#3d Printed Rocket Engine

Chilling our 20 kN Aerospike rocket engine before the hot fire today. This engine runs on liquid methane and LOX and was generated entirely without human intervention by the Noyron Large Computational Engineering Model. We run these tests to collect important data that feed back into Noyron’s algorithms.

3D-printed aerospike rocket engine 🚀 by AMCM and @hyperganic at @formnext #3dprinting #metal3dprinting #rocketengine #mihaidesigns

No human engineer designed this. An AI called NEURON did. It ran millions of physics simulations and produced something no human team had ever built: A 3D-printed copper rocket engine that burns at 3,000°C on the inside... ...while the outside gets cold enough to form frost. Not a concept. Not a render. A real engine. Already tested. AI isn't just writing emails anymore. It's redesigning how we reach space. 🚀 Save this for when someone tells you AI can't do anything real. Follow @a.quick.sip for more . #FutureTech #RocketScience #Engineering #Technology #3DPrinting

Meet NΞURON, an algorithm that uses physics and engineering rules (not training data) to design fully functional rocket engines from scratch. This aerospike engine was 3D-printed in ONE piece from copper Uses BOTH super-cold liquid oxygen (-183°C) AND kerosene for cooling Burns at 3,000°C - hot enough to melt steel So cold on the outside it creates frost while running Green flames = copper burning (oops, but that's how you learn!) Every test makes the next design better Created by Leap71 - a software engineer and aerospace engineer who fell in love and built an algorithm that's revolutionizing rocket design. The future of engineering is here! Credit: @integza 👉If you want more the freshest Tech/AI news and insights then please, follow for more! [email protected] 👉Subscribe for newsletter to stay ahead what's going on in AI world - starai.beehiiv.com Links in bio and stories!👆

Meet NΞURON, an algorithm that uses physics and engineering rules (not training data) to design fully functional rocket engines from scratch. This aerospike engine was 3D-printed in ONE piece from copper Uses BOTH super-cold liquid oxygen (-183°C) AND kerosene for cooling Burns at 3,000°C - hot enough to melt steel So cold on the outside it creates frost while running Green flames = copper burning (oops, but that's how you learn!) Every test makes the next design better Created by Leap71 - a software engineer and aerospace engineer who fell in love and built an algorithm that's revolutionizing rocket design. The future of engineering is here! Credit: @integza

We manufactured the world’s largest 3D-printed aerospike rocket engine with @hbd_metal_3d_printing. This one-meter-tall behemoth uses the same Noyron DNA as our previously tested engines, but scales it to 200 kN of thrust, 10x that of the engine we tested in November. Kudos to HBD for printing this engine on the first try on their massive HBD 800 printer. Press release on our website. This marks an important step on the development effort for the fully-reusable upper stage of the @aspirespaceuae fully-reusable Oryx rocket ship.

AI autonomously designed LEAP 71’s NEURON - 20kN aerospike engine, 3D-printed it in one copper piece, and it fired perfectly on the first test. Once the system learns, new design iterations take just 15 minutes. The insane part: burns at 3,000°C inside while using liquid oxygen at -183°C for cooling. So cold outside it creates frost while running full blast. Those green flames? Copper burning - a design quirk that taught the AI for next time. This isn’t AI helping engineers. This is AI being the engineer. Built by a software and aerospace engineer duo who are revolutionizing rocket design through pure physics and code. Every test makes it smarter. The future just test-fired. Credit: Joel Gomes #rocketscience #AI #NEURON #leap71 #engineering spacetech

AI CAN BUILD ROCKETS NOW? 🤯 This is aerospyke engine and since 1950 it is called the future of rocket engine cz it is efficient at every altitude from sea level to space but every even NASA failed to manufacture it. Until this Dubai based company called Leap 71 just 3D printed this in one piece using an AI called Noyron. Noyron is a computational LLM engineering model which is encoded with actual physics and you just have to give it specifications and it generates a complete engine geometry in minutes. Not a render but actual 3D files ready for metal printing. This company metal printed this whole thing with copper and test fired in the UK generating two tons of thrust, burning cryogenic methane and liquid oxygen. Notice the frost forming on the outside? That’s the engine’s “regenerative cooling” at work. The AI has designed microscopic internal channels that circulate the sub-zero liquid methane through the engine walls to absorb the intense heat of combustion which can go upto 3500 degrees, and flood the inside with cryogenic oxygen at negative 133 degrees preventing the 3D-printed copper from melting. It’s a terrifying glimpse into a future. Traditional rocket engine development takes years of iteration. Leap71 went from specification to successful working engine in just 21 days. This is the future of engineering. If you want more details as to how they did it comment rocket and I’ll send it right to your DMs

"AI is now building rocket engines hotter than lava itself." . . . . SEO: AI built a rocket engine that survives 3,000°C — a 3D-printed machine-made engine redefining space innovation and future technology. This reel shows how artificial intelligence is shifting engineering and science. The future of AI isn’t coming — it’s already here. #artificialintelligence #futuretech #3dprinting #RocketEngine

This rocket engine wasn’t drawn or optimized by humans — it was designed by AI from the laws of physics upward 🚀🤖 What you’re seeing is LEAP 71’s NEURON 20 kN aerospike engine, featured by Intezga. Instead of traditional CAD work, an AI system encoded with thermodynamics, fluid dynamics, combustion physics, and material limits generated the entire engine geometry on its own ⚙️🧠. The result is a fully 3D-printed copper engine, built as a single piece with complex internal cooling channels no human could realistically design. Inside, temperatures exceed 3,000°C, while liquid oxygen at −183°C flows through the walls for regenerative cooling ❄️🔥. The green flame during testing isn’t visual flair — it’s burning copper vapor, and that data feeds straight back into the AI so the next design improves automatically. Once trained, the system can create a brand-new engine design in about 15 minutes ⏱️✨. This is a true aerospike engine, efficient at multiple altitudes — and it fired successfully on its very first real-world test. This isn’t AI assisting engineers… it’s AI designing flight-ready hardware 🌍🚀 Love technology? ✨ Follow @theunseenworld4uu Credit: Intezga / YT We do not own any of the content. All credit goes to the respective owners. No copyright infringement intended. #innovation #engineering #aerospace #rocketengine #ai #technology #future #spacetech #artificialintelligence #engineeringlife #rocketscience #unseenworld

What used to take years… just happened in weeks. An AI system didn’t just simulate a rocket engine — it designed it, built it, and tested it. That changes everything. Because the real breakthrough isn’t rockets… it’s speed of innovation. When design → prototype → testing becomes this fast: • ideas evolve faster • costs drop • experimentation explodes And suddenly, small teams can compete with entire industries. But here’s the catch: AI can explore designs humans would never think of… yet physics still has the final say. The future isn’t AI replacing engineers — it’s engineers working with AI to move at unfair speed. This is what happens when imagination meets computation. Follow @DeepVaultAI for more 🚀

🔥 La IA creó un motor cohete en 3D que arde a 3,000 °C… y funciona 🤯🚀 El motor aerospike NEURON de 20 kN fue creado por una IA que aprende directamente de la física: termodinámica, dinámica de fluidos, combustión y límites de materiales. En lugar de ingenieros dibujando modelos CAD, la IA genera automáticamente toda la geometría del motor. Está impreso en 3D como una sola pieza de cobre, lo que permite canales de enfriamiento internos extremadamente complejos que la fabricación tradicional no puede lograr. Dentro de la cámara de combustión, las temperaturas superan los 3,000 °C, mientras oxígeno líquido a −183 °C circula por las paredes para enfriamiento regenerativo — lo bastante frío como para formar escarcha por fuera durante la prueba. La llama verde observada en los ensayos se debe al vapor de cobre, producido por erosión microscópica bajo calor extremo. Estos datos reales se retroalimentan a la IA, permitiendo que futuros diseños mejoren automáticamente. Es un verdadero motor aerospike, capaz de mantener eficiencia a diferentes altitudes — un diseño considerado durante décadas demasiado complejo de fabricar con fiabilidad… hasta ahora. El motor se encendió con éxito en su primera prueba real, demostrando que la IA ya puede diseñar hardware aeroespacial funcional y listo para volar. 🚀 🎬 CLIP COURTESY LEAP 71 / Inteza (YouTube) #InteligenciaArtificial #RocketEngine #Impresion3D #SpaceTech #FutureTech