’s internal order and does not require any synthetic additives or high-temperature manufacturing,” said the team led by Dr. Sharmistha Sinha, together with student researchers Silky Bedi and S. M. Rose.

“The discovery opens up exciting possibilities for real-world applications. Because the material is flexible and body-friendly, it could be used to create wearable health monitors, skin-safe UV-detection patches, and implantable medical sensors that work safely inside the human body,” the team said.

In the paper, published in the journal Chemical Science of the Royal Society of Chemistry, the team could also be used in temporary or disposable environmental sensors, such as pollution detectors or sunlight trackers, that naturally break down after use without harming the environment.Families, patients, and consumers may one day benefit from soft, comfortable, and environmentally responsible devices that integrate smoothly into daily life. INST scientists find natural protein that can reshape future of electronic materials | MorungExpress | morungexpress.com
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Scientists Document Over 16,000 Footprints in the World’s Most Extensive Dinosaur Tracksite

The Carreras Pampas trackways – credit, Raúl Esperante

In Bolivia, the largest number of dinosaur footprints ever recorded in a single spot is yielding fascinating insight on how these prehistoric animals moved in a way that bones just can’t.

16,600 footprints, forming dozens of “trackways,” have been so far documented on what would have been the muddy floor of a waterway along what is now the coastline in Bolivia’s Carreras Pampas.

If a skeleton shows what a dinosaur could do, tracks show what they actually did; and while bones may be transported from the location of death through environmental events, a footprint provides perfect evidence of where exactly a dinosaur was at a given time.


These and other aspects of the tracks are why this site in the Torotoro National Park in Bolivia has paleontologists so excited.

The tracks were made by theropods, the bipedal meat-eating dinosaurs that included T. rex. Some were isolated, some moved back and forth, some were made while the animals were swimming or wading, and yet more may show theropods moving in groups.


“Everywhere you look on that rock layer at the site, there are dinosaur tracks,” said study coauthor Dr. Jeremy McLarty, an associate professor of biology and director of the Dinosaur Science Museum and Research Center at Southwestern Adventist University in Texas.

Speaking with CNN, Dr. McLarty said that most of the tracks were traveling north-northwest or southeast, had been made over a short period of time, and may have been part of a long stretch of open country used by these animals in migratory routes to as far south as Argentina.

– credit, Raúl Esperante

The tracks can show so much about the animal that made them. The size of the prints can estimate the size of the theropod, while the space between prints can suggest the speed of their movement. As a trackway turns and bends, researchers can estimate the hip flexibility of the dinosaur, while traces of a tail dragging behind or the individual impression of each toe shows various gaits that might infer an injury, a posture, or the type of terrain that was present when the tracks were made.

Of their age, Dr. McLarty and his team estimate they were made between 100 and 66 million years ago at the end of the Cretaceous Period.

Several paleontologists spoke with CNN who weren’t involved in the trackway analysis, published in PLOS One, and they expressed their supreme eagerness to learn more about the various theropod species which made the imprints, some of which could have been as short as two-feet tall at the hip, while others might have been three-feet tall.“Tracks don’t move,” McLarty said. “When you visit Carreras Pampas, you know you are standing where a dinosaur walked.” Scientists Document Over 16,000 Footprints in the World’s Most Extensive Dinosaur Tracksite
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Scorpion Venom May Provide the Next Breast Cancer Breakthrough

– credit Marino Linic

Scientists in Brazil are currently testing to see if the venom of an Amazonian scorpion could be used to poison breast cancer tumors.

Researchers at the University of São Paulo’s Preto School of Pharmaceutical Sciences (FCFRP-USP) have long worked to clone and express proteins from rattlesnake and scorpion venom with hopes of transforming these powerful compounds into medicines.

Recently, their work identified that venom of the scorpion Brotheas amazonicus appears to attack breast cancer cells in a way similar to a widely used chemotherapy medication.

These early findings were generated through a collaboration with scientists from the National Institute for Amazonian Research (INPA) and the Amazonas State University (UEA).

“Through bioprospecting, we were able to identify a molecule in the species of this Amazonian scorpion that is similar to that found in the venoms of other scorpions and that acts against breast cancer cells,” said Eliane Candiani Arantes, a professor at FCFRP-USP and the coordinator of the project.

Arantes and her team identified two neurotoxins in scorpion venom with immunosuppressive effects. Working with collaborators at INPA and UEA, they found a peptide named BamazScplp1 in the venom of Brotheas amazonicus that appears to have anti-tumor potential.

Laboratory tests showed that the peptide’s impact on breast cancer cells was comparable to paclitaxel, a commonly prescribed chemotherapy treatment. It primarily triggers necrosis, a form of cell death previously associated with molecules from other scorpion species.

Arantes and her team have isolated other components of venoms from scorpions and from snakes that have been used to help develop other clinical applications, including an internal wound sealant that mimics the body’s natural clotting and scaffolding processes. It’s undergoing trials for use in nerve repair, bone healing, and restoring movement following spinal cord injury.Next time you see a scorpion, and think it a nasty creepy crawly that will send you to the hospital, show a bit of grace; they might help save a woman’s life some day. Scorpion Venom May Provide the Next Breast Cancer Breakthrough
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Indian scientists find genetic clues to tackle oral cancer among women

Photo: https://www.nibmg.ac.in)

New Delhi, (IANS) A team of Indian scientists has discovered oral cancer-causing driver gene mutations in women patients in southern parts of the country.

The team from the Jawaharlal Nehru Centre for Advanced Scientific Research (JNCASR), Bengaluru and the BRIC-National Institute of Biomedical Genomics (NIBMG), Kalyani, in collaboration with clinicians from Sri Devraj Urs Academy of Higher Education and Research (SDUAHER), Kolar, conducted a female-centric study on oral cancer in India with a unique tobacco chewing habit.

This study led by Professor Tapas K Kundu, JNCASR, Bengaluru aimed to understand what makes cancers in women unique, how the disease manifests and progresses in female patients and how we can treat them better.

The team also used artificial intelligence (deep learning) to digitally analyse tumour tissues. This revealed two distinct groups of female patients, each with a different immune response in their tumours.

India carries one of the world’s heaviest burdens of oral cancer with alarmingly high rates witnessed among women in certain regions, especially in southern and northeast India, due to the widespread habit of chewing tobacco-infused betel quid, gutka, and related products.

While the disease is widely studied in men, oral cancer in women has often remained under the radar.

The study was performed on paired tumour and blood samples from female OSCC-GB patients with a unique regional tobacco-chewing habit (Kaddipudi), commonly observed among women in the Kolar district of Karnataka.

Analysis of this women-centric cohort has revealed a unique driver mutation implicated in oral tumorigenesis.

This investigation, published in the Clinical and Translational Medicine Journal, was specifically designed to uncover the biological underpinnings of the disproportionately aggressive, highly recurrent, and life-threatening forms of oral cancer that affect Indian women.

Using cutting-edge whole-exome sequencing, the researchers identified ten key genes with significant mutations in the female oral cancer cohort from Kolar, Karnataka.

Although two of the major genes, CASP8 and TP53, were found to be highly mutated in these patients, uniquely, CASP8 seems to be the driver mutation (cancer-causing), which is quite different compared to previously studied mutations in oral cancer patients (largely men).

The findings suggest that co-occurring TP53 and CASP8 mutations confer a markedly aggressive and lethal phenotype in oral cancer.The team is now focused on delineating the molecular mechanisms of oncogenesis driven by this novel driver mutation within the background of TP53 alterations for the next phase of the research. Indian scientists find genetic clues to tackle oral cancer among women | MorungExpress | morungexpress.com
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Cement Supercapacitors Could Turn the Concrete Around Us into Massive Energy Storage Systems

credit – MIT Sustainable Concrete Lab

Scientists from MIT have created a conductive “nanonetwork” inside a unique concrete mixture that could enable everyday structures like walls, sidewalks, and bridges to store and release electrical energy.

It’s perhaps the most ubiquitous man-made material on Earth by weight, but every square foot of it could, with the addition of some extra materials, power the world that it has grown to cover.

Known as e c-cubed (ec3) the electron-conductive carbon concrete is made by adding an ultra-fine paracrystalline form of carbon known as carbon black, with electrolytes and carbon nanoscales.

Not a new technology, MIT reported in 2023 that 45 cubic meters of ec3, roughly the amount of concrete used in a typical basement, could power the whole home, but advancements in materials sciences and manufacturing processes has improved the efficiency by orders of magnitude.

Now, just 5 cubic meters can do the job thanks to an improved electrolyte.

“A key to the sustainability of concrete is the development of ‘multifunctional concrete,’ which integrates functionalities like this energy storage, self-healing, and carbon sequestration,” said Admir Masic, lead author of the new study and associate professor of civil and environmental engineering at MIT.

“Concrete is already the world’s most-used construction material, so why not take advantage of that scale to create other benefits?”

The improved energy density was made possible by a deeper understanding of how the nanocarbon black network inside ec3 functions and interacts with electrolytes. Using focused ion beams for the sequential removal of thin layers of the ec3 material, followed by high-resolution imaging of each slice with a scanning electron microscope.

The team across the EC³ Hub and MIT Concrete Sustainability Hub was able to reconstruct the conductive nanonetwork at the highest resolution yet. This approach allowed the team to discover that the network is essentially a fractal-like “web” that surrounds ec3 pores, which is what allows the electrolyte to infiltrate and for current to flow through the system.

“Understanding how these materials ‘assemble’ themselves at the nanoscale is key to achieving these new functionalities,” adds Masic.

Equipped with their new understanding of the nanonetwork, the team experimented with different electrolytes and their concentrations to see how they impacted energy storage density. As Damian Stefaniuk, first author and EC³ Hub research scientist, highlights, “we found that there is a wide range of electrolytes that could be viable candidates for ec3. This even includes seawater, which could make this a good material for use in coastal and marine applications, perhaps as support structures for offshore wind farms.”

At the same time, the team streamlined the way they added electrolytes to the mix. Rather than curing ec3 electrodes and then soaking them in electrolyte, they added the electrolyte directly into the mixing water. Since electrolyte penetration was no longer a limitation, the team could cast thicker electrodes that stored more energy.

The team achieved the greatest performance when they switched to organic electrolytes, especially those that combined quaternary ammonium salts — found in everyday products like disinfectants — with acetonitrile, a clear, conductive liquid often used in industry. A cubic meter of this version of ec3—about the size of a refrigerator—can store over 2 kilowatt-hours of energy. That’s about enough to power an actual refrigerator for a day.

While batteries maintain a higher energy density, ec3 can in principle be incorporated directly into a wide range of architectural elements—from slabs and walls to domes and vaults—and last as long as the structure itself.

“The Ancient Romans made great advances in concrete construction. Massive structures like the Pantheon stand to this day without reinforcement. If we keep up their spirit of combining material science with architectural vision, we could be at the brink of a new architectural revolution with multifunctional concretes like ec3,” proposes Masic.

Taking inspiration from Roman architecture, the team built a miniature ec3 arch to show how structural form and energy storage can work together. Operating at 9 volts, the arch supported its own weight and additional load while powering an LED light.

The latest developments in ec³ technology bring it a step closer to real-world scalability. It’s already been used to heat sidewalk slabs in Sapporo, Japan, due to its thermally conductive properties, representing a potential alternative to salting.

“What excites us most is that we’ve taken a material as ancient as concrete and shown that it can do something entirely new,” says James Weaver, a co-author on the paper who is an associate professor of design technology and materials science and engineering at Cornell University, as well as a former EC³ Hub researcher. “By combining modern nanoscience with an ancient building block of civilization, we’re opening a door to infrastructure that doesn’t just support our lives, it powers them.” Cement Supercapacitors Could Turn the Concrete Around Us into Massive Energy Storage Systems
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Unique Antibody from Camels and Alpacas Could Be Used to Treat Alzheimer’s

credit, Sung Jin Cho on Unsplash

An antibody-like compound known on land to be exclusively to be found in camelids like alpacas, lamas, and dromedaries, could be used to treat human brain disorders such as Alzheimer’s disease, according to a new study.

The study’s focus were antibody-like proteins, aptly called nanobodies, whose small size allowed the scientists to treat neurological conditions in mice more effectively and with fewer side effects.

The study, published in the journal Trends in Pharmacological Sciences, outlines the next steps towards developing nanobody treatments that are safe for humans.

“Camelid nanobodies open a new era of biologic therapies for brain disorders and revolutionize our thinking about therapeutics,” said Dr. Philippe Rondard, of Centre National de la Recherche Scientifique (CNRS) in France.

“We believe they can form a new class of drugs between conventional antibodies and small molecules.”

Nanobodies were first discovered in the early 1990s by Belgian scientists studying the immune systems of camelids. They found that as well as making conventional antibodies, which are composed of two heavy chains and two light chains, camelids also produce antibodies with just heavy chains.

The antigen-binding fragments of those antibodies are now known as nanobodies. They’re just one-tenth the size of conventional antibodies, and have not been found in any other mammals, say scientists, although they have been observed recently in some cartilaginous fish.

Therapeutic approaches for diseases such as cancer and autoimmune disorders often centre around antibodies. The treatments that have shown some therapeutic benefits, including a few drugs for Alzheimer’s treatment, are often associated with secondary side effects, however.

With their much smaller size, scientists say nanobodies have the potential to offer better efficacy for brain diseases with fewer side effects. In previous studies, the team has shown that nanobodies can restore behavioral deficits in mouse models of schizophrenia and other neurologic conditions.

“These are highly soluble small proteins that can enter the brain passively,” said co-author Dr. Pierre-André Lafon, also of CNRS. “By contrast, small-molecule drugs that are designed to cross the blood-brain barrier are hydrophobic in nature, which limits their bioavailability, increases the risk of off-target binding, and is linked to side effects.”

He says nanobodies are also easier than conventional antibodies to produce, purify, and engineer and can be fine-tuned to their targets.

But the researchers acknowledge that several steps need to be taken before nanobodies can be tested in human clinical trials for brain disorders. They say toxicology and long-term safety testing are essential, and the effect of chronic administration needs to be understood.

“It will be necessary to obtain clinical-grade nanobodies and stable formulations that maintain activity during long-term storage and transport,” said Dr. Rondard.Dr Lafon added that his lab has already started to study these different parameters for a few brain-penetrant nanobodies and has recently shown that conditions of treatment are compatible with chronic treatment.” Unique Antibody from Camels and Alpacas Could Be Used to Treat Alzheimer’s
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Rarest Monkeys Now Number Close to 2,000 Thanks to One Man's Jane Goodall-like Passion

A golden snub-nosed monkey in Tanjiahe National Nature Reserve, Sichuan Province – credit, David Blank CC BY-NC-SA 3.0.

From the BBC comes the story of an intrepid and dedicated scientist who has spent decades working in China’s mountain forests in an effort to protect and understand one of the nation’s most amazing animals.

The golden sub-nosed monkey is revered alongside the giant panda as “national treasures” of Chinese wildlife, yet this couldn’t protect them from logging and hunting that followed in the wake of Mao’s Cultural Revolution.

Members of this sub-species located in the UNESCO-listed Shennongjia mountains of Hubei Province, were the subject of intense study by Professor Yang Jingyuan, a research ecologist who arrived in these mountains in 1991.

For Yang, the golden sub-nosed monkey was Jane Goodall’s chimpanzees. By the time Yang arrived in Shennongjia, the population had collapsed to just 500 or so individuals across 6 family groups. Years of illegal logging as a form of subsistence living had reduced forest coverage in the mountains to 63%.

But before Yang could protect the animals, he had to first learn to understand them. With his research colleagues, he began striking out into the newly-created Shennongjia Forest Reserve to study these incredible animals.

The monkeys were at first so wary of humans that Yang and his team had to stay half a mile away to be able just to observe the monkeys in their habitat. Eventually though, with repeated encounters, half a mile became and quarter mile, and a quarter mile became 200 yards, 100 yards, 20 yards—until Yang and whoever he brought with him were accepted by the troupes.

The BBC’s China Correspondent, Stephen McDonell, experienced this treatment as baby monkeys and curious juveniles climbed all over him on a visit to special, 100 square kilometer monkey zones hat are off-limits to the hundreds of thousands of visitors who come to enjoy a mountain ecosystem that is without exaggeration unique in the world.

“Even after logging was banned there were still people illegally felling timber. If they didn’t cut down trees, how would they have money?” Professor Yang, director of the Shennongjia National Park Scientific Research Institute, told McDonell.

Golden snub-nosed monkeys in Tanjiahe National Nature Reserve, Sichuan Province – credit, David Blank CC BY-NC-SA 3.0.

Shennongjia virgin forest – credit, Evilbish CC BY-SA 3.0

“There were also people secretly hunting here to survive. It was only after a long period of building awareness that the consciousness of local farmers changed.”

In the 1990s, with a shifting focus from forestry to forest conservation, local residents eking out this subsistence living were offered government money to relocate so that the forests could regrow. Many accepted the offer, and now benefit from the tourism boom the mountains are experiencing.

There is no place on Earth that has greater biodiversity of deciduous woody plants than Shennongjia, and a dizzying 3,400 higher-order plant species, and over 600 invertebrates have been recorded there. The golden snub-nosed monkey is very much a fuzzy golden cherry on top of a biodiverse cake ten layers-high.

“I’m very optimistic,” said Prof Yang. “Their home is now very well protected. They have food and drink, no worries about life’s necessities and, most of all, their numbers are growing.”

Golden snub-nosed monkeys captured via camera trap – credit, eMammal CC 2.0. via Flickr

Indeed, an archived report from Xinhua claimed that those 500 remnant individuals became 1,200 by 2013. This represents major progress since females give birth to only one baby at a time.

At the time McDonell visited, their numbers had jumped again to 1,600, and forest cover along the hills and valleys had increased to around 96% of the reserve’s total area.

Professor Yang can live freely among them like some character of fable. He speaks to them in their calls, having learned the meanings of each vocalization during his many years of observing them.

Like Goodall, his research has yielded incredible insights into their lives. For example, each monkey has an egg timer-like understanding of its lifespan, and when it’s time to pass away, they silently leave their families behind and visit special, secluded areas to die alone in the forest.

According to Yang, there hasn’t been a single successful attempt to find these sites, either by researchers or rangers.Yang’s institute estimates that the monkeys will come to number 2,000 individuals in Shennongjia sometime over the next 10 years, a testament to the magnificent outcomes conservation can provide, providing there’s someone in the right place at the right time to make the effort to make a difference. Rarest Monkeys Now Number Close to 2,000 Thanks to One Man's Jane Goodall-like Passion
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Scientists Regrow Retina Cells to Tackle Leading Cause of Blindness Using Nanotechnology


Macular degeneration is the leading cause of blindness in developed countries, but regrowing the human cells lost to this condition was the feature of a new successful treatment that took advantage of advances in nanotechnology.

Regrowing the cells of the human retina on a scaffold of synthetic, tissue-like material showed substantial improvements over previously used materials such as cellulose, and the scientists hope they can move on to testing their method in the already blind.

Macular degeneration is increasing in prevalence in the developed world. It’s the leading cause of blindness and is caused by the loss of cells in a key part of the eye called the retina.

Humans have no ability to regrow retinal pigment cells, but scientists have determined how to do it in vitro using pluripotent stem cells. However as the study authors describe, previous examples of this procedure saw scientists growing the cells on flat surfaces rather than one resembling the retinal membrane.

This, they state, limits the effectiveness of transplanted cells.

In a study at the UK’s Nottingham Trent University, biomedical scientist Biola Egbowon and colleagues fabricated 3D scaffolds with polymer nanofibers and coated them with a steroid to reduce inflammation.

The method by which the nanofibers were made was pretty darn cool. The team would squirt polyacrylonitrile and Jeffamine polymers in molten form through an electrical current in a technique known as “electrospinning.” The high voltage caused molecular changes in the polymers that saw them become solid again, resembling a scaffold of tiny fibers that attracted water yet maintained mechanical strength.

After the scaffolding was made, it was treated with an anti-inflammatory steroid.

This unique pairing of materials mixed with the electrospinning created a unique scaffold that kept the retinal pigment cells viable for 150 days outside of any potential human patient, all while showing the phenotype of biomarkers critical for maintaining retinal physiological characteristics.“While this may indicate the potential of such cellularized scaffolds in regenerative medicine, it does not address the question of biocompatibility with human tissue,” Egbowon and colleagues caution in their paper, urging more research to be conducted, specifically regarding the orientation of the cells and whether they can maintain good blood supply. Scientists Regrow Retina Cells to Tackle Leading Cause of Blindness Using Nanotechnology
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