DFRobotShop Rover V1.5 - Robot à Chenilles Compatible Arduino (Kit XBee) • Version XBee du DFRobotShop Rover• Kit pour robot char d'assaut programmable et polyvalent• Chargeur de batterie LiPo intégré• Carte Arduino complète intégrée (Arduino Uno)• Pont en H double et régulateur de tension intégré (une seule batterie est nécessaire)• Compatible avec différents blindages• 2 modules émetteur-récepteur XBee et interface XBee-USB inclus• Chargeur intégré etCellule de Batterie au Lithium de Polymère SFE - 3,7 V 1000 mAh inclus• Les embases XBee doivent être soudées Le Robot à chenilles DFRobotShop Rover V2 compatible Arduino (kit XBee) est un robot char d'assaut mobile polyvalent basé sur le célèbre microcontrôleur Microcontrôleur Arduino Uno USB Rev 3 . Le Rover utilise la boîte à engrenages de moteur double Tamiya ainsi que le jeu de chenilles et de roues Tamiya. *Notez que les Boîte à Engrenages Double Tamiya inclus dans le kit fonctionnent à une tension nominale de 4,5 V.
Pour des moteurs de 6 V. AI on the Web. Artificial Intelligence: A Modern Approach. Bras robotique (avec carte Arduino) - Le forum de la Robotique, www.Robot-Passion.com. Construisez votre robot hexapod avec Arduino - Un podcast vidéo traitant de la robotique. Let's Make Robots! | Let's Make Robots!-Mozilla Firefox. Le libre s'envole avec Arduino - Internet Collaboratif. Ordis Solarius Articulum Kapacitusbankus Abampere Quinquaginta OSAKA50 | Let's Make Robots!-Mozilla Firefox. I received a "Animaris Ordis Parvus" leg kit from our friends at Gakken .... AOP :- Just look at those legs .... as a Bonus for sending my SchneeBeast for a Theo Jansen exhibition in Japan. The original kit was powered by the wind and indeed it drives forwards in the lightest of breezes. ( as proved by rik ) However it was calling out for a bit more power so what i present here is Solar powered version. The basic idea was to split the beest in half and drive both sides independently.
With this configuration it can be set up to find and follow the sun. Driving the motors calls for a "Burst Mode" technique in the form of a Miller Solar Engine. The Miller Solar Engine basically charges up a capacitor bank (6 x 3300uF in my case) from the solar cells. After a predetermined voltage ..... all the power stored in the capacitor bank is transferred into the motor via a drive transistor.. The Gakken magazine in question can be found here.... Otona no Kagaku Magazine (English). Sun from OSAKA 50s Right. Created: Robot project | Let's Make Robots!-Mozilla Firefox. Triggering a Camera’s Flash with Sound and Light. Update: Check out my latest Camera Axe project for a much more robust device that handles this or my store where I sell the Camera Axe.
For those just wanting to see the pretty pictures, click here. This article focuses on making the sensors used to trigger a camera’s flash using a microphone or a cheap laser pointer. Since I’ve already described how to do the actual firing of a camera’s flash here I won’t focus on that part of this project today. There are a lot of places on the web that describe how to trigger a flash with an electrical circuit, but I feel that using a microcontroller like Arduino offers big benefits. For instance you can easily add new sensors, or even run multiple sensors at once.
Since the triggering of the flash is done in software it’s easy to add delays, or make a more complicated triggering algorithm based on multiple sensors. Now let’s talk about why we’re triggering the flash. Most SLR and DSLR cameras let you attach a cable to trigger the camera directly. Z-39 | Let's Make Robots!-Mozilla Firefox. Hi all, This is it! As I got a fully (more or less) functional CNC (see here: I can finally start doing what I have intended from the beginning: BUILDING BOTS.
This one will scratch my "must build track robot" itch and at the same time I hope I'll be able to use it as a development platform in general, to test various stuff on it. Z-39 aims to be completely build using machined parts. The motors are salvaged from some old CD writer hardware (TIP: there is always good stuff in old hardware ;) ). The design is all done in Blender from scratch using this thank as inspiration for the track suspensions: See the resemblence? ;) The reduction gearbox provides a total of 64/1 reduction in three stages, one gearbox is used for each of the two motors.
The robot is roughly 20 cm long by 16 cm wide, guessing the weight to be about 500 grams. As the power source I'm emploing 6 AA NiCD accumulators. - encoders on both output shafts Update! Arduino. Camera Axe 5 Shield This is the first Camera Axe shield, but it leverages the lessons learned from the previous four generations of Camera Axe hardware. The word “shield” describes a board that plugs into the Arduino board. Arduino is an popular and easy to use open-source electronics prototyping platform used by artists, designers, and hobbyists. The standard Camera Axe 5, which will be released in the next few months, will have a lot of difficult to solder surface mount components.
Because making a kit of the standard Camera Axe 5 wouldn’t be possible I started looking for different ways of doing a kit version. I decided to go with this Arduino shield idea. Some of the reasons are: There are hundreds of thousands of people who have Arduino boards. The both versions of the Camera Axe 5 will use 100% the same software and will both have the same capabilities. Here are some improvements this design has over the Camera Axe 4: Useful links: Permalink Camera Axe 4 Camera Axe Video: Permalink PCBs. Arduino meets processing - PUSHBUTTON. The Arduino meets Processing project intends to make it as easy as possible for anyone to explore the world of physical computing.
All you need is an Arduino board as well as the Arduino and Processing software, which you can download on their project websites. On this website we explain how to: set up electronic circuits with various kinds of sensors, control and measure the sensors with the Arduino board, send the data to the computer, and use the received values to generate computer graphics with Processing. For all examples you need some basic electronic equipment such as a breadboard, resistors, the sensors, and some wires. The following sensors are dealt with on this website: All examples contain a list of the parts as well as the Arduino and Processing files you need.
The Processing files have a DisplayItems class which paints a grid with values, a black or white background. Feel free to play around and have fun exploring the wonderful world of Arduino and Processing! Sweep. Learning Examples | Foundations | Hacking | Links Examples > Servo Library Sweep Sweeps the shaft of a RC servo motor back and forth across 180 degrees.
This example makes use of the Arduino servo library. Hardware Required Arduino Board (1) Servo Motor hook-up wire Circuit Servo motors have three wires: power, ground, and signal. Click the images to enlarge images developed using Fritzing. Schematic Code // Sweep// by BARRAGAN < // This example code is in the public domain. See also.