Alfonso Pampaloni Pasetti

[Mr. Potato Head ⚡️ @MrPotatoHeadUSA]

A mesmerizing timelapse showing ocean tides lifting and lowering sea ice beneath the frozen waters of East Greenland.

[Give A Shit About Nature @giveashitnature]

That bright orange little lizard-looking thing crossing a wet trail isn't a lizard, and it isn't even what it'll be for most of its life.

It's an eastern newt, and it lives in three very different forms. It hatches in the water as a tiny gilled larva, then absorbs its gills, grows lungs, turns brilliant traffic-cone orange, and crawls onto land. In this stage, called a red eft, it spends two or three years wandering the forest floor, which is why you're most likely to spot one after rain.

That orange skin is a warning label. The eft's skin contains tetrodotoxin, the same toxin found in pufferfish, and the color advertises that it's a bad meal. You can safely handle one, but wash your hands afterward and don't put it anywhere near your mouth.

After a few years as a toxic orange teenager, it returns to the water, turns olive green, develops a broad swimmer's tail, and becomes an adult.

[Bella @natural77384672]

velvet worm (Euperipatoides sp.), which is not a true worm but belongs to the phylum Onychophora. It is a predatory carnivore that hunts by shooting sticky slime from specialized nozzles on its head to immobilize prey. These ancient animals have existed for over 500 million years and have soft bodies covered in water-repellent scales. They are found in moist environments like rotting logs and leaf litter, particularly in temperate forests across Australia and New Zealand.

[César Favacho ~ Inseto e outros bichinhos 🐜🦗🪲🪳 @CesarFavacho]

Nada de IA, isso daí é um bicho real, aparentado dos tatuzinhos-de-jardim/tatus-bolinha

[ALEXIS ™I ❤️🇷🇼• @dufitalexis1]

This Giant Lizard Doesn't Need A Male To Get Pregnant 🎏👇

And She Only Gives Birth To Sons

Komodo dragons look terrifying enough. But their survival mechanism is even wilder than their appearance

A female Komodo dragon can make herself pregnant completely on her own. No male needed. And here's the strange part. Every baby born this way is male

The process is called parthenogenesis. And it's one of nature's rarest backup plans

👉 How it works, simply :

In humans, females have XX chromosomes and males have XY. Komodo dragons flip the system. They use Z and W instead. Males are ZZ. Females are ZW

When no male is around, a female produces something called a polar body inside her egg. This polar body acts like a sperm. It fertilizes her own egg without any outside help

Since she has ZW chromosomes, the only possible combinations are ZZ or WW. WW doesn't work. It can't develop. So every surviving offspring ends up ZZ. Male. Every single time

👉 Why this exists :

It's a survival cheat code. If a female washes up alone on an island with no males around, she can still build a population. She gives birth to sons. Those sons can then mate with her to produce both males and females. The species continues

This isn't science fiction. It's been observed in Komodo dragons, some sharks, certain birds, and even some snakes

Nature doesn't wait for perfect conditions. It builds backups into the biology itself 🙇🏻‍♂️

[butterfly world 🦋 @butterfly5World]

Shimmering hues and ocean secrets.

[ミニさん @Aosanmini]

ヨツスジトカゲ

昨日、すべて無事に孵化しました🐣
元気よく動き回っています☺️

[Massimo @Rainmaker1973]

In 1960, David Latimer planted a spiderwort sprout inside of a large glass jar, added a quarter pint of water, and then sealed it shut.

He opened the bottle for the first time only 12 years later, in 1972, to add some water and then sealed it for good.

The self-contained ecosystem flourished for more than 60 years as a perfectly balanced garden and self-sufficient ecosystem.

The bacteria in the compost ate the dead plants and broke down the oxygen released, turning it into carbon dioxide, essentially forming a microcosm of Earth.

[Massimo @Rainmaker1973]

Scientists have mapped Earth’s vast underground fungal networks for the first time, revealing a staggering 68 quadrillion miles of fungal threads that help regulate the climate.

A groundbreaking new study estimates that arbuscular mycorrhizal fungi form an underground network stretching roughly 110 quadrillion kilometers (68 quadrillion miles), equivalent to nearly a billion times the distance from Earth to the Sun. These microscopic fungal threads create symbiotic relationships with over 70% of land plants, exchanging nutrients and water for carbon while locking away massive amounts of CO₂ in the soil.

The research, led by the Society for the Protection of Underground Networks (SPUN), used machine learning models trained on data from more than 16,000 global soil cores, combined with high-resolution robotic imaging of fungal hyphae.

However, these critical networks face a serious threat from modern industrial agriculture. Fungal density in croplands is nearly 50% lower than in undisturbed ecosystems, largely due to tilling, chemical fertilizers, and fungicides. This loss reduces the soil’s ability to store carbon, weakens nutrient cycling, and increases chemical runoff.

The findings underscore the urgent need to protect these hidden ecosystems. Researchers plan to present the data at the upcoming UN desertification summit to push for global conservation benchmarks.

[Stewart, J. D., et al. (2026). Global density and biomass of arbuscular mycorrhizal fungal networks. Science. DOI: 10.1126/science.adu4373]

[butterfly world 🦋 @butterfly5World]

A tiny drop of ocean magic resting on a fingertip. Nature’s art comes in the most delicate packages. 💜🌊"

[Bella @natural77384672]

This vibrant creature is a Nudibranch, a type of marine gastropod mollusk known for its striking colors and lack of a shell. It is likely a species from the Nembrotha genus, which are commonly found crawling on coral reefs and sandy seabeds. These sea slugs often feed on specialized diets, such as tunicates (sea squirts), rather than algae. Despite their delicate appearance, they often possess chemical defenses to protect themselves from predators.

[Blue Ocean @BlueOcean3276]

Frogfish 🌊

[Mr. Potato Head ⚡️ @MrPotatoHeadUSA]

With a flash of color and texture, the cuttlefish completely alters its appearance, blending seamlessly into its surroundings.

[Hayriye @kisaca_am]

Biz de bunu çalalım

[Laurel Coons 🧬🧬🧬 @LaurelCoons]

A human hair sets the scale here — from tardigrades and amoebas down to bacteria and viruses, the sizes drop by orders of magnitude ... 🦠

📹 via slava__bobrov (X)

[TheNewPhysics @CharlesMullins2]

🚨 A MAJOR BARRIER TO TURNING CO₂ INTO USEFUL FUEL MAY HAVE JUST FALLEN.

Scientists have developed a new catalyst that triples methanol production while solving a decades-old chemistry trade-off.

For years, researchers trying to turn carbon dioxide into methanol (a valuable fuel and chemical feedstock) have faced an annoying trade-off: at lower temperatures the reaction is more efficient, but CO₂ is hard to activate. Raise the temperature to speed things up, and you get more unwanted carbon monoxide instead of methanol.

A team at the Dalian Institute of Chemical Physics has now broken this deadlock. By redesigning the catalyst so that different reaction steps happen on spatially separated active sites, they achieved a space-time yield of 1.2 g of methanol per gram of catalyst per hour roughly three times higher than standard commercial Cu/Zn/Al catalysts.

Why this matters:
• Methanol from CO₂ is seen as a key route for carbon recycling and producing sustainable fuels and chemicals
• The new design dramatically improves both activity and selectivity at the same time
• It reduces the formation of carbon monoxide byproduct while keeping hydrogen dissociation efficient
• This kind of catalyst improvement is essential if we want CO₂-to-fuel processes to become economically viable at scale

The deeper implication:
Converting CO₂ into useful products has always been limited by fundamental chemistry trade-offs. By cleverly separating reaction steps across different parts of the catalyst, this work shows we can overcome those limitations without needing extreme conditions or exotic materials.

It’s a practical step toward making carbon capture and utilization more efficient turning one of our biggest waste products into something valuable instead of just burying it.

We’re getting closer to catalysts that don’t force us to choose between speed and cleanliness.

How important do you think breakthroughs like this will be for scaling up carbon-to-fuel technologies in the coming years?

Follow for more frontier chemistry, catalysis, and carbon utilization research.

[Parmita Mishra @parmita]

tardigrades survived being shot out of a gun at 900 meters per second and lived. they survived the vacuum of space. they survived radiation levels that would kill a human 1000x over. they did this by essentially turning off. they replace all the water in their body with glass. LITERAL GLASS. and then they just wait. for decades if they have to. then you add water and they wake up and start reproducing.

[まだ面白い @madaomoshiroi]

この発送は無かったな。

素晴らしすぎる

[Mr. Potato Head ⚡️ @MrPotatoHeadUSA]

Hidden deep within the jungle, Kali Biru's striking blue waters create one of West Papua's most breathtaking natural sights

[Mr. Potato Head ⚡️ @MrPotatoHeadUSA]

By looking closely at this Magnolia jumping spider, you can actually see its retinas moving inside its eyes.