SDK is free and comes with full documentationYou will also find sample code in most common programming languages. You can write some code for your smartphone, your smartwatch, or your VR glasses!The only limitation is your imagination Share your code on GitHub, create and promote your app with fun videos Best projects will be awarded by Parrot! Paparazzi UAV for Bebop 1 and Bebop 2 Paparazzi UAV (Unmanned Aerial Vehicle) is an open-source drone hardware and software project encompassing autopilot systems for multicopters/ multirotors, fixed-wing, helicopters and hybrid aircraft. Paparazzi, being open, enables users to add more features and improve the system. Using and improving Paparazzi is encouraged by the community. Parrot joined The Dronecode project in 2015 The Dronecode Project is an open source, collaborative project that brings together existing and future open source drone projects under a nonprofit structure governed by The Linux Foundation.

The result will be a common, shared open source platform for Unmanned Aerial Vehicles (UAVs). ROS packages for Bebop 1 and Bebop 2 The Robot Operating System (ROS) is a set of software libraries and tools that help you build robot applications. From drivers to state-of-the-art algorithms, and with powerful developer tools, ROS has what you need for your next robotics project. And it's all open source. Here are some amazing apps already using our SDK Learn to code and create something amazing with drones! Capture your fun and all the action without using your flight controls First person VR piloting for the Jumping Sumo Learn to program Arduino, drones, robots, connected toys, and smarthome devices, all wirelessly Select a flight plan and capture image data, ready for creating georeferenced maps Follow-me and attack mode for the Jumping Sumo! Become a Parrot Developer 1 : Register on the dev forum 2: Apply for developer discount

3 : Write some code! This is a ROS package for the autonomous flight of the Parrot AR Drone 2.0 using ORB-SLAM (Raúl Mur-Artal, 2015) for the position and yaw estimation of the quadrocopter. This controller regulates, the x position, y position and yaw.Please, refer to the following paper whenever you make use of this free code: J. Martinez-Carranza, Nils Lowen, F. Marquez, E.O. García Rodriguez, W. Mayol-Cuevas. Towards Autonomous Flight of Micro Aerial Vehicles using ORB-SLAM. IEEE 3rd Workshop on Research, Education and Development of Unmanned Aerial Systems. The paper can be found under the following link: https://ccc.inaoep.mx/~carranza/articles/reduas15AF.pdf Tested under Ubuntu 14.04, using ROS Indigo. ardrone_autonomy by Mani Monajemmi, the ROS API for controlling the AR Drone 2.0. and receiving sensor data and video ardrone_tutorials by Mike Hamer. This package includes code for flying the AR Drone 2.0. ORB-SLAM (Raúl Mur-Artal, 2015).

The specific fork I used was bmagyar/ORB_SLAM. ArdroneFrontSettings.yaml in the "Settings" folder should be pasted in ORB_SLAM/orb_slam/Data and the ORB_SLAM/orb_slam/launch/orb_slam.launch should be replaced with the orb_slam.launch found in the Settings folder. These changes shall remap the front camera topic of the AR Drone 2.0 to the input of ORB-SLAM. The controller package and the tf_pose package should be left in catkin_ws/src.parrot ar drone camera emergency Start by plugging in the AR Drone's battery. parrot ar drone pakistanOnce the network appears on your computer, connect to it.storm drone ff flying platform uk 3.1. Find out the position of your desired waypoint according to the ORB-SLAM map.

Roslaunch keyboard_controller.launch (located in the ardrone_tutorials package). A window containing the real time videostream from the front camera of the AR Drone should appear. When selecting this window the AR Drone can be controlled from the keyboard.This will open up the tracking window and Rviz from ORB_SLAM for displaying the sparse pointcloud and current pose of the camera. Takeoff the AR Drone with the 'Y' key or apply a translational movement in order to initialize ORB-SLAM. Next, rosrun tf_pose tf_pose. This node publishes the /pose topic, which contains the x,y and z position of the quadcopter and also its roll, pitch and yaw. The x axis is the front/back axis of the quadcopter, the y axis is the left/right axis of the quadcopter and the z axis is the up/down axis. Then listen to this topic by typing: rostopic echo /pose, and you will see the current position of the quadcopter displayed. Move the quadrotor manually or with the keyboard towards a waypoint position at which you would like it to land autonomously.

Record the x position of the /pose topic once the quadcopter is located at the desired waypoint position. quadcopter to the place at which you initialized ORB-SLAM, which would be the origin. 3.2. Edit the waypointPlanner.yaml found inside the controller package. Pick two intermediate x positions (waypoints) between the origin and the waypoint. Note that the origin is the position and orientation at which ORB-SLAM was initialized. Edit the pit_ref array. THe array should always start with 0.0 and then the following x positions (waypoints). pit_ref: [0.0, 0.200, 0.400, 0.600] At each of the waypoints the quadcopter hovers for the amount of cycles set in the resetStep parameter. The roll_ref is the Y position setpoint. If set to 0.0 the quadcopter shall fly straight. The yaw_ref is the yaw setpoint. It is set to 0.0 in order to maintain the quadcopter's heading towards the waypoint The controllers managing the x and y position are both PD controllers, the gains of the x position controller are

pit_Kp and conPit_Kd and the gains of the y position controller are roll_Kp and conRoll_Kd. The yaw controller is a proportional controller and the gain is set with the parameter yaw_Kp. THe controllers need to be tuned experimentally at each new ORB-SLAM initialization because the map scale depends on the size of the environment ORB-SLAM is initialized in. 3.3. Run the autonomous flight. Once the waypointPlanner.yaml file has been configured, use the 'Y' key to takeoff the AR Drone. Then type the instructionThe AR Drone shall fly through the waypoints listed in the waypointPlanner. Note that the waypoint shall be reached once the x position of the quadcopter is within a certain threshold of the waypoint. The threshold is set in the waypointPlanner.yaml file. Once the AR Drone reaches the last waypoint, the quadcopter lands autonomously. 4. Code used from following publications: Raúl Mur-Artal, J. M. M. Montiel and Juan D. Tardós. ORB-SLAM: A Versatile and Accurate Monocular SLAM System.