Marvin is an image processing framework that provides features for image and video frame manipulation, multithreading image processing, image filtering and analysis, unit testing, performance analysis and addition of new features via plug-in.
Moved to https://github.com/rdiankov/openrave An open-source, cross-platform, plugin-based robot planning environment for autonomous robotics. Includes services like collision detection, physics, (inverse) kinematics, sensors, robot controls, python bindings, and a network scripting environment.
XMOS based, USB2 audio card, low power consumption, small form factor, 8 synchronous input channels and 4 stereo output channels.
(RoboSim) Java based Robot Localization and Path Planner Simulator.
Java based portable simulator to visualize and understand the Robot Localization, Path planning, Path Smoothing and PID controller concepts. It is very flexible and easy to use. It supports multiple platforms. The source code is available on Github where you can find latest development and up-to-date documentation. Source : https://github.com/habsoft/robosim Blog : https://robosimblog.wordpress.com Note : Use jre 1.7 to run it. 1.Histogram Filter 2.Histogram Filter with Sonar Range Finder (Experimental) 3.Kalman Filter 4.Particles Filter 5.Path Planning 6.Path Smoothing 7.PID Controller Path Planning Algorithms 1.BFS 2.DFS 3.A Star 4. Dynamic Programming Heuristics i. Euclidean Distance ii. Euclidean Distance(+) iii. Euclidean Distance(*) iv. Euclidean Distance Squared v. Manhattan Distance vi. Chebyshev Distance
Moved to new location: http://octomap.github.com/
A probabilistic, flexible, and compact 3D mapping library for robotic systems. OctoMap provides efficient occupancy grid mapping in 3D using octrees. OctoMap development has moved to http://octomap.github.com/
Complete ROV Control Suite
This project aims to create a flexible, cross-platform ROV (remotely operated vehicle) control system based on Qt and the Arduino microcontroller series with multi-platform support. You can view the development blog at http://chrisstechblog.blogspot.com. If you have any questions, comments, ideas or complaints please let us know! We'd love to hear from you how we can improve ROV-Suite! Thanks! P.S. If you want to give us a negative review, please elaborate on why you are giving us a negative review so that we can fix any issues or bugs that you may have found!
This project's aim is to build a 3D simulation environment to control a hexapod, and communicate serially to said hexapod when connected. This way new motion algorithms can be perfected without damaging your robot.
This project introduces sample programs of the URG library. Applications using URG and URG library are also introduced here. URG is Scanning Laser Range Finder of Hokuyo Automatic Co., for robots, autonomous systems and security systems.
Simox has moved to gitlab. Please update your URLs: https://gitlab.com/Simox/simox A platform-independent robot simulation, motion and grasp planning toolbox consisting of three modules: VirtualRobot to simulate and visualize robots, Saba the sampling-based motion planning library and GraspStudio for grasp planning.
MIT's spacecraft simulator for control algorithm development
The SPHERES simulation is designed to support most software-related aspects of single- and multi-satellite SPHERES operations. The simulation code base consists of simulated versions of most of the SPHERES core flight code and additional code that simulates dynamics, communications, and other environmental interaction. The simulation is particularly valuable during the early stages of algorithm development and implementation as an aid in accelerating the learning curve for any Guest Scientist for SPHERES. Algorithms may be implemented in C or Embedded MATLAB and executed in the MATLAB simulation environment to verify general desired behavior. With some limitations, the code used in the simulation can be directly transferred to the SPHERES hardware. We are sharing this project with the public to gather more interest for SPHERES Guest Scientists. Feel free to use and contribute to this code base, just don't forget to credit the MIT Space Systems Lab if you distribute any results.
INDI C# Client
This project consist in a .NET/Mono assembly containing a simple INDI client and a WinForm that permits to connect to astronomical equipment INDI server, and to use drivers connected at it.
A virtual scanner for 3D models.
A virtual scanner that converts 3D models (in Wavefront .obj format) into pointcloud files (in PCL .pcd format). Useful for simulating robotic input. NOTE: This project has been merged into the project at https://github.com/canderegg/cfg_obj