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Releasing ThreeJS Super Terrain A mesh terrain implementation, inspired by Unreal Engine 5.8 Demo (desktop only): Features: - Terrain(!?) - Dig Holes in mountains - Pull and Push terrain in all 3 dimensions - Non destructive CSG, you can move the cave around! - Auto-LOD and worker based recompilation... show more

robot 2.0

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36,056 views • 11 days ago •via X (Twitter)

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Take a practical look at Unreal Engine 5.8's Mesh Terrain by revisiting last week's Inside Unreal livestream, featuring an exploration of the feature with Etienne Carrier! Check it out the VOD and get an insight on how to create terrain that your projects can really mesh with:

Take a practical look at Unreal Engine 5.8's Mesh Terrain by revisiting last week's Inside Unreal livestream, featuring an exploration of the feature with Etienne Carrier! Check it out the VOD and get an insight on how to create terrain that your projects can really mesh with:

Unreal Engine

21,512 views • 22 days ago

Building procedural terrain meshes with threejs in quixel megascan quality Everything you see is 100% procedural, from topology to textures This will be open sourced together with the asset library, under MIT license The terrain meshes can be built from any base massing i will also release a terrain mesh modeling skill, so fingers crossed it should be capable of producing any variations and styles you want Baking takes a bit, so it can also pre-bake and render cached meshes Will work on LOD support and making the compiler faster Releasing very very very soon

Building procedural terrain meshes with threejs in quixel megascan quality Everything you see is 100% procedural, from topology to textures This will be open sourced together with the asset library, under MIT license The terrain meshes can be built from any base massing i will also release a terrain mesh modeling skill, so fingers crossed it should be capable of producing any variations and styles you want Baking takes a bit, so it can also pre-bake and render cached meshes Will work on LOD support and making the compiler faster Releasing very very very soon

robot 2.0

27,818 views • 22 days ago

Ran Fable Ultracode overnight to build out a prototype for Terrain Pro. I asked it to build out an erosion model, some procedural textures and terrain editing tools. Honestly, this looks terrible and isn't passable quality for anything except a vibe-coded game. The issue with making high quality terrain is you need a lot of high quality textures (grass, dirt, pebbles, sand) and props (trees, rocks) to go along with the underlying terrain mesh. Otherwise it's just an erosion tech demo. I'm using EZ-Tree right now to populate the trees, but EZ-Tree also isn't where it needs to be to support the vision I have in mind. I could use something like SpeedTree, but that might get pricey. If anyone knows of a good library of textures/assets with reasonable licensing terms, let me know in the comments!

Ran Fable Ultracode overnight to build out a prototype for Terrain Pro. I asked it to build out an erosion model, some procedural textures and terrain editing tools. Honestly, this looks terrible and isn't passable quality for anything except a vibe-coded game. The issue with making high quality terrain is you need a lot of high quality textures (grass, dirt, pebbles, sand) and props (trees, rocks) to go along with the underlying terrain mesh. Otherwise it's just an erosion tech demo. I'm using EZ-Tree right now to populate the trees, but EZ-Tree also isn't where it needs to be to support the vision I have in mind. I could use something like SpeedTree, but that might get pricey. If anyone knows of a good library of textures/assets with reasonable licensing terms, let me know in the comments!

Dan Greenheck

13,927 views • 1 month ago

What if you could npm install 3D models? Introducing Vibe3D - the shadcn for threejs Starting with the scifi asset kit, over 180+ models, all free and oss (MIT licensed) and two reference terrain meshes. All models are installed directly into your codebase instead of pre-packaged as code imports or worse yet, FBX files 🤮 Docs: This means, a simple "bunx vibe3d add Artificial Intelligence Papers-kit/pressure-gauge" will install the fully procedural code Want to change something? just tell your ai to do it It uses some shared helper code to produce the topology and at least per kit all items reuse and share the same materials, so technically performance should be better than letting your ai run wild on its own. Also releasing with it two skills: - Vibe model skill to produce your own models and kits, just "bunx vibe-model --global" and tell your ai to vibe model some 3d assets with a reference photo, you'll see it works - Vibe terrain "bunx vibe-terrain" installs the terrain mesh modeler, yea just try it out, best results with opus 5 ngl Everything is MIT licensed, i was just joking, no hate for unreal or unity Threejs still the best tho 🖕🏻 If you just want to see all 3D models up close: Yea, you can also just vampire it and download all modes as .glb files, good luck fixing some of them then though Big thanks to ThreeJS Assets for contributing 50 assets to the scifi kit! Everyone who spends some tokens on it will be added to the contributor list Oh and before i forget fuck you kenney, we roll our own kits now

What if you could npm install 3D models? Introducing Vibe3D - the shadcn for threejs Starting with the scifi asset kit, over 180+ models, all free and oss (MIT licensed) and two reference terrain meshes. All models are installed directly into your codebase instead of pre-packaged as code imports or worse yet, FBX files 🤮 Docs: This means, a simple "bunx vibe3d add Artificial Intelligence Papers-kit/pressure-gauge" will install the fully procedural code Want to change something? just tell your ai to do it It uses some shared helper code to produce the topology and at least per kit all items reuse and share the same materials, so technically performance should be better than letting your ai run wild on its own. Also releasing with it two skills: - Vibe model skill to produce your own models and kits, just "bunx vibe-model --global" and tell your ai to vibe model some 3d assets with a reference photo, you'll see it works - Vibe terrain "bunx vibe-terrain" installs the terrain mesh modeler, yea just try it out, best results with opus 5 ngl Everything is MIT licensed, i was just joking, no hate for unreal or unity Threejs still the best tho 🖕🏻 If you just want to see all 3D models up close: Yea, you can also just vampire it and download all modes as .glb files, good luck fixing some of them then though Big thanks to ThreeJS Assets for contributing 50 assets to the scifi kit! Everyone who spends some tokens on it will be added to the contributor list Oh and before i forget fuck you kenney, we roll our own kits now

robot 2.0

57,584 views • 20 days ago

Meet Phantom, a humanoid robot built for battlefield missions by San Francisco–based startup Foundation Future Industries. The robot can walk across rough terrain, enter buildings, and scan dangerous areas before soldiers move in. Phantom uses AI to detect people and understand its surroundings, while human operators stay in control of critical decisions.

Meet Phantom, a humanoid robot built for battlefield missions by San Francisco–based startup Foundation Future Industries. The robot can walk across rough terrain, enter buildings, and scan dangerous areas before soldiers move in. Phantom uses AI to detect people and understand its surroundings, while human operators stay in control of critical decisions.

Space and Technology

21,645 views • 4 months ago

Before an autonomous machine can act, it has to understand. A construction site is one of the most unpredictable environments imaginable. The terrain changes with every pass. Material piles shift. Other machines move nearby. No two digs are the same. For a human operator, reading that environment is second nature, built from years of experience and constant sensory feedback. Teaching a machine to do the same is one of the hardest problems in autonomy. Scene understanding is how we're working to solve it. Our system fuses LiDAR point clouds, camera feeds, and real-time terrain data into a continuous, three-dimensional picture of everything happening around the machine. It's a living model of the environment, updated moment to moment so the machine can make decisions grounded in what's actually in front of it.

Before an autonomous machine can act, it has to understand. A construction site is one of the most unpredictable environments imaginable. The terrain changes with every pass. Material piles shift. Other machines move nearby. No two digs are the same. For a human operator, reading that environment is second nature, built from years of experience and constant sensory feedback. Teaching a machine to do the same is one of the hardest problems in autonomy. Scene understanding is how we're working to solve it. Our system fuses LiDAR point clouds, camera feeds, and real-time terrain data into a continuous, three-dimensional picture of everything happening around the machine. It's a living model of the environment, updated moment to moment so the machine can make decisions grounded in what's actually in front of it.

Bedrock Robotics

33,148 views • 4 months ago

Researchers at the Chinese University of Hong Kong, Shenzhen have developed a snail-like robotic swarm that can connect to form larger structures. These robots use a two-mode adhesive system inspired by land snails, allowing both movement and strong connections. They introduced this system in 2024, and tests show it can travel on rough terrain, climb obstacles, and combine to handle more complex tasks.

Researchers at the Chinese University of Hong Kong, Shenzhen have developed a snail-like robotic swarm that can connect to form larger structures. These robots use a two-mode adhesive system inspired by land snails, allowing both movement and strong connections. They introduced this system in 2024, and tests show it can travel on rough terrain, climb obstacles, and combine to handle more complex tasks.

Space and Technology

238,894 views • 4 months ago

Robohorse: meet the new Kawasaki CORLEO a four-legged robot that humans can ride 🤖 At the moment, it is known that the cyber-horse runs on a hydrogen engine and is equipped with artificial intelligence that analyzes the position of both the robot and the rider, keeping the rider in the saddle. Expectation for the future: eternal life, cyber implants, teleportation. Reality: a cyber-horse all-terrain vehicle.

Robohorse: meet the new Kawasaki CORLEO a four-legged robot that humans can ride 🤖 At the moment, it is known that the cyber-horse runs on a hydrogen engine and is equipped with artificial intelligence that analyzes the position of both the robot and the rider, keeping the rider in the saddle. Expectation for the future: eternal life, cyber implants, teleportation. Reality: a cyber-horse all-terrain vehicle.

NEXTA

261,470 views • 1 year ago

🚨Houston, Texas — A man hiking through dense terrain encountered a silent black sphere that appeared directly in his path… and then began following him. He managed to record a brief clip before stopping the camera and getting out of there. Whatever this was — it happened right in front of the lens. Take a look. I'd guess the former but what do you think. Real or Fake? 👀 Eddie Abbott

🚨Houston, Texas — A man hiking through dense terrain encountered a silent black sphere that appeared directly in his path… and then began following him. He managed to record a brief clip before stopping the camera and getting out of there. Whatever this was — it happened right in front of the lens. Take a look. I'd guess the former but what do you think. Real or Fake? 👀 Eddie Abbott

UAP Reporting Center

33,107 views • 6 months ago

Agile Continuous Jumping in Discontinuous Terrains discuss: We focus on agile, continuous, and terrain-adaptive jumping of quadrupedal robots in discontinuous terrains such as stairs and stepping stones. Unlike single-step jumping, continuous jumping requires accurately executing highly dynamic motions over long horizons, which is challenging for existing approaches. To accomplish this task, we design a hierarchical learning and control framework, which consists of a learned heightmap predictor for robust terrain perception, a reinforcement-learning-based centroidal-level motion policy for versatile and terrain-adaptive planning, and a low-level model-based leg controller for accurate motion tracking. In addition, we minimize the sim-to-real gap by accurately modeling the hardware characteristics. Our framework enables a Unitree Go1 robot to perform agile and continuous jumps on human-sized stairs and sparse stepping stones, for the first time to the best of our knowledge. In particular, the robot can cross two stair steps in each jump and completes a 3.5m long, 2.8m high, 14-step staircase in 4.5 seconds. Moreover, the same policy outperforms baselines in various other parkour tasks, such as jumping over single horizontal or vertical discontinuities.

Agile Continuous Jumping in Discontinuous Terrains discuss: We focus on agile, continuous, and terrain-adaptive jumping of quadrupedal robots in discontinuous terrains such as stairs and stepping stones. Unlike single-step jumping, continuous jumping requires accurately executing highly dynamic motions over long horizons, which is challenging for existing approaches. To accomplish this task, we design a hierarchical learning and control framework, which consists of a learned heightmap predictor for robust terrain perception, a reinforcement-learning-based centroidal-level motion policy for versatile and terrain-adaptive planning, and a low-level model-based leg controller for accurate motion tracking. In addition, we minimize the sim-to-real gap by accurately modeling the hardware characteristics. Our framework enables a Unitree Go1 robot to perform agile and continuous jumps on human-sized stairs and sparse stepping stones, for the first time to the best of our knowledge. In particular, the robot can cross two stair steps in each jump and completes a 3.5m long, 2.8m high, 14-step staircase in 4.5 seconds. Moreover, the same policy outperforms baselines in various other parkour tasks, such as jumping over single horizontal or vertical discontinuities.

AK

35,794 views • 1 year ago

finally paid for a Gemini Ultra sub, and tried it out for an unsponsored unsolicited review. it has obvious flaws but... it's here! realtime playable video world model!! here's "arid desert with little tiny human towns here and there and big cliffs and lots of terrain to walk around in" where you're "a giant robot spider like in Wild Wild West". flaws: - it clips thru a lot of terrain. worse than in a game engine. - only too late do i discover you can spacebar and jump on things. - it also sometimes errors out - you can only live in the world for 60 seconds. feels like some kind of black mirror storyline - nothing else moves. ruins immersion. why does every world model lack physics? - prompt to prompt editing can have bad side effects like adding a thing removes a previous thing you liked but: - REALTIME VIDEO WORLD MODEL - instruction following was pretty good!!! - movement acommodates weird legs! - THEY NEVER EVER SHIP GENIE MODELS TO PROD. NEVER. EVER. WHAT TPU SORCERY IS THIS. congrats to the Genie 3 team, i can't believe this actually shipped, what absolute mad lads.

finally paid for a Gemini Ultra sub, and tried it out for an unsponsored unsolicited review. it has obvious flaws but... it's here! realtime playable video world model!! here's "arid desert with little tiny human towns here and there and big cliffs and lots of terrain to walk around in" where you're "a giant robot spider like in Wild Wild West". flaws: - it clips thru a lot of terrain. worse than in a game engine. - only too late do i discover you can spacebar and jump on things. - it also sometimes errors out - you can only live in the world for 60 seconds. feels like some kind of black mirror storyline - nothing else moves. ruins immersion. why does every world model lack physics? - prompt to prompt editing can have bad side effects like adding a thing removes a previous thing you liked but: - REALTIME VIDEO WORLD MODEL - instruction following was pretty good!!! - movement acommodates weird legs! - THEY NEVER EVER SHIP GENIE MODELS TO PROD. NEVER. EVER. WHAT TPU SORCERY IS THIS. congrats to the Genie 3 team, i can't believe this actually shipped, what absolute mad lads.

swyx

121,819 views • 7 months ago

All right, who wants a robot worm? 🪱 Researchers at Case Western Reserve University developed a robot inspired by earthworms. Worms move by using wave-like muscle contractions called peristalsis. This version of the worm-inspired robot has a flexible outer mesh that can continuously change shape. Using this mesh, the robot's fixed parts can move smoothly between each other, providing power and control. This project is referred to as a "soft hyper-redundant robot," due to its highly flexible nature and ability to adapt to various environments. This design could prove useful in scenarios where traditional rigid robots struggle, such as navigating tight spaces or uneven terrain. Please let me know what your thoughts are! 👀 🔔 Hit the bell on my profile to never miss a robot story!

Lukas Ziegler

24,755 views • 1 year ago

I draw a bold connection: the internal environment that fuels cancer is often the same one that allows mold to thrive. Low oxygen. High glucose. Acidic tissues. In this clip, I explain how mold or fungus — much like cancer cells — tend to flourish in low-oxygen, high-sugar environments. I am not saying mold causes all cancers, but over the years I have noticed a pattern in many cases: chronic mold exposure in the home, often unnoticed or ignored, can be part of the bigger picture. I share the story of a woman with inflammatory breast cancer who was living in a house with visible black mold on the ceiling. That mold was not just a surface issue — it reflected a deeper imbalance in her internal terrain. The message is not fear — it is awareness. Mold is not only a building problem; it can be a biological burden. And when someone is already unwell, every exposure matters. Clean the air. Clean the food. Clean the terrain. My message is simple: create a body environment where disease cannot easily thrive.

I draw a bold connection: the internal environment that fuels cancer is often the same one that allows mold to thrive. Low oxygen. High glucose. Acidic tissues. In this clip, I explain how mold or fungus — much like cancer cells — tend to flourish in low-oxygen, high-sugar environments. I am not saying mold causes all cancers, but over the years I have noticed a pattern in many cases: chronic mold exposure in the home, often unnoticed or ignored, can be part of the bigger picture. I share the story of a woman with inflammatory breast cancer who was living in a house with visible black mold on the ceiling. That mold was not just a surface issue — it reflected a deeper imbalance in her internal terrain. The message is not fear — it is awareness. Mold is not only a building problem; it can be a biological burden. And when someone is already unwell, every exposure matters. Clean the air. Clean the food. Clean the terrain. My message is simple: create a body environment where disease cannot easily thrive.

Barbara Oneill

78,435 views • 6 months ago

Created a flag on the moon based with hyper-realistic physics with v0: The flag is simulated as a grid of particles connected by springs (cloth simulation). It's influenced by gravity, wind, air resistance. The initial approach v0 one-shotted was quite simplistic, but giving it references to more sophisticated approaches in C++ and Rust quickly improved it. It was mind-blowing it to see it deeply understand the physics and port new ideas across languages. It simulated a real sun for lighting, and procedurally generated moon-like terrain with craters. I found a sick free texture on Reddit that I uploaded and it layered on top. Another epic moment was watching it improve performance. It seamlessly moved the physics simulation to a Web Worker. (Kinda cool to see given we just improved support for them in Turbopack 😉)

Created a flag on the moon based with hyper-realistic physics with v0: The flag is simulated as a grid of particles connected by springs (cloth simulation). It's influenced by gravity, wind, air resistance. The initial approach v0 one-shotted was quite simplistic, but giving it references to more sophisticated approaches in C++ and Rust quickly improved it. It was mind-blowing it to see it deeply understand the physics and port new ideas across languages. It simulated a real sun for lighting, and procedurally generated moon-like terrain with craters. I found a sick free texture on Reddit that I uploaded and it layered on top. Another epic moment was watching it improve performance. It seamlessly moved the physics simulation to a Web Worker. (Kinda cool to see given we just improved support for them in Turbopack 😉)

Guillermo Rauch

534,811 views • 5 months ago

New open-source 3D world-generation model. I'm rendering a couple of worlds in the video, so check it out. You'll find the GitHub and the Hugging Face links to the model below. This is a multi-modal world model that you can use for a bunch of things: • To generate new worlds • To reconstruct worlds • To simulate 3D interactive worlds from a prompt, images, or a video You can edit the 3D outputs in Unity and Unreal Engine (they export as meshes, 3DGS files, and point clouds). You can also generate 3D characters in the world and walk around. Pretty fun stuff!

New open-source 3D world-generation model. I'm rendering a couple of worlds in the video, so check it out. You'll find the GitHub and the Hugging Face links to the model below. This is a multi-modal world model that you can use for a bunch of things: • To generate new worlds • To reconstruct worlds • To simulate 3D interactive worlds from a prompt, images, or a video You can edit the 3D outputs in Unity and Unreal Engine (they export as meshes, 3DGS files, and point clouds). You can also generate 3D characters in the world and walk around. Pretty fun stuff!

Santiago

65,446 views • 4 months ago

Testing one of the best safety features of an airplane, the “Enhanced Ground Proximity Warning System” (EGPWS, pronounced E Gyp-Wiz). It’s part of every preflight check. Sound on! It’s a warning system. While the jet has separate warnings for things wrong internally, EGPWS is concerned about what’s outside the jet, not what’s inside. It’s primarily concerned w/ terrain & obstacles…EGPWS can “see” outside when pilots can’t. It doesn’t actually see anything, though. There are no cameras or lasers. EGPWS does use the jet’s radar, but not for detecting terrain. (We’ll talk more about radar in a minute, but it’s not useful for orienting yourself to terrain in the vertical. It has a “map” mode that you can use to “paint” things like cities, lakes & shorelines, but it only knows how strong the reflection is & how far away, not how high. We almost never use it in map mode, anyway) EGPWS uses the jets navigation systems – like GPS, Inertial Reference, Altimeters, airspeed, etc. – to plot a position in a virtual world. This world is contained in a database on the jet; it’s constantly plotting your position & then estimating where you’ll be in the next few minutes if the trend continues. The virtual world database knows where the mountains are. When you get close to airports in the database (not all airports are in it), it knows where the buildings & antennas are, too, out to a certain radius. Past that radius, it stops caring about the manmade objects. Anyway, it can tell if you will hit something on your current trend & will issue various warnings. It can give you up to 60 seconds of warning. It starts out slow, like saying “CAUTION, TERRAIN”, but if you don’t fix it, it gets serious…“TERRAIN, TERRAIN, PULL UP!”. You’re 20-30 seconds from impact. It’s not a miracle worker, though. It can wait to give you a warning that you can’t fix. Imagine flying toward a 10,000’ high cliff at 1,000’. A 60 second warning will not be enough time to climb 9,000’ & clear it. Or, it sees a mountain to your right, but your current path is clear. It doesn’t know you’ll do a 90° right turn once abeam the mountain. Now you’ll get some late warnings. EGPWS has various other functions. If you get on the approach but haven’t configured to land, it will say “TOO LOW, FLAPS” (or GEAR). If you start getting below the glidepath, it will say “GLIDESLOPE”. Start descending right after takeoff? “DON’T SINK”…and if you do keep sinking, it switches to “PULL UP!” Now, EGPWS doesn’t use the onboard Doppler radar for any of these functions, but it does use it to detect windshear. EGPWS doesn’t care if you turn on the radar or not, it turns it on itself when you push the throttles up for takeoff or when you descend below a certain altitude on approach. It takes about 12 seconds for the radar to build a picture from that point, but once it does, it can “see” windshear. The Doppler detects this by bouncing radar off of particulates & reading how they are moving at different altitudes. The particulates can be dust or just humidity…the radar can’t read air molecules by themselves. So, it’s still possible to get windshear the radar doesn’t see on very dry, clean days. EGPWS hates windshear. If it detects it, EGPWS replaces your screen w/ the radar – even if not turned on by you – & starts with a gentle warning to “MONITOR RADAR DISPLAY”. If you get closer to it, you get “WINDSHEAR AHEAD” (on takeoff – abort if you still can) or “GO AROUND, WINDSHEAR AHEAD!” (on landing). EGPWS is great, but can’t actually move the jet. It’s not connected to the controls in any way. Some fighters do have that capability, but not airliners. The pilots have to fix it. OK, that’s a brief summary of EGPWS. As usual, I’m dramatically simplifying things for a non-techie audience…there is much more to it & different models of jets have slight differences in how this all works. The 737 MAX has some improvements, w/ different voices & even panic, but I don’t have one to record, sorry!

Testing one of the best safety features of an airplane, the “Enhanced Ground Proximity Warning System” (EGPWS, pronounced E Gyp-Wiz). It’s part of every preflight check. Sound on! It’s a warning system. While the jet has separate warnings for things wrong internally, EGPWS is concerned about what’s outside the jet, not what’s inside. It’s primarily concerned w/ terrain & obstacles…EGPWS can “see” outside when pilots can’t. It doesn’t actually see anything, though. There are no cameras or lasers. EGPWS does use the jet’s radar, but not for detecting terrain. (We’ll talk more about radar in a minute, but it’s not useful for orienting yourself to terrain in the vertical. It has a “map” mode that you can use to “paint” things like cities, lakes & shorelines, but it only knows how strong the reflection is & how far away, not how high. We almost never use it in map mode, anyway) EGPWS uses the jets navigation systems – like GPS, Inertial Reference, Altimeters, airspeed, etc. – to plot a position in a virtual world. This world is contained in a database on the jet; it’s constantly plotting your position & then estimating where you’ll be in the next few minutes if the trend continues. The virtual world database knows where the mountains are. When you get close to airports in the database (not all airports are in it), it knows where the buildings & antennas are, too, out to a certain radius. Past that radius, it stops caring about the manmade objects. Anyway, it can tell if you will hit something on your current trend & will issue various warnings. It can give you up to 60 seconds of warning. It starts out slow, like saying “CAUTION, TERRAIN”, but if you don’t fix it, it gets serious…“TERRAIN, TERRAIN, PULL UP!”. You’re 20-30 seconds from impact. It’s not a miracle worker, though. It can wait to give you a warning that you can’t fix. Imagine flying toward a 10,000’ high cliff at 1,000’. A 60 second warning will not be enough time to climb 9,000’ & clear it. Or, it sees a mountain to your right, but your current path is clear. It doesn’t know you’ll do a 90° right turn once abeam the mountain. Now you’ll get some late warnings. EGPWS has various other functions. If you get on the approach but haven’t configured to land, it will say “TOO LOW, FLAPS” (or GEAR). If you start getting below the glidepath, it will say “GLIDESLOPE”. Start descending right after takeoff? “DON’T SINK”…and if you do keep sinking, it switches to “PULL UP!” Now, EGPWS doesn’t use the onboard Doppler radar for any of these functions, but it does use it to detect windshear. EGPWS doesn’t care if you turn on the radar or not, it turns it on itself when you push the throttles up for takeoff or when you descend below a certain altitude on approach. It takes about 12 seconds for the radar to build a picture from that point, but once it does, it can “see” windshear. The Doppler detects this by bouncing radar off of particulates & reading how they are moving at different altitudes. The particulates can be dust or just humidity…the radar can’t read air molecules by themselves. So, it’s still possible to get windshear the radar doesn’t see on very dry, clean days. EGPWS hates windshear. If it detects it, EGPWS replaces your screen w/ the radar – even if not turned on by you – & starts with a gentle warning to “MONITOR RADAR DISPLAY”. If you get closer to it, you get “WINDSHEAR AHEAD” (on takeoff – abort if you still can) or “GO AROUND, WINDSHEAR AHEAD!” (on landing). EGPWS is great, but can’t actually move the jet. It’s not connected to the controls in any way. Some fighters do have that capability, but not airliners. The pilots have to fix it. OK, that’s a brief summary of EGPWS. As usual, I’m dramatically simplifying things for a non-techie audience…there is much more to it & different models of jets have slight differences in how this all works. The 737 MAX has some improvements, w/ different voices & even panic, but I don’t have one to record, sorry!

KC-10 Driver ✈️ 👨‍✈️ B-737 Wrangler

36,492 views • 1 month ago

Turning any flat patch of ground into a usable airfield in hours, British square mesh track proved a game-changer for Allied air operations in WWII. This lightweight steel wire mesh, stiff with threaded rods, rolled out easily for transport by ship or truck while requiring minimal site prep and far less steel than heavier alternatives, and its open design blended better with grass or terrain for reduced visibility from the air. It enabled all-weather ops on soft surfaces, quick repairs by swapping sections, and full reusability after lifting for new sites. Factories produced miles weekly to support rapid advances like the Second Front. 🫡

Turning any flat patch of ground into a usable airfield in hours, British square mesh track proved a game-changer for Allied air operations in WWII. This lightweight steel wire mesh, stiff with threaded rods, rolled out easily for transport by ship or truck while requiring minimal site prep and far less steel than heavier alternatives, and its open design blended better with grass or terrain for reduced visibility from the air. It enabled all-weather ops on soft surfaces, quick repairs by swapping sections, and full reusability after lifting for new sites. Factories produced miles weekly to support rapid advances like the Second Front. 🫡

Aviation Archive - Tim Farmer

61,270 views • 1 month ago

🚨Diagnosed with Cancer, Doctors told Pete Sulack he had a 1% survival chance & only 8 months left to live...now he is in FULL REMISSION. Did he use Chemo & Radiation? NO... Instead of surrendering to the standard protocol, he chose to heal with IVERMECTIN & MEBENDAZOLE. 📚 Here’s what the research shows: • Ivermectin crosses the blood-brain barrier, blocks angiogenesis, and modulates immune checkpoints • Mebendazole disrupts microtubule formation in glioblastoma and lung cancer models • Together, they’re being explored in terrain-based cancer models for apoptosis, metabolism, and more Pete used Ivermectin & Mebendazole in a protocol by Ilyes Baghli, stacked with fasting, targeted nutrition, detox, oxygen therapy and faith. And now? He's in full remission. 💡 This isn’t about miracle pills. It’s about rebuilding the terrain so your body can do what it was designed to do. Share your cancer story below & look for the protocol linked as the 1st reply...

🚨Diagnosed with Cancer, Doctors told Pete Sulack he had a 1% survival chance & only 8 months left to live...now he is in FULL REMISSION. Did he use Chemo & Radiation? NO... Instead of surrendering to the standard protocol, he chose to heal with IVERMECTIN & MEBENDAZOLE. 📚 Here’s what the research shows: • Ivermectin crosses the blood-brain barrier, blocks angiogenesis, and modulates immune checkpoints • Mebendazole disrupts microtubule formation in glioblastoma and lung cancer models • Together, they’re being explored in terrain-based cancer models for apoptosis, metabolism, and more Pete used Ivermectin & Mebendazole in a protocol by Ilyes Baghli, stacked with fasting, targeted nutrition, detox, oxygen therapy and faith. And now? He's in full remission. 💡 This isn’t about miracle pills. It’s about rebuilding the terrain so your body can do what it was designed to do. Share your cancer story below & look for the protocol linked as the 1st reply...

Valerie Anne Smith

256,723 views • 7 months ago

Someone on Reddit just built a AAA-quality snow simulation in their browser. Using Claude Opus 5. Millions of snow particles. A character in a robe with cloth physics. Five water-based spells that carve the terrain. A snow surfing system with a wake that throws spray into sunlight. Every footstep displaces snow. Trails form berms at the edges. Trenches slowly refill over time. Spells leave permanent craters. The entire thing runs in one browser tab. WebGPU. No game engine. No 3D modeling software. Just code. He wrote one detailed prompt. Opus 5 planned the architecture, wrote the shaders, built the physics, iterated from screenshots, and documented every decision. 9 hours. ~4 million tokens. You can open it right now and walk around in it. This isn't a demo. This is the kind of thing a small studio would spend months building.

Someone on Reddit just built a AAA-quality snow simulation in their browser. Using Claude Opus 5. Millions of snow particles. A character in a robe with cloth physics. Five water-based spells that carve the terrain. A snow surfing system with a wake that throws spray into sunlight. Every footstep displaces snow. Trails form berms at the edges. Trenches slowly refill over time. Spells leave permanent craters. The entire thing runs in one browser tab. WebGPU. No game engine. No 3D modeling software. Just code. He wrote one detailed prompt. Opus 5 planned the architecture, wrote the shaders, built the physics, iterated from screenshots, and documented every decision. 9 hours. ~4 million tokens. You can open it right now and walk around in it. This isn't a demo. This is the kind of thing a small studio would spend months building.

Vaibhav Sisinty

1,219,163 views • 1 month ago

🚨Diagnosed with Cancer, Doctors told Pete Sulack he had a 1% survival chance & only 8 months left to live...now he is in FULL REMISSION. Did he use Chemo & Radiation? NO... Instead of surrendering to the standard protocol, he chose to heal with IVERMECTIN & MEBENDAZOLE. 📚 Here’s what the research shows: • Ivermectin crosses the blood-brain barrier, blocks angiogenesis, and modulates immune checkpoints • Mebendazole disrupts microtubule formation in glioblastoma and lung cancer models • Together, they’re being explored in terrain-based cancer models for apoptosis, metabolism, and more Pete used Ivermectin & Mebendazole in a protocol by Ilyes Baghli, stacked with fasting, targeted nutrition, detox, oxygen therapy and faith. And now? He's in full remission. 💡 This isn’t about miracle pills. It’s about rebuilding the terrain so your body can do what it was designed to do. Share and repost this message to increase awareness. It is essential for the public to be informed. Follow my page for further motivational and educational content.

🚨Diagnosed with Cancer, Doctors told Pete Sulack he had a 1% survival chance & only 8 months left to live...now he is in FULL REMISSION. Did he use Chemo & Radiation? NO... Instead of surrendering to the standard protocol, he chose to heal with IVERMECTIN & MEBENDAZOLE. 📚 Here’s what the research shows: • Ivermectin crosses the blood-brain barrier, blocks angiogenesis, and modulates immune checkpoints • Mebendazole disrupts microtubule formation in glioblastoma and lung cancer models • Together, they’re being explored in terrain-based cancer models for apoptosis, metabolism, and more Pete used Ivermectin & Mebendazole in a protocol by Ilyes Baghli, stacked with fasting, targeted nutrition, detox, oxygen therapy and faith. And now? He's in full remission. 💡 This isn’t about miracle pills. It’s about rebuilding the terrain so your body can do what it was designed to do. Share and repost this message to increase awareness. It is essential for the public to be informed. Follow my page for further motivational and educational content.

Joe Tippens

73,310 views • 6 months ago