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A small STM32 project can still teach serious robotics. This bionic butterfly toy uses an STM32F103 controller and Keil5 to reproduce flapping wing motion through embedded control and mechanical design. Projects like this are a practical entry point into biomimetic robotics lightweight actuators and autonomous flying systems.

Techniahqrobot | humanoid robots

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13,364 views • 25 days ago •via X (Twitter)

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Chinese robotics startup Rochu Robotics has developed a humanoid hand with a human-like skeletal structure for natural movement. The hand uses a hydraulic system and 24 biomimetic tendons instead of electric motors. This design improves flexibility, strength, and precise fingertip control.

Chinese robotics startup Rochu Robotics has developed a humanoid hand with a human-like skeletal structure for natural movement. The hand uses a hydraulic system and 24 biomimetic tendons instead of electric motors. This design improves flexibility, strength, and precise fingertip control.

Space and Technology

25,383 views • 3 months ago

A flapping-wing drone that actually handles its own vibrations. BionicBird’s X-Fly is not a propeller drone. It is an ornithopter with a six-axis gyro and precision G-sensors designed specifically to deal with the chaotic dynamics of wing flapping. • Sensor fusion tuned for flapping flight, not propeller stability • Ultra-light motors and custom kinematics • Biomimetic wings that alternate between flapping and gliding • No exposed propellers, lightweight and safe by design Instead of forcing nature into quadcopter physics, they designed the control system around how birds actually fly. Credit: —- Weekly robotics and AI insights. Subscribe free:

A flapping-wing drone that actually handles its own vibrations. BionicBird’s X-Fly is not a propeller drone. It is an ornithopter with a six-axis gyro and precision G-sensors designed specifically to deal with the chaotic dynamics of wing flapping. • Sensor fusion tuned for flapping flight, not propeller stability • Ultra-light motors and custom kinematics • Biomimetic wings that alternate between flapping and gliding • No exposed propellers, lightweight and safe by design Instead of forcing nature into quadcopter physics, they designed the control system around how birds actually fly. Credit: —- Weekly robotics and AI insights. Subscribe free:

Ilir Aliu

36,291 views • 7 months ago

Robots aren’t just the future — they’re already reshaping our world. At IIT Madras, the new in Robotics, offered under the Department of Engineering Design, is building the brains behind tomorrow’s intelligent machines. From motion planning and control to AI/ML and hands-on labs, this two-year program blends cutting-edge research with real-world industry relevance — powered by a strong robotics faculty team and a legacy of interdisciplinary innovation. Rooted in the success of the Inter-Disciplinary Dual Degree (IDDD) Robotics program, this two-year program brings together expert faculty members and a powerful blend of theory and hands-on learning. From robot design and analysis to motion planning, control systems, and AI/ML, students dive deep into the science and engineering behind next-generation robotic systems. Add immersive lab work and cutting-edge projects, and you have a curriculum that’s as practical as it is pioneering. Manufacturing, healthcare, logistics, and defence — robotics is reshaping them all. This program is about building the minds that will lead to that transformation. If the future runs on robots, it starts here. For more details visit: IIT Madras

Robots aren’t just the future — they’re already reshaping our world. At IIT Madras, the new in Robotics, offered under the Department of Engineering Design, is building the brains behind tomorrow’s intelligent machines. From motion planning and control to AI/ML and hands-on labs, this two-year program blends cutting-edge research with real-world industry relevance — powered by a strong robotics faculty team and a legacy of interdisciplinary innovation. Rooted in the success of the Inter-Disciplinary Dual Degree (IDDD) Robotics program, this two-year program brings together expert faculty members and a powerful blend of theory and hands-on learning. From robot design and analysis to motion planning, control systems, and AI/ML, students dive deep into the science and engineering behind next-generation robotic systems. Add immersive lab work and cutting-edge projects, and you have a curriculum that’s as practical as it is pioneering. Manufacturing, healthcare, logistics, and defence — robotics is reshaping them all. This program is about building the minds that will lead to that transformation. If the future runs on robots, it starts here. For more details visit: IIT Madras

IIT Madras

22,446 views • 4 months ago

$ONDS is trying to build a full 'system-of-systems' across aerial drones, counter-drone systems, ground robotics, ISR, border security, demining and AI-enabled command-and-control. That's where the $PLTR partnership becomes important because software is what can turn a collection of drones, sensors and robots into a real operating system. The acquisition strategy is aggressive but this quarter made it look a lot more credible. Less like a roll-up and more like an emerging autonomous defense platform with real demand behind it.

$ONDS is trying to build a full 'system-of-systems' across aerial drones, counter-drone systems, ground robotics, ISR, border security, demining and AI-enabled command-and-control. That's where the $PLTR partnership becomes important because software is what can turn a collection of drones, sensors and robots into a real operating system. The acquisition strategy is aggressive but this quarter made it look a lot more credible. Less like a roll-up and more like an emerging autonomous defense platform with real demand behind it.

Shay Boloor

291,777 views • 3 months ago

Linear actuators playing football! ⚽️ You can keep scrolling... The "Magic Field" is an impressive display of ball-handling skill, showcasing what fixed automation can achieve. There are no robots at all. Instead of robots, over 300 linear actuators precisely control the ball’s movement on the field, demonstrating incredible accuracy. The setup even includes an advanced kicking mechanism, similar to a SCARA robot, that uses two linear actuators and one rotary actuator to kick the ball into the net. 🥅 This fixed automation shows how powerful and precise automation can be without needing mobile robots on the field. When starting an automation project, it's interesting to consider if fixed automation like this or flexible robots might be the best fit. ~~ ♻️ Join the weekly robotics newsletter, and never miss any news →

Linear actuators playing football! ⚽️ You can keep scrolling... The "Magic Field" is an impressive display of ball-handling skill, showcasing what fixed automation can achieve. There are no robots at all. Instead of robots, over 300 linear actuators precisely control the ball’s movement on the field, demonstrating incredible accuracy. The setup even includes an advanced kicking mechanism, similar to a SCARA robot, that uses two linear actuators and one rotary actuator to kick the ball into the net. 🥅 This fixed automation shows how powerful and precise automation can be without needing mobile robots on the field. When starting an automation project, it's interesting to consider if fixed automation like this or flexible robots might be the best fit. ~~ ♻️ Join the weekly robotics newsletter, and never miss any news →

Lukas Ziegler

235,841 views • 8 months ago

Insertion Verification of Ethernet Cable. It was trained and set up in minutes: This object detector and classifier can be used for robotic tasks or in assembly verification. This classifier checks whether a connector was fully inserted or not. Small automation problems like this are everywhere in manufacturing. The challenge is often not the hardware, but getting systems deployed quickly enough to create value. Credit: Lentil Robotics ——- Weekly robotics and AI insights. Subscribe free:

Insertion Verification of Ethernet Cable. It was trained and set up in minutes: This object detector and classifier can be used for robotic tasks or in assembly verification. This classifier checks whether a connector was fully inserted or not. Small automation problems like this are everywhere in manufacturing. The challenge is often not the hardware, but getting systems deployed quickly enough to create value. Credit: Lentil Robotics ——- Weekly robotics and AI insights. Subscribe free:

Ilir Aliu

26,864 views • 2 months ago

At first glance, this looks straight out of a sci-fi movie. But what makes it fascinating is that projects like this are increasingly being built by small engineering teams and independent creators not giant defense contractors. Custom robotics is evolving fast tracked mechs, insect-inspired movement, ducted fan propulsion, advanced mobility systems… all built with accessible modern tools and components. The line between “garage project” and “advanced robotics lab” is starting to blur. Genius engineering creativity… or unnecessarily overengineered? ⚠️ This content is shared for informational purposes only. CTO Robotics Media is a media platform and does not own or develop the technology shown. Credit belongs to the original creators.

At first glance, this looks straight out of a sci-fi movie. But what makes it fascinating is that projects like this are increasingly being built by small engineering teams and independent creators not giant defense contractors. Custom robotics is evolving fast tracked mechs, insect-inspired movement, ducted fan propulsion, advanced mobility systems… all built with accessible modern tools and components. The line between “garage project” and “advanced robotics lab” is starting to blur. Genius engineering creativity… or unnecessarily overengineered? ⚠️ This content is shared for informational purposes only. CTO Robotics Media is a media platform and does not own or develop the technology shown. Credit belongs to the original creators.

CTO ROBOTICS Media

28,625 views • 3 months ago

meet WALL-E no, not the one from the cartoon :) this is a fully 3D-printed, autonomous desk companion running on an ESP32. it uses a local AI voice assistant to process commands in real-time and control its own motors building intelligent robotics just dropped to zero cost...

meet WALL-E no, not the one from the cartoon :) this is a fully 3D-printed, autonomous desk companion running on an ESP32. it uses a local AI voice assistant to process commands in real-time and control its own motors building intelligent robotics just dropped to zero cost...

ard

65,781 views • 20 days ago

This clip shows 1X's core design philosophy. Instead of the heavy, rigid harmonic drives common in robotics, NEO uses a complex, tendon-driven system. You can see the layers: from metal actuators, to the "3D Lattice Polymer" mesh, to the final knit suit. This architecture is the key to its 66 lb weight, 22 dB noise level, and 154 lb lift capacity.

This clip shows 1X's core design philosophy. Instead of the heavy, rigid harmonic drives common in robotics, NEO uses a complex, tendon-driven system. You can see the layers: from metal actuators, to the "3D Lattice Polymer" mesh, to the final knit suit. This architecture is the key to its 66 lb weight, 22 dB noise level, and 154 lb lift capacity.

Humanoids daily

85,587 views • 9 months ago

The Engineering Mechanism Behind Precise Aerodynamic Fin Control A control actuator converts an electrical command into precise movement of an aerodynamic fin. Inside this compact system, a small brushless motor drives a 4.25 mm ball screw. The screw converts rotation into linear movement, which is transferred through a linkage to change the fin angle. The principle is simple, but the mechanism must provide precise, repeatable movement with very little mechanical play. Small errors at the fin can change the aerodynamic forces acting on a fast-moving vehicle. In this system, each actuator weighs less than 100 g, while the complete three-actuator system weighs about 650 g. Each fin can move up to ±8°, with angular play below 0.1° RMS. Electromechanical fin actuators are used in aerospace control systems where low weight, compact size and precise aerodynamic control are important. Hydraulic and pneumatic systems are also used where different force, speed and power requirements make them more suitable. The engineering challenge is achieving precise movement and sufficient stiffness in a mechanism small enough to fit inside the vehicle while surviving vibration and aerodynamic loads. Source: Control Actuation System by MPS Micro Precision Systems AG

The Engineering Mechanism Behind Precise Aerodynamic Fin Control A control actuator converts an electrical command into precise movement of an aerodynamic fin. Inside this compact system, a small brushless motor drives a 4.25 mm ball screw. The screw converts rotation into linear movement, which is transferred through a linkage to change the fin angle. The principle is simple, but the mechanism must provide precise, repeatable movement with very little mechanical play. Small errors at the fin can change the aerodynamic forces acting on a fast-moving vehicle. In this system, each actuator weighs less than 100 g, while the complete three-actuator system weighs about 650 g. Each fin can move up to ±8°, with angular play below 0.1° RMS. Electromechanical fin actuators are used in aerospace control systems where low weight, compact size and precise aerodynamic control are important. Hydraulic and pneumatic systems are also used where different force, speed and power requirements make them more suitable. The engineering challenge is achieving precise movement and sufficient stiffness in a mechanism small enough to fit inside the vehicle while surviving vibration and aerodynamic loads. Source: Control Actuation System by MPS Micro Precision Systems AG

Tengiz

35,286 views • 1 day ago

Most motion papers tailor one controller to one specific task. This year at SIGGRAPH, our research team asks: can motor control itself be pretrained and reused? Generative Pretrained Controllers, or GPC, turn motor skills into a vocabulary of discrete tokens and train a transformer-based generative controller through next-token prediction. Just like GPT, the same pretrained controller can then be fine-tuned to solve new tasks. Trained on 600+ hours of motion, GPC runs in real-time inside a physics simulation, producing natural and physically grounded behaviors for interactive control.

Most motion papers tailor one controller to one specific task. This year at SIGGRAPH, our research team asks: can motor control itself be pretrained and reused? Generative Pretrained Controllers, or GPC, turn motor skills into a vocabulary of discrete tokens and train a transformer-based generative controller through next-token prediction. Just like GPT, the same pretrained controller can then be fine-tuned to solve new tasks. Trained on 600+ hours of motion, GPC runs in real-time inside a physics simulation, producing natural and physically grounded behaviors for interactive control.

NVIDIA AI

175,820 views • 1 month ago

A lightweight arm doing heavier work than you would expect. This one weighs 9.2 kg and can lift up to 12 kg. That already tells you a lot about the mechanical design and power density. A few details that stood out to me: • Controlled via a PlayStation joystick, simple and practical • Designed to operate in rain and dust • Clearly aimed at mobile robots and outdoor use, not just clean factory floors This kind of arm makes sense when space, weight, and deployment flexibility matter more than raw reach or speed. Not flashy. Just very usable. Credit to Duatic for the build. —- Weekly robotics and AI insights. Subscribe free:

A lightweight arm doing heavier work than you would expect. This one weighs 9.2 kg and can lift up to 12 kg. That already tells you a lot about the mechanical design and power density. A few details that stood out to me: • Controlled via a PlayStation joystick, simple and practical • Designed to operate in rain and dust • Clearly aimed at mobile robots and outdoor use, not just clean factory floors This kind of arm makes sense when space, weight, and deployment flexibility matter more than raw reach or speed. Not flashy. Just very usable. Credit to Duatic for the build. —- Weekly robotics and AI insights. Subscribe free:

Ilir Aliu

25,726 views • 8 months ago

At first glance, it looks complicated. The engineering idea is surprisingly elegant. 🤖 The Tripteron robot uses a unique parallel kinematic design to achieve fast, precise movement with a relatively simple mechanical architecture. Unlike traditional robotic arms, the motion is generated through coordinated linear axes, allowing the end effector to move efficiently through 3D space. 🎥 Media: Zaber Technologies ⚠️ This content is shared for informational purposes only. CTO Robotics Media is a media platform and does not own or develop the technology shown. Credit belongs to the original creators. #Robotics #Engineering #Automation #Technology #Innovation

At first glance, it looks complicated. The engineering idea is surprisingly elegant. 🤖 The Tripteron robot uses a unique parallel kinematic design to achieve fast, precise movement with a relatively simple mechanical architecture. Unlike traditional robotic arms, the motion is generated through coordinated linear axes, allowing the end effector to move efficiently through 3D space. 🎥 Media: Zaber Technologies ⚠️ This content is shared for informational purposes only. CTO Robotics Media is a media platform and does not own or develop the technology shown. Credit belongs to the original creators. #Robotics #Engineering #Automation #Technology #Innovation

CTO ROBOTICS Media

11,730 views • 3 months ago

We are excited to share that our paper “Low-Latency Event-Based Velocimetry for Quadrotor Control in a Narrow Pipe” published in the IEEE Transactions on Robotics! One year in the making! PDF: Video: We focus on autonomous quadrotor flight in narrow pipes, where self-induced, unsteady airflow can significantly affect stability and control. Our approach closes the loop using real-time flow field measurements: an #EventCamera-based smoke velocimetry method provides low-latency airflow estimates, which are used by a learning-based disturbance estimator and integrated into a reinforcement-learning controller. The results are improved hovering and lateral translation performance, helping make flight in confined spaces more stable and safer! Kudos to Leonard Bauersfeld Leonard Bauersfeld! Reference: Low-Latency Event-Based Velocimetry for Quadrotor Control in a Narrow Pipe, IEEE Transactions on Robotics (T-RO), 2026 European Research Council (ERC) UZH IfI UZH Space Hub University of Zurich Swiss Robotics UZH Science UZHai AUTOASSESS IEEE Transactions on Robotics (T-RO) #DVS Prophesee

We are excited to share that our paper “Low-Latency Event-Based Velocimetry for Quadrotor Control in a Narrow Pipe” published in the IEEE Transactions on Robotics! One year in the making! PDF: Video: We focus on autonomous quadrotor flight in narrow pipes, where self-induced, unsteady airflow can significantly affect stability and control. Our approach closes the loop using real-time flow field measurements: an #EventCamera-based smoke velocimetry method provides low-latency airflow estimates, which are used by a learning-based disturbance estimator and integrated into a reinforcement-learning controller. The results are improved hovering and lateral translation performance, helping make flight in confined spaces more stable and safer! Kudos to Leonard Bauersfeld Leonard Bauersfeld! Reference: Low-Latency Event-Based Velocimetry for Quadrotor Control in a Narrow Pipe, IEEE Transactions on Robotics (T-RO), 2026 European Research Council (ERC) UZH IfI UZH Space Hub University of Zurich Swiss Robotics UZH Science UZHai AUTOASSESS IEEE Transactions on Robotics (T-RO) #DVS Prophesee

Davide Scaramuzza

50,300 views • 6 months ago

Robora is expanding into academia. We’ve begun working with university researchers in robotics, bringing expertise in areas such as SLAM, multi-modal perception, and motion planning into our ecosystem. The progress can be tracked live on our Github Repo: More and more researchers are joining our initiative as we speak. Their research feeds directly into Robora’s decentralized infrastructure, where modules for detection, segmentation, and control can be deployed across autonomous systems. This collaboration accelerates our path from academic labs to large-scale deployment, building a foundation where robots can operate, learn, and coordinate through Robora. In the future, we’ll also create opportunities for the community to engage directly with these researchers as the collaboration deepens.

Robora is expanding into academia. We’ve begun working with university researchers in robotics, bringing expertise in areas such as SLAM, multi-modal perception, and motion planning into our ecosystem. The progress can be tracked live on our Github Repo: More and more researchers are joining our initiative as we speak. Their research feeds directly into Robora’s decentralized infrastructure, where modules for detection, segmentation, and control can be deployed across autonomous systems. This collaboration accelerates our path from academic labs to large-scale deployment, building a foundation where robots can operate, learn, and coordinate through Robora. In the future, we’ll also create opportunities for the community to engage directly with these researchers as the collaboration deepens.

Robora

66,426 views • 11 months ago

“I am delighted to announce two landmark initiatives that will shape the future of robotics and autonomous systems in our country. First, we are launching the Spark and Elevate Program to transform Pakistan's research into world-class technologies, globally competitive enterprises and highly productive jobs. Second, we are establishing the Pakistan Venture Fund with an initial commitment of $20 million to catalyze investment in our technology ecosystem. Pakistan will not be a nation that merely inherits the choices made by others. We will shape our own destiny through innovation, enterprise, self-reliance and untiring efforts, God willing." Prime Minister Muhammad Shehbaz Sharif addresses the Indus RAS (Robotics and Autonomous Systems) Expo 2026 #IndusRASExpo2026

“I am delighted to announce two landmark initiatives that will shape the future of robotics and autonomous systems in our country. First, we are launching the Spark and Elevate Program to transform Pakistan's research into world-class technologies, globally competitive enterprises and highly productive jobs. Second, we are establishing the Pakistan Venture Fund with an initial commitment of $20 million to catalyze investment in our technology ecosystem. Pakistan will not be a nation that merely inherits the choices made by others. We will shape our own destiny through innovation, enterprise, self-reliance and untiring efforts, God willing." Prime Minister Muhammad Shehbaz Sharif addresses the Indus RAS (Robotics and Autonomous Systems) Expo 2026 #IndusRASExpo2026

Government of Pakistan

19,895 views • 1 month ago

Sometimes, the smartest robot isn't the most complicated one. ⚙️🤖 Meet the Tripteron a unique 3-axis parallel robot that achieves precise motion using an elegant mechanical design. Unlike traditional Cartesian gantries, all three actuators move in parallel, allowing the system to maintain a lightweight moving platform while covering a large workspace. Why does that matter? • High-speed, precise motion • Reduced moving mass • Excellent stiffness and repeatability • Scalable travel for large work areas These characteristics make parallel mechanisms like the Tripteron promising for applications such as industrial automation, high-speed pick-and-place systems, large-format 3D printing, precision manufacturing, and advanced inspection. Sometimes, innovation isn't about adding more parts. It's about finding a smarter way to move. Would you choose a Tripteron over a traditional Cartesian gantry for high-speed automation? 🎥 Media: Zaber Technologies ⚠️ This content is shared for informational purposes only. CTO Robotics Media is a media platform and does not own or develop the technology shown. Credit belongs to the original creators. #Robotics #Automation #MechanicalEngineering #ParallelRobot #MotionControl #Engineering #Manufacturing #Innovation

Sometimes, the smartest robot isn't the most complicated one. ⚙️🤖 Meet the Tripteron a unique 3-axis parallel robot that achieves precise motion using an elegant mechanical design. Unlike traditional Cartesian gantries, all three actuators move in parallel, allowing the system to maintain a lightweight moving platform while covering a large workspace. Why does that matter? • High-speed, precise motion • Reduced moving mass • Excellent stiffness and repeatability • Scalable travel for large work areas These characteristics make parallel mechanisms like the Tripteron promising for applications such as industrial automation, high-speed pick-and-place systems, large-format 3D printing, precision manufacturing, and advanced inspection. Sometimes, innovation isn't about adding more parts. It's about finding a smarter way to move. Would you choose a Tripteron over a traditional Cartesian gantry for high-speed automation? 🎥 Media: Zaber Technologies ⚠️ This content is shared for informational purposes only. CTO Robotics Media is a media platform and does not own or develop the technology shown. Credit belongs to the original creators. #Robotics #Automation #MechanicalEngineering #ParallelRobot #MotionControl #Engineering #Manufacturing #Innovation

CTO ROBOTICS Media

29,772 views • 15 days ago

Many people will scroll past this post but let me say it clearly. The country that can build weapons at this level may be the first to reach ASI. A humanoid robotic arm with advanced perception precision control rapid targeting and autonomous coordination combines AI robotics vision systems force control and real time decision making in one physical platform. The race toward Artificial Superintelligence may be led by defense programs building machines that can see decide act and eventually help design better versions of themselves. When a country can produce robotic systems capable of improving the machines doing the fighting ASI stops being a software theory #HumanoidRobots #MilitaryAI #ASI

Many people will scroll past this post but let me say it clearly. The country that can build weapons at this level may be the first to reach ASI. A humanoid robotic arm with advanced perception precision control rapid targeting and autonomous coordination combines AI robotics vision systems force control and real time decision making in one physical platform. The race toward Artificial Superintelligence may be led by defense programs building machines that can see decide act and eventually help design better versions of themselves. When a country can produce robotic systems capable of improving the machines doing the fighting ASI stops being a software theory #HumanoidRobots #MilitaryAI #ASI

TechniaHQ | humanoid robots

81,022 views • 1 month ago

Tuo has built an incredible community for robotics founders. The energy in Shenzhen is absolutely real; it's a magnet for builders. Thanks Tuo Liu for the tour and for hosting a great event! Shenzhen has an insanely dense robotics ecosystem. - It transformed from a small fishing village of around 30,000 people in the early 1980s into today’s global hardware epicenter with over 18 million residents. - The city is home to more than 1,200 robotics companies and tens of thousands of robotics-related suppliers and enterprises. - Thanks to this extreme proximity of engineers, factories, suppliers, and researchers (especially along Liuxian Avenue in Nanshan’s "Robot Valley"), hardware prototyping and iteration cycles can happen in days instead of months.

Tuo has built an incredible community for robotics founders. The energy in Shenzhen is absolutely real; it's a magnet for builders. Thanks Tuo Liu for the tour and for hosting a great event! Shenzhen has an insanely dense robotics ecosystem. - It transformed from a small fishing village of around 30,000 people in the early 1980s into today’s global hardware epicenter with over 18 million residents. - The city is home to more than 1,200 robotics companies and tens of thousands of robotics-related suppliers and enterprises. - Thanks to this extreme proximity of engineers, factories, suppliers, and researchers (especially along Liuxian Avenue in Nanshan’s "Robot Valley"), hardware prototyping and iteration cycles can happen in days instead of months.

The Humanoid Hub

52,945 views • 2 months ago

Zhejiang University Unveils Jet-Powered Flight Concepts for Humanoid Robots The Zhejiang University Huzhou Research Institute demonstrated its flying humanoid robot concept and jet propulsion systems at IROS 2025. They displayed a 31 kg jetpack driven by five micro-turbines, reaching 100 km/h. While currently human-controlled, the propulsion and stability data gathered are essential for developing the automatic control systems for future flying humanoids. The goal is to create an autonomous system where humans can simply "ride" the controlled platform. #iros2025 #flyingrobot #Robotics #jetpack #humanoidrobot

Zhejiang University Unveils Jet-Powered Flight Concepts for Humanoid Robots The Zhejiang University Huzhou Research Institute demonstrated its flying humanoid robot concept and jet propulsion systems at IROS 2025. They displayed a 31 kg jetpack driven by five micro-turbines, reaching 100 km/h. While currently human-controlled, the propulsion and stability data gathered are essential for developing the automatic control systems for future flying humanoids. The goal is to create an autonomous system where humans can simply "ride" the controlled platform. #iros2025 #flyingrobot #Robotics #jetpack #humanoidrobot

RoboHub🤖

13,168 views • 10 months ago