#Computational Science

Researchers at the Chinese Academy of Sciences have created a tiny artificial eye inspired by fruit fly compound eyes. The device uses hundreds of microscopic lenses to provide an ultra-wide 180-degree field of view, allowing robots to detect motion and obstacles without moving their cameras. Uniquely, the system also includes a built-in chemical sensor array, enabling robots to detect certain gases and chemicals—giving them a basic sense of “smell.” Published in Nature Communications, the innovation could enhance robots used in search-and-rescue, hazardous environment monitoring, and advanced autonomous systems.

Dragonflies are living blueprints for modern technology. Their neural circuits predict movement, compound eyes detect motion from almost every angle, and their wings adjust mid-flight using real-time sensory feedback. This is why scientists study them to design smarter drones, autonomous systems, and efficient flying machines. 🐉🔬 #research #science #biotechnology #biology #innovation

What’s Quite Interesting About Fruit Fly Sperm Some fruit fly sperm are longer than the fly itself. Yes. Really. In certain species, sperm can reach several centimeters long, making them the longest sperm cells on Earth, absurdly oversized compared to the animal producing them. This QI (BBC) clip proves evolution sometimes chooses chaos. 🧠 Nature: efficient. Evolution: unhinged. 👕 Smarter biology → www.scienceb-tch.com 💬 What’s the weirdest animal fact you know? ❤️ Like if biology just broke your brain. 👥 Tag someone who definitely didn’t expect this. #QI #BBCQI #BiologyFacts #EvolutionIsWild #FunScience #ScienceBitch #DidYouKnow #MindBlownMoments #NatureNerd #WeirdAnimals #ReproductionFacts #CuriousMinds #STEMLife #AnimalScience

Follow @ai_marketwave The future belongs to those who study it today. That butterfly isn’t alive… it’s engineered. A college student in China just built a bionic butterfly that flies almost exactly like the real thing. The frame is made from ultra-light carbon fiber. The wings are cut from paper-thin PET film. A tiny high-speed motor makes them flap fast enough to create lift — just like in nature. Inside, there’s a miniature lithium battery powering the whole system. The result? Erratic, delicate flight patterns that look almost impossible for a machine. Flying at this scale is incredibly hard. Small robots don’t just glide — they must flap at high frequency and stay stable despite turbulence. That’s why this project is such a breakthrough in micro-robotics and materials science. It’s beautiful to watch. But it’s also a preview. Insect-sized drones like this could one day monitor the environment or enter spaces too small for traditional drones. When machines start moving like living creatures, it’s clear that technology is changing the world.

Researchers at the Chinese Academy of Sciences have developed an artificial eye inspired by fruit flies. This "bio-CE system" features 1,027 microscopic visual units packed into just 1.5 mm. ​Unlike traditional cameras, it provides a 180° field of view and uses a "bionic nose" to detect hazardous gases and see obstacles at the same time. This breakthrough could revolutionize how drones navigate disaster zones and how robots perceive their environments with biological complexity. ​ 🧬 Follow @marketing.aiii to see how biology is shaping the future of robotics

Scientists just turned a normal housefly into a miniature living aircraft — by attaching a tiny artificial structure to its body. 🪰✈️ The fly becomes the engine. Its wings provide the thrust. Its instincts handle stability and direction. By combining biological flight with engineered components, researchers are exploring a future where living organisms could help power micro-robots, environmental sensors, or tiny rescue tech. A strange experiment… but a powerful reminder: nature’s engineering still outperforms ours. Would you fly on a plane powered by a bug? 😅👇 Credit: @technologyarmy #BioEngineering #FutureTech #Innovation #Robotics #science

Scientists just turned a normal housefly into a miniature living aircraft — by attaching a tiny artificial structure to its body. 🪰✈️ The fly becomes the engine. Its wings provide the thrust. Its instincts handle stability and direction. By combining biological flight with engineered components, researchers are exploring a future where living organisms could help power micro-robots, environmental sensors, or tiny rescue tech. A strange experiment… but a powerful reminder: nature’s engineering still outperforms ours. Would you fly on a plane powered by a bug? 😅👇 Love Technology? Follow @TechnologyArmy 🌍 #BioEngineering #FutureTech #Innovation #Robotics #science

E insects #insects #robotics #natureisart #instagood

Fruit flies and human use the same basic genetic “software”, just running it on very different biological “hardware.” #fruitfly #tiny #fly #wild

Ever wonder where developmental signalling molecules get their names? Turns out, fruit fly researchers were just trying to have some fun! #DevelopmentalBiology #ScienceHumor #FruitFlyGenetics #BiologyFacts #ScienceExplained #OriginStories

Fruit flies are such freaky little freaks I could probably do whole series and never run out of material #fruitflies #wildlife #biology #learnontiktokcontest #educatoraward

The Mosquito That Exposed A Thief 😮 (720_HD) 💧🔨A Prince Rupert's Drop creates a physics paradox - the head can shatter a bullet, but snapping the tail destroys it instantly. Physics dictates this happens because of extreme compressive stress stored during cooling. The head is invincible due to tension, but the tail is a release valve; one crack sends a shockwave at 4,000 mph, turning the glass into dust💥🌪️. 🦾🧠In a bionic breakthrough, scientists are now connecting robotic limbs directly to the nervous system. Using Targeted Muscle Reinnervation, severed nerves are rewired to healthy muscle, acting as biological amplifiers. The brain thinks "move hand," and the prosthetic obeys instantly, blurring the line between man and machine. 💡Whether it's glass tension or neural signals, the lesson is clear: Strength doesn't come from rigidity, it comes from the seamless flow of energy through the system🌍⚖️ @bitzcasino Cradit by @zackdfilms