Hi everyone!
Ever noticed how Jupiter looks different each time the Hubble Telescope takes a peek at it? It's like catching a friend in different moods! Whether it's showcasing a new storm, flaunting its colorful bands, or revealing a dance of its moons, Jupiter never fails to surprise us. Hubble's snapshots give us front-row seats to the ever-changing face of this gas giant. Isn't it fascinating how much we can learn about our solar system's big brother just by observing from afar?Stay curious, space @science enthusiasts! 🌌
Ever noticed how Jupiter looks different each time the Hubble Telescope takes a peek at it? It's like catching a friend in different moods! Whether it's showcasing a new storm, flaunting its colorful bands, or revealing a dance of its moons, Jupiter never fails to surprise us. Hubble's snapshots give us front-row seats to the ever-changing face of this gas giant. Isn't it fascinating how much we can learn about our solar system's big brother just by observing from afar?Stay curious, space @science enthusiasts! 🌌
Here’s a fun tidbit that might tickle your @science curiosity—while many of us are familiar with the so-called “faces” seen on the Moon or Mars thanks to nature’s whimsical brush, Earth isn’t left behind in this facial parade. Recently, an image from Canada revealed what appears to be an Indigenous person’s face, spotted from orbit.
This phenomenon boils down to pareidolia, which essentially is our brain’s built-in “face detection software.” It stems from the fact that, in many situations, the most critical, beneficial, or dangerous things to us are other people (and for our ancestors, animals as well). It’s better for our survival to mistakenly see a face where there isn’t one than to miss a real face that’s there. Our brain cortex houses a special area genetically wired for recognizing and analyzing faces. And if this area goes haywire, say, due to a genetic glitch, someone could fail to recognize even their closest kin while still distinguishing other objects just fine.
This phenomenon boils down to pareidolia, which essentially is our brain’s built-in “face detection software.” It stems from the fact that, in many situations, the most critical, beneficial, or dangerous things to us are other people (and for our ancestors, animals as well). It’s better for our survival to mistakenly see a face where there isn’t one than to miss a real face that’s there. Our brain cortex houses a special area genetically wired for recognizing and analyzing faces. And if this area goes haywire, say, due to a genetic glitch, someone could fail to recognize even their closest kin while still distinguishing other objects just fine.
Did you know that the concept of tablets was actually dreamt up by the creators of the iconic movie “2001: A Space Odyssey”? Yep, you heard that right! During a scene where astronauts are munching on their breakfast, they’re casually flipping through the news on sleek, black, rectangular devices with big screens. The film’s visionaries imagined these as the “newspapers” of the future.
Fast forward a few decades, and during the heated patent wars between Apple and Samsung, the latter whipped out stills from “2001: A Space Odyssey” as proof that Apple wasn’t the first to dream up the tablet’s design. However, the judge wasn’t buying it as a legitimate argument.
But as is often the case with top-notch sci-fi, it’s entirely possible that the tablet-newspapers from the movie inspired the real tech wizards to create what would eventually become the tablets we can’t live without today.
And guess what? Today marks the 56th anniversary of the film’s premiere!
@science
Fast forward a few decades, and during the heated patent wars between Apple and Samsung, the latter whipped out stills from “2001: A Space Odyssey” as proof that Apple wasn’t the first to dream up the tablet’s design. However, the judge wasn’t buying it as a legitimate argument.
But as is often the case with top-notch sci-fi, it’s entirely possible that the tablet-newspapers from the movie inspired the real tech wizards to create what would eventually become the tablets we can’t live without today.
And guess what? Today marks the 56th anniversary of the film’s premiere!
@science
The Pons-Brooks Comet is getting closer and it’s already visible with binoculars in the Aries constellation. And guess what? The best is yet to come! Mark your calendars for April 8th, because during the solar eclipse in the Western Hemisphere, we’re expecting some jaw-dropping snapshots of this celestial wanderer.
At the tail end of March, Takahashi Nakahiro captured the comet’s ever-changing tail over the southern skies of China, spending 8 nights in a row with his eyes (and lens) glued to the sky. Each night, the tail looked uniquely different - a true testament to the dynamic beauty of our universe. 🌠
At the tail end of March, Takahashi Nakahiro captured the comet’s ever-changing tail over the southern skies of China, spending 8 nights in a row with his eyes (and lens) glued to the sky. Each night, the tail looked uniquely different - a true testament to the dynamic beauty of our universe. 🌠
A South Korean fusion reactor just hit a milestone by running plasma at a whopping 100 million degrees Celsius for 48 seconds – that’s seven times hotter than the Sun! This breakthrough moves us closer to harnessing nuclear fusion, mimicking the energy of stars for a cleaner, limitless power source.
The secret to this success? Upgrading the reactor’s divertor to tungsten, allowing it to withstand extreme heat without reacting with the plasma. This led to another achievement: maintaining plasma in an efficient “H-mode” for 102 seconds. South Korea aims to push this to 300 seconds by 2026, a bold step towards sustainable energy.
Here’s to future breakthroughs in powering our world of @science! 🚀
The secret to this success? Upgrading the reactor’s divertor to tungsten, allowing it to withstand extreme heat without reacting with the plasma. This led to another achievement: maintaining plasma in an efficient “H-mode” for 102 seconds. South Korea aims to push this to 300 seconds by 2026, a bold step towards sustainable energy.
Here’s to future breakthroughs in powering our world of @science! 🚀
Discovering the Speed of Sight: It’s Different for Everyone!
Hey everyone! Did you know that scientists have cracked the code on the “speed” of our vision, and it turns out, we’re all unique in how fast we process visual signals? This could explain why some of us react quicker to things happening around us.
In an intriguing experiment, researchers wanted to see how many times a light could flicker in a second before people thought it was just steadily shining. It’s like testing how fast your eyes can catch up with a strobe light at a party. Participants were exposed to varying flicker rates, and their job was to say when the light stopped flickering and started to look constant.
So, what’s the big reveal? Well, it seems our ability to process images per second is not a one-size-fits-all. The most eagle-eyed participant could detect flickering up to 65 Hz (yep, that’s 65 on-offs in just one second), while the lower end of the scale was around 20 Hz.
This finding isn’t just cool trivia; it has real implications for understanding human perception and could influence everything from the design of our screens to how visual information is presented to capture our attention effectively.
Stay curious and keep exploring the wonders of how we see the world! 🌍✨
📌 @science
Hey everyone! Did you know that scientists have cracked the code on the “speed” of our vision, and it turns out, we’re all unique in how fast we process visual signals? This could explain why some of us react quicker to things happening around us.
In an intriguing experiment, researchers wanted to see how many times a light could flicker in a second before people thought it was just steadily shining. It’s like testing how fast your eyes can catch up with a strobe light at a party. Participants were exposed to varying flicker rates, and their job was to say when the light stopped flickering and started to look constant.
So, what’s the big reveal? Well, it seems our ability to process images per second is not a one-size-fits-all. The most eagle-eyed participant could detect flickering up to 65 Hz (yep, that’s 65 on-offs in just one second), while the lower end of the scale was around 20 Hz.
This finding isn’t just cool trivia; it has real implications for understanding human perception and could influence everything from the design of our screens to how visual information is presented to capture our attention effectively.
Stay curious and keep exploring the wonders of how we see the world! 🌍✨
📌 @science
Forwarded from Gadget and device News 🗞️
This media is not supported in your browser
VIEW IN TELEGRAM
In China, pharmacies are taking a futuristic turn with the introduction of robotic pharmacists. These mechanical marvels possess a more extensive knowledge of the inventory than their human counterparts and respond to queries with remarkable speed. Plus, they have the added advantage of not needing to take lunch breaks. A true brain boost for the industry!
@gadget
@gadget
NASA has identified the cause of the anomalous data transmissions from Voyager 1, attributing it to a malfunctioning computer memory chip. Efforts are underway to develop a solution to bypass the malfunctioning component and restore normal operations. The issue, which began affecting data in November, highlights the challenges of managing spacecraft technology over extended interstellar missions. Further updates will be provided as the engineering team progresses with their corrective actions. For detailed information, please visit the official NASA Voyager blog.
In the heart of the Amazon Rainforest in Peru lies a mysterious phenomenon known as the “Devil’s Garden”. This unique area is comprised solely of trees from a single species, Duroia hirsuta, creating a mono-dominant patch where nothing else grows. The local inhabitants attribute these peculiar gardens to the malevolent forest spirit, Chuyachaki, believed to cultivate these trees while preventing any other plants from settling in. According to lore, Chuyachaki is the master of the forest, capable of leading a person deep into the wilderness or bestowing fortune on hunters and revealing secrets of medicinal plants.
These “Devil’s Gardens” are not limited to Duroia hirsuta trees but can also include other plant species such as Tococa guianensis, Clidemia heterophylla, and Cordia nodosa, all living in symbiosis with “lemon” ants, Myrmelachista schumanni. Previously, it was thought that the plants in these gardens killed off competitors through allelopathic effects—releasing substances that inhibit the growth or reproduction of surrounding organisms. However, in the 1990s, scientists uncovered the true architects behind this botanical dominance: the lemon ants.
The deal between the ants and the plants is fascinating. The plants develop small hollow structures, known as domatia, on their leaf petioles or stems, providing a home for the ants. In return, the ants protect their host plant by injecting formic acid into the leaves of any invading plant species, causing tissue necrosis and death within five days. This mutualistic relationship ensures the survival and dominance of the host plant species in these enigmatic “Devil’s Gardens,” highlighting the complex and often surprising interactions that define the Amazon’s ecosystem.
These “Devil’s Gardens” are not limited to Duroia hirsuta trees but can also include other plant species such as Tococa guianensis, Clidemia heterophylla, and Cordia nodosa, all living in symbiosis with “lemon” ants, Myrmelachista schumanni. Previously, it was thought that the plants in these gardens killed off competitors through allelopathic effects—releasing substances that inhibit the growth or reproduction of surrounding organisms. However, in the 1990s, scientists uncovered the true architects behind this botanical dominance: the lemon ants.
The deal between the ants and the plants is fascinating. The plants develop small hollow structures, known as domatia, on their leaf petioles or stems, providing a home for the ants. In return, the ants protect their host plant by injecting formic acid into the leaves of any invading plant species, causing tissue necrosis and death within five days. This mutualistic relationship ensures the survival and dominance of the host plant species in these enigmatic “Devil’s Gardens,” highlighting the complex and often surprising interactions that define the Amazon’s ecosystem.
This media is not supported in your browser
VIEW IN TELEGRAM
Corals from the Mussidae and Merulinidae families are often referred to as "brain corals." You might be wondering why they've earned such a curious nickname. 🤔
The answer lies in their distinctive appearance. These corals possess a mesmerizing pattern that closely resembles the complex, wrinkled surface of a brain. This intricate design is not just for show; it plays a crucial role in the coral's survival, maximizing its surface area for sunlight absorption. 🌞
@science
The answer lies in their distinctive appearance. These corals possess a mesmerizing pattern that closely resembles the complex, wrinkled surface of a brain. This intricate design is not just for show; it plays a crucial role in the coral's survival, maximizing its surface area for sunlight absorption. 🌞
@science
Yesterday, our celestial neighbor, the Moon, danced across the Sun, casting a mesmerizing shadow over parts of our planet. This rare solar eclipse event was captured in a series of breathtaking photographs that showcase the ethereal beauty of the cosmos.
@science
@science
Thirteen years post the Fukushima disaster, we're finally getting a peek inside the belly of the beast – or rather, the first nuclear reactor at the Fukushima-1 power plant. Yeah, that's right, after more than a decade since that fateful day in March 2011, TEPCO has bravely ventured where no one has since – inside the irradiated heart of the reactor.
So, how'd they do it? Robots and mini-drones were the heroes of the hour, sent on a mission to explore the reactor's active zone and its molten nuclear fuel. The main aim? To scope out the state of the spent fuel, making its removal and the plant's decommissioning a tad easier. And guess what? For the first time, the cleanup crew snagged pictures from inside the reactor's pedestal.
The pics have sparked curiosity among researchers, especially about the mysterious orange structures resembling boulders or fused icicles. The best guess? It's either molten fuel or equipment – the remnants of a nuclear nightmare.
But here's the kicker – Reactor 1 isn't the only cleanup headache. Meltdowns also rocked Reactors 2 and 3, and Reactor 4 got caught in the crossfire with a blast from Reactor 3, despite being fuel-free at the time. With an estimated 880 tons of molten fuel debris spread across the three afflicted reactors, the cleanup saga is far from over.
☢️ @science
So, how'd they do it? Robots and mini-drones were the heroes of the hour, sent on a mission to explore the reactor's active zone and its molten nuclear fuel. The main aim? To scope out the state of the spent fuel, making its removal and the plant's decommissioning a tad easier. And guess what? For the first time, the cleanup crew snagged pictures from inside the reactor's pedestal.
The pics have sparked curiosity among researchers, especially about the mysterious orange structures resembling boulders or fused icicles. The best guess? It's either molten fuel or equipment – the remnants of a nuclear nightmare.
But here's the kicker – Reactor 1 isn't the only cleanup headache. Meltdowns also rocked Reactors 2 and 3, and Reactor 4 got caught in the crossfire with a blast from Reactor 3, despite being fuel-free at the time. With an estimated 880 tons of molten fuel debris spread across the three afflicted reactors, the cleanup saga is far from over.
☢️ @science