Hextronics’ Post

Flexible Armed Drone Can Squeeze Through Gaps Narrower Than It Is 🔍 Meet Morphy, a small, autonomous drone with sensor-embedded joints that enable it to navigate spaces narrower than its regular body size. Learn more about this innovative technology here: https://flip.it/oFK5D9 #drones #robots #autonomous

🚨 Breaking news: a new episode of DRONECAST Rethinking Public Safety One Drone at a Time is out now! This week, host John McLeod sits down with Chris Baker, Systems Administrator and Drone & Robotics Coordinator for the City of Oswego Together, they discuss Oswego’s drone program, why small cities are perfect for Drone First Responders, and how Chris maintains relationships with stakeholders to keep the program running. 🎧 Check out the full episode to learn more, and don't forget to subscribe. Links in the comment section. 👇 #Dronecast #PublicSafety #DroneFirstResponders

🚨 Breaking news: a new episode of Dronecast: Rethinking Public Safety, One Drone at a Time is out now! This week, host John McLeod sits down with Christopher Baker, Systems Administrator and Drone & Robotics Coordinator for the City of Oswego Together, they discuss Oswego’s drone program, why small cities are perfect for Drone First Responders, and how Chris maintains relationships with stakeholders to keep the program running. 🎧 Check out the full episode to learn more, and don't forget to subscribe. #Dronecast #PublicSafety #DroneFirstResponders

Evolution of resonant structure of high precision MEMS gyroscope MEMS gyroscope is widely used in various fields because of its advantages of low power consumption, light weight and low cost. High-precision MEMS gyro can improve the attitude measurement and control accuracy of many types of equipment and platforms, and is expected to solve the autonomous navigation problem of unmanned vehicles, drones and other equipment in complex environments, and has broad development prospects, so it is always one of the hot research directions in the field of inertia. The evolution of resonant structure of high precision MEMS gyro is described in this paper. The mass-block MEMS gyro and rotator-symmetric MEMS gyro are introduced. The full of content: https://lnkd.in/gt8a2YNU

As part of my course on developing autonomous UAVs, I created code that identifies a specific type of circle and plots its position in relation with the body frame of the drone. The image on the left is the camera view of the drone. The image on the right is the real time processing of the software detecting the circle.

Evolution of resonant structure of high precision MEMS gyroscope MEMS gyroscope is widely used in various fields because of its advantages of low power consumption, light weight and low cost. High-precision MEMS gyro can improve the attitude measurement and control accuracy of many types of equipment and platforms, and is expected to solve the autonomous navigation problem of unmanned vehicles, drones and other equipment in complex environments, and has broad development prospects, so it is always one of the hot research directions in the field of inertia. The evolution of resonant structure of high precision MEMS gyro is described in this paper. The mass-block MEMS gyro and rotator-symmetric MEMS gyro are introduced. The full of content has shown in https://lnkd.in/gt8a2YNU

Evolution of resonant structure of high precision MEMS gyroscope MEMS gyroscope is widely used in various fields because of its advantages of low power consumption, light weight and low cost. High-precision MEMS gyro can improve the attitude measurement and control accuracy of many types of equipment and platforms, and is expected to solve the autonomous navigation problem of unmanned vehicles, drones and other equipment in complex environments, and has broad development prospects, so it is always one of the hot research directions in the field of inertia. The evolution of resonant structure of high precision MEMS gyro is described in this paper. The mass-block MEMS gyro and rotator-symmetric MEMS gyro are introduced. The full of content: https://lnkd.in/gt8a2YNU

Evolution of resonant structure of high precision MEMS gyroscope MEMS gyroscope is widely used in various fields because of its advantages of low power consumption, light weight and low cost. High-precision MEMS gyro can improve the attitude measurement and control accuracy of many types of equipment and platforms, and is expected to solve the autonomous navigation problem of unmanned vehicles, drones and other equipment in complex environments, and has broad development prospects, so it is always one of the hot research directions in the field of inertia. The evolution of resonant structure of high precision MEMS gyro is described in this paper. The mass-block MEMS gyro and rotator-symmetric MEMS gyro are introduced. The full of content has shown in https://lnkd.in/gt8a2YNU

Diving into Obstacle Avoidance for Autonomous Flight 🔎 As part of my self-guided exploration of motion planning for quadcopters, I'm working on a receding horizon planning (RHP) system. Here's the core idea behind my obstacle avoidance approach: Dynamic Calculations: My code constantly re-evaluates the drone's path based on new environmental data. Repulsive Forces: Obstacles exert "push" forces on the drone's artificial velocity field, influencing its trajectory. Attractive Pull: The drone is simultaneously drawn towards its goal, creating a balanced navigation system. The Bigger Picture: This is one piece of my larger project investigating autonomous quadcopter flight algorithms. I'm excited to share how these elements fit together to achieve intelligent navigation. Let's Connect: If you're passionate about autonomous flight, motion planning, or control systems, let's discuss! #AutonomousDrones #MotionPlanning #Coding

Do you see how simple and convenient it is