A team of researchers has created ultrathin plastic "muscles" that can bend, twist, and lift objects just like human tissue. These artificial muscles are made from polymer films that react to small voltage changes, making them lightweight, flexible, and efficient. Unlike traditional motors, these muscles can power robots with lifelike movement, opening new possibilities in robotics, prosthetics, and even medical devices. They can perform delicate motions like grasping a flower, yet also scale to heavy lifting tasks. This breakthrough brings robotics closer to mimicking natural biology. In the near future, we may see robots that move not with rigid machines, but with soft, lifelike motions inspired by human muscles. #Robotics #ArtificialMuscles #Innovation #FutureTech #BioEngineering

U.K. scientists built living skin for robots — and it even heals when cut In a wild crossover between biology and robotics, scientists at the University of Oxford have engineered a living skin that can be grown over robots — complete with soft texture, elasticity, and even the ability to self-heal when damaged. It’s made from human-derived skin cells, cultured in lab-safe biogel frameworks. This “biohybrid” skin can stretch, wrinkle, and bend just like natural skin — giving robots a more lifelike appearance and enhancing their sensory capabilities, including pressure, vibration, and thermal changes. If scratched or cut, the cells begin regenerating within hours, closing the wound without scarring. It’s grown directly onto 3D-molded robotic limbs or faces, using a scaffold made of collagen, fibrin, and elastin proteins, layered to match human dermal structures. Electrical signals from internal robotic sensors help guide the cells’ growth pattern — making the skin partially responsive to robotic feedback. Beyond humanoid robotics, this could be vital for prosthetics, where natural skin feel improves mental acceptance and reduces friction wounds. It also offers breakthroughs in surgical robots, where touch sensitivity is essential. The researchers say they’re now working on adding pigmentation, sweat pores, and hair follicles, bringing robots even closer to human-level realism — not just outside, but on the sensory level too. #LivingTissueOverCyberneticAlloy

Unlocking the Combinatorial Power of Frontier Technologies 🚀 At Network, we see firsthand how the fusion of advanced technologies is transforming industries with innovative, game-changing solutions. Here’s how cutting-edge tech combinations are driving real-world impact: • Factory Machine Repair: AI-powered diagnostics + AR/VR remote guidance + industrial robots + digital twins = seamless, efficient machinery maintenance without onsite presence. • Personalized Medicine Delivery: AI-optimized treatment plans + bioengineered meds via 3D printing + autonomous drones + connected health devices = truly personalized, adaptive healthcare at scale. • Wind Farm Maintenance: AI-driven predictive maintenance + drones & robots for inspections + quantum computing for energy optimization = smarter, more reliable renewable energy infrastructure. These examples highlight the exponential value created when frontier technologies converge — a future where data-driven insights and intelligent automation redefine what’s possible. #AI #DigitalTransformation #Innovation #Industry40 #HealthcareTech #RenewableEnergy #QuantumComputing #ARVR #3DPrinting #SmartTech #FutureOfWork #TechTrends #NetworkAI

Quantum | IIT-Madras has created soft magnetic materials that bend, twist and grip without motors, inspiring prototypes like flower-like grippers and ribbon crawlers for biomedical use. Here’s how this nature-inspired tech could transform soft robotics: https://trib.al/uJfNBvY

🐘 𝗕𝗶𝗼-𝗜𝗻𝘀𝗽𝗶𝗿𝗲𝗱 𝟯𝗗 𝗣𝗿𝗶𝗻𝘁𝗶𝗻𝗴 𝗖𝗿𝗲𝗮𝘁𝗲𝘀 𝗘𝗹𝗲𝗽𝗵𝗮𝗻𝘁 𝗥𝗼𝗯𝗼𝘁 Scientists at the Swiss Federal Institute of Technology in Lausanne (EPFL) have created a 3D-printable lattice structure that combines robotic control with the adaptability of biological tissues. The system can be customized into over 1 million configurations, offering virtually limitless geometric variations. Using this technique, researchers built an elephant-inspired robot with a trunk that bends, twists, and rotates, alongside more rigid joints in the legs and hips. This demonstrates how the method can produce lightweight yet strong robotic structures. The lattice is built from two core cell types — the X-cube and the body-centered cubic (BCC) — which provide different load-bearing and deformation properties. Hybrid cells can also be printed, creating robotic “tissues” with tailored stiffness and flexibility. With its high strength-to-weight ratio and open foam structure, the technology could lead to lightweight, efficient, and fluid-compatible robots. Researchers say it may even integrate sensors or other materials, opening the door to advanced soft robotics and adaptive machines. 👉 Find the full video in the comments.

The Leg That Thinks This robotic prosthetic doesn’t just support you. It figures out how you walk—and adapts. This isn’t science fiction. It’s the C-Brace, a microprocessor-controlled prosthetic that transforms how people move. Earlier prosthetics were passive. Just rigid supports. But this one is active. It adapts to your motion in real-time. It’s built with spring-loaded joints and sensors that monitor knee angles. By adjusting hydraulic resistance on the fly, it recreates a natural walking rhythm. What made this possible? Precise sensing. Miniaturized electronics. And probably, a ton of walking data. This is what robotics looks like when it’s done right. Not flashy. But deeply human. If you’re into robotics, biomechanics, or just the magic of motion—watch this twice. Video included for educational purposes only. No copyright ownership claimed. ---   If you’re ready to build your first robot, check out the free email course at: https://lnkd.in/ggpxcruu

Exploring the Future of Humanoid Robotics and AI As someone deeply passionate about technology and AI, I’ve always been fascinated by the potential of humanoid robots. What excites me today is how rapidly these possibilities are becoming more accessible—not just restricted for research labs, but for developers and enthusiasts. Some of the options catching my eye include: 🤖 Unitree G1 – Upgradable with advanced sensors and actuators, comes with the development tools , starting price around USD $16K. 🤖 Tesla Humanoid Robot (not yet available) – announced price around USD $20K. 🤖 Berkeley Open Source Humanoid Lite – Made with 3D printed parts, approximately USD $5K. 🤖 K-Scale Labs Humanoid – another approachable option for robotics experimentation, around USD $9K On the AI side, the rise of On-Device VLA (Vision Language Action) models is also remarkable, with tools like Google Gemini Robotics and Nvidia OpenVLA bringing intelligence directly into these systems. The convergence of accessible humanoid hardware and advanced AI models opens up incredible opportunities for innovation. For someone like me, it’s a thrilling time to explore, experiment, and contribute to the future of robotics. I’d love to hear from others in the space—what humanoid platforms or AI integrations you most excited about? or even AI related robotics projects that you have worked on . #Robotics #AI #HumanoidRobots #Innovation #TechPassion

🤖 From Battlefield to Breakthrough Tech A Chinese DIY maker has 3D printed an all-terrain robot that moves across land, water, and air — and while it may have military roots, its commercial potential is massive. 🚑 Disaster response 🌱 Environmental monitoring 🌊 Marine exploration 🚚 Off-road logistics 🎥 Cinematography 🛡️ Security patrols 🎓 STEM education & research This isn’t just a robot — it’s a versatile platform that can be adapted to solve real-world problems across industries. Innovation like this proves that with the right vision, even war tech can become tech for good. 🌍 #Robotics #3DPrinting #Innovation #TechForGood #AI #SmartMobility #STEM #FutureTech #LinkedInTech

An interesting read... Through the optimisation of polymer composite formulations and advanced soft electronics fabrication techniques it has been possible to achieve spatial resolution that surpasses human skin and sensitivity up to 100 times higher. “This innovation overcomes a major limitation in robotic sensing and paves the way for significantly more dexterous and intelligent robotic systems,”' #Robots #ESkin

Before Every Innovation, There Is Simulation – Powered by Ansys From rockets to robots. From autonomous cars to personalized medical devices. Across every industry, one thing remains constant: Simulation is the launchpad for innovation. ANSYS offers: ✅ Self-learning robots built and optimized virtually ✅ Personalized healthcare made possible through predictive simulation ✅ Reusable space systems tested before physical trials ✅ Safer, smarter autonomous vehicles using digital twins ✅ Breakthrough materials and 3D printing accelerated by virtual validation Whether you’re in MedTech, Aerospace, Automotive, Energy, or High-Tech, ANSYS simulation significantly helps in reducing time to market, cut prototyping costs, improve performance and safety and scale innovation across teams. Great ideas deserve a faster, smarter path to reality—and simulation is that path. To learn more, connect - https://zurl.co/VUvv. #Ansys #SimulationDrivenDesign #Innovation #DigitalTwin #ansys #ProductDevelopment #Healthcare #Aerospace #AutonomousVehicles #SmartManufacturing #MedTech #EngineeringExcellence #3dengg