Resultados de la búsqueda para 'shield'

Bluetooth Module for Arduino puede conectarse directamente en la Placa de XBee y obtener una comunicación serie entre el ordenador y una placa Arduino a través del protocolo Bluetooth.

Documentacion:
Tutorial Bluetooth
Bluetooth Videotutorial

Opciones especiales:
- Umbrales de control RSSI mínimo y máximo
- Salto de frecuencia adaptable
- Seguridad: autenticación, vinculación y cifrado
- Almacena 5 dispositivos vinculados en su memoria interna
- Soporta modos de maestro o esclavo

Descarga aquí la librería Fritzing para incluir en tus diseños electrónicos.

Nota: Si está buscando dispositivos de Redes Sensoriales Inalámbricas (WSN) (motes) podría estar interesado en nuestra plataforma sensorial lista para el mercado: Waspmote. Puedes ver las diferencias entre ambas plataformas en el documento: Waspmote vs SquidBee.

The Codec Shield breaks out all of the useful pins on the WM8731 including the mic, line-in and out, headphone, and midrail bias voltage pin. It also has 1/8" stereo input and headphone out jacks as well as a pair of potentiometers for modulating parameters in your code.

The shield uses SPI to communicate with the WM8731 so it won't work directly with the Arduino Mega, but getting started on an Arduino-UNO style board or LeafLabs Maple is easy! Just download the library and example code, hook up and audio source and start tweaking.

Obviously you don't have much time to execute code between audio samples, so your code will need to stay pretty slim, but the example code gives a great framework for how your code should flow. Open Music Labs claims a performance increase of 4x when running the shield on a Maple (thanks to the higher clock speed).

EasyVR is a multi-purpose speech recognition module designed to add versatile, robust and cost effective speech and voice recognition capabilities to virtually any application. EasyVR is the second generation version of the successful VRbot module and builds on the features and functionality of its predecessor. In addition to the EasyVR features like 32 user-defined Speaker Dependent (SD) triggers and a host of built-in speaker independent (SI) commands, the shield has additional connectors for the microphone input, an 8 ohm speaker output, audio line-out/headphone jack, and access to the I/O pins of the EasyVR module. A programmable LED is also included to show feedback during recognition tasks.

A simple and robust serial protocol (9600 8-N-1 default) can be used to access these functions from the Arduino board. Check out the video below of the EasyVR Shield being used to control a servo.

Features:

• A host of built-in speaker independent (SI) commands (available in USEnglish, Italian, Japanese, German, Spanish and French)for ready to run basic controls.
• Supports up to 32 user-defined Speaker Dependent (SD) triggers or commands (any language) as well as Voice Passwords.
• Easy-to-use and simple Graphical User Interface to program Voice Commands to your robot.
• Module can be used with any host with an UART interface (powered at 3.3V - 5V) .
• Simple and robust serial protocol to access and program the module through the host board.
• Make your own sound tables using Sensory QuickSynthesis4 tool
• The new EasyVR GUI includes a command to process and download custom sound tables to the module (overwriting existing sound table)
• Connector for microphone input
• 8 ohm speaker output
• Headphone jack
• Access to EasyVR I/O pins
• Programmable LED to show feedback during recognition tasks
• Arduino Libraries provided

Documents:

• User Manual
• EasyVR GUI
• EasyVR Shield Homepage (most up-to-date downloads)
• EasyVR Protocol Header

Replaces: COM-10685

The Shield connects one of the imp's UARTs (Imp pins 5 and 7) to either the Arduino hardware UART or a software serial on pins 8 and 9. It defaults to the software serial, but there are jumpers on the bottom side to set it to the hardware serial. A couple imp pins (8 9) are also connected to LEDs. They can be disconnected via jumpers on the bottom, if you'd like.

Because the Electric Imp can draw up to 400mA on the 3.3V line, this shield has its own voltage regulator which is fed from the 5V Arduino line. Most Arduino compatible boards should be able to handle this amount of draw but beware that some clones that use less robust VREGs could see trouble.

Usando electronic bricks, puedes conectar fácilmente Arduino a varias interfaces analógicas, digitales e I2C/UART. Estas conexiones están preparadas para módulos de extensión como potenciómetros, sensores, relés, servos... incluso botones. Sólo pinchar y listo.

Cada terminal tiene puertos de conexión con VCC, GND y Salida, que tiene su correspondiente puerto en la placa de sensores, donde podrás empezar a utilizarlo con un cable de conectores hembra de socket 2.54mm. Haz las conexiones más seguras y fáciles, y con una visión más profesional.

A connector for the popular EM-406 GPS receiver is populated on the board, and footprints for EM-408 and EB-85A connectors are also made available (connectors are not included and can be found below in the related items). There is also a spot for the UP501 GPS module. The regular GPS pins (RX, TX, PPS, etc.) are also broken out to a 10-pin 0.1" pitch header, and a small protoyping area is also provided.

The DLINE/UART switch switches the GPS module's input/output between Arduino's standard TX/RX pins or any digital pins on the Arduino (default setting uses pins 3 and 2 connected to TX and RX, respectively). The DLINE/UART switch must be set to DLINE in order to upload code through the Arduino IDE.

The shield also includes the footprint for a 12mm coin cell battery holder to provide battery backup to the optional EB-85A GPS module.An ON/OFF switch is included which controls power to the GPS module. Additionally, the Arduino reset switch is also brought out.

Note: GPS modules are not included with the GPS Shield, and only the EM-406 connector is populated. Headers are also not installed or included, we recommend the 6 and 8-pin stackable headers.

Features:

• EM-406 connector populated
• EM-408 and EB-85A connector footprints provided and connected for optional use
• UP501 connector and footprint
• Coin cell battery socket footprint provided and connected for optional battery backup of EB-85A GPS module
• Standard Arduino sized shield
• Prototyping area
• GPS serial and PPS signals broken out to a 0.1" header for additional device connections
• Arduino reset button
• DLINE/UART switch controls serial communications
• ON/OFF switch controls power to GPS module

Documents:

• Schematic
• Eagle Files
• GPS Quickstart Guide
• Assembly Guide
• Example Sketch

Replaces: GPS-09487

GPS shield for Raspberry Pi is a small electronic circuit that allows to connect to your Raspberry Pi board to get position and altitude, as well as speed, date and time on UTC (Universal Time Coordinated). GPS antenna is not included. It is sold as an optional and it is required to use the module.

This kit includes:
- GPS Module for Arduino / Raspberry Pi
- Raspberry Pi to Arduino Shield Connection Bridge

Documentation:
- Tutorial for GPS shield for Raspberry Pi
- Tutorial for Raspberry Pi to Arduino Shield Connection Bridge

Note: If you are looking for shields to add new capabilities to your Raspberry Pi, you can find them here.

Note: Raspberry not included. You can take a look on the new Starter Kits for Raspberry Pi to get it.

Adding GPS to your Arduino has never been easier. Multiple GPS receivers attach easily to the shield, and with the example sketch, you will be able to locate your exact position within a few meters. GPS also gives you amazingly accurate time!

A connector for the popular EM-406 GPS receiver is populated on the board, and footprints for EM-408 and EB-85A connectors are also made available (connectors are not included and can be found below in the related items). There is also a spot for the UP501 GPS module. The regular GPS pins (RX, TX, PPS, etc.) are also broken out to a 10-pin 0.1" pitch header, and a small protoyping area is also provided.

The DLINE/UART switch switches the GPS module's input/output between Arduino's standard TX/RX pins or any digital pins on the Arduino (default setting uses pins 3 and 2 connected to TX and RX, respectively). The DLINE/UART switch must be set to DLINE in order to upload code through the Arduino IDE.

The shield also includes the footprint for a 12mm coin cell battery holder to provide battery backup to the optional EB-85A GPS module.An ON/OFF switch is included which controls power to the GPS module. Additionally, the Arduino reset switch is also brought out.

Includes:

• GPS Shield
• EM-406 GPS Module
• EM-406 Interface Cable
• Set of Stackable Headers

Features:

• EM-406 connector populated
• EM-408 and EB-85A connector footprints provided and connected for optional use
• UP501 connector and footprint
• Coin cell battery socket footprint provided and connected for optional battery backup of EB-85A GPS module
• Standard Arduino sized shield
• Prototyping area
• GPS serial and PPS signals broken out to a 0.1" header for additional device connections
• Arduino reset button
• DLINE/UART switch controls serial communications
• ON/OFF switch controls power to GPS module

Documents:

• Schematic
• Eagle Files
• GPS Quickstart Guide
• Assembly Guide
• Example Sketch

Replaces: RTL-10346

Our IO expansion board is evolving, this latest V5 IO expansion shield is now supporting Xbee. It even supports SD card which provides the ultimate functional expansion for Arduino so far. As its predecessor, it supports RS485, APC220, Bluetooth communication, servo control.

Specification

• Support RS485
• Support Xbee (Xbee pro)
• Support Bluetooth
• Support APC220
• Support SD card read/write

Documents

• Wiki Doc
• Schematics
• Review from funnyrobotics

• 4x Momentary Push Button Switch - 12mm Square
• 1x Thumb Joystick
• 1x Mini Push Button Switch (breaks out Arduino's reset switch)
• 2x 6-pin Arduino Stackable Header
• 2x 8-pin Arduino Stackable Header

Documents:

• Schematic
• Eagle Files
• Arduino Sample Sketch

• 1x Joystick Shield PCB
• 4x Momentary Push Button Switch - 12mm Square
• 1x Thumb Joystick
• 1x Mini Push Button Switch (breaks out Arduino's reset switch)
• 2x 6-pin Arduino Stackable Header
• 2x 8-pin Arduino Stackable Header

Documents:

• Schematic
• Eagle Files
• Joystick Assembly Tutorial
• Joystick Quickstart Guide
• Arduino Sample Sketch

The Joystick Shield kit contains all the parts you need to enable your Arduino with a joystick! The shield sits on top of your Arduino and turns it into a simple controller. Five momentary push buttons (4+ joystick select button) and a two-axis thumb joystick gives your Arduino functionality on the level of old Nintendo controllers. Soldering is required, but it's relatively easy and requires minimal tools.
The momentary push buttons are connected to Arduino digital pins 2-6; when pressed they will pull the pin low (utilizing the internal pull-ups of the Arduino). Vertical movement of the joystick will produce a proportional analog voltage on analog pin 0, likewise, horizontal movement of the joystick can be tracked on analog pin 1.

This product is the entire kit and contains the following items:

• 1 x Joystick Shield PCB
• 4 x Momentary Push Button Switch - 12mm Square
• 1 x Thumb Joystick
• 1 x Mini Push Button Switch (breaks out Arduino's reset switch)
• 2 x 6-pin Arduino Stackable Header
• 2 x 8-pin Arduino Stackable Header

Documents:

• Schematic
• Eagle Files
• Joystick Assembly Tutorial
• Joystick Quickstart Guide
• Arduino Sample Sketch

The Joystick Shield sits on top of your Arduino and turns it into a simple controller. Five momentary push buttons (4+ joystick select button) and a two-axis thumb joystick gives your Arduino functionality on the level of old Nintendo controllers.

Please note: This is an older version of the PCB that does not have the prototyping area. The examples and assembly guides still apply. We're just trying to give these PCBs a happy home before we move on to the next revision.

The momentary push buttons are connected to Arduino digital pins 2-6; when pressed they will pull the pin low (utilizing the internal pull-ups of the Arduino). Vertical movement of the joystick will produce a proportional analog voltage on analog pin 0, likewise, horizontal movement of the joystick can be tracked on analog pin 1.

This product is only the Joystick Shield PCB - you'll need to purchase the buttons and joystick separately, and assemble the controller yourself. Here's what you'll need in addition to the shield:

• 4 x Momentary Push Button Switch - 12mm Square
• 1 x Thumb Joystick
• 1 x Mini Push Button Switch (breaks out Arduino's reset switch)
• 2 x 6-pin Arduino Stackable Header
• 2 x 8-pin Arduino Stackable Header

Documents:

• Joystick Assembly Tutorial
• Joystick Quickstart Guide
• Schematic
• Eagle Files
• Arduino Sample Sketch

The LiPower Shield allows you to connect a 3.7V single cell Lithium polymer battery which it will boost up to 5V and connect to the Arduino board's 5V pin. The on-board MAX17043G+U IC is connected to the I2C lines (A4 and A5) so that your project can monitor it's own power supply. The configurable alert interrupt pin on the MAX17043G+U IC is broken out to D3 which will activate when the LiPo gets to 32% or lower.

The charging circuit is configured to charge the LiPo at 100mA but by adding a resistor to the supplied through-holes you can boost this to 500mA. There is a mini-USB port on the shield which allows you to charge the battery from a USB power source or you can supply a separate regulated 5V source on the "charge" header.

Note: We've decided to leave the power indicator LED (LED1) and its current limiting resistor (R3) off this board, as they were producing a significant drain on the battery. Please be aware that your board will have a few, shiny, unpopulated pads.

Note: There is a known hardware bug that will allow the LiPo to discharge below the point where the charging circuit will revive it. Thanks to the on-board fuel gauge, however, some clever programming could keep your project from draining the battery as it gets too low.

Documents:

• Schematic
• Eagle Files
• Datasheet (MAX17043G+U)
• Datasheet (MCP73831T)
• Datasheet (TPS61200)
• Example Code

Now you can take advantage of your house wiring instead of relying on a complex mesh network for home automation of data acquisition.

Note: You will need to supply at least 1Amp for the shield to function correctly.

Note: Please be aware that connecting anything to mains wiring can be dangerous. Use caution when playing with anything that is connected to a high voltage line. If you don't know what you're doing then read up first or have someone teach you, it's better than learning 'the hard way.'

Documents:

• Schematic
• Example Code
• Step-by-Step Guide

The new MEGA IO Expansion Shield V1.1 has some exciting new features. Besides all the features from its predecessor, it now supports Xbee/Bluetooth Bee and SD card module. It also features a 3.3V output. What can you expect more from this excellent shield? 

The IO Expansion shield  is designed for those who are familiar with the electronic circuits or universal board with bread board module, it helps in building a simple circuit effortlessly, but for those who are not familiar with the circuit or the slightly more complex circuit it doesn't seem so easy. This sensor expansion board is able to easily connect a number of commonly used sensors. For interactive works, the focus should not be on the specific circuit configuration, but on what features needs to be implemented. So for some of the specific function of the sensor module to connect to this sensor expansion board, we need to consider how to use the Arduino.

Features

• Support All Xbee modules
• Support Bluetooth Bee
• Support 3.3V/5V output
• Support SD module
• Support I2C/TWI

Documents

Schematics

Description: Running out of memory space in your Arduino project? The microSD Shield equips your Arduino with mass-storage capability, so you can use it for data-logging or other related projects. A microSD quickstart guide is available!

Communication with microSD cards is achieved over an SPI interface. The SCK, DI, and DO pins of the microSD socket are broken out to the ATmega168/328's standard SPI pins (digital 11-13), while the CS pin is broken out to Arduino's D8 pin. If you decide to use one of the many open source FAT libraries (like FAT16 or SDFat) make sure to change the code to reflect the location of the CS pin. Most libraries assume the CS pin is connected to D10; this will have to be changed to D8. Also for the libraries to work pin D10 will have to be set as an output in the 'setup()' section of your sketch. The shield also includes a large prototyping area with a 13x12 grid of 0.1" pitch PTHs.

This shield comes populated with a microSD socket, red power indicator LED, and a reset button; but it does not come with headers installed. We recommend the 6 and 8-pin stackable headers.

Documents:

• microSD Quickstart Guide
• Example sketch
• Schematic
• Eagle Files
• FAT16 Library (Unzip this folder in the Arduino Libraries Folder. Once unzipped you can find an example by going to File->Examples->FAT->FAT_Example in Arduino. You must re-open Arduino after unzipping the folder.

Running out of memory space in your Arduino project? The microSD Shield equips your Arduino with mass-storage capability, so you can use it for data-logging or other related projects.

Communication with microSD cards is achieved over an SPI interface. The SCK, DI, and DO pins of the microSD socket are broken out to the ATmega168/328's standard SPI pins (digital 11-13), while the CS pin is broken out to Arduino's D8 pin. If you decide to use one of the many open source FAT libraries (like FAT16 or SDFat) make sure to change the code to reflect the location of the CS pin. Most libraries assume the CS pin is connected to D10; this will have to be changed to D8. Also for the libraries to work pin D10 will have to be set as an output in the 'setup()' section of your sketch. The shield also includes a large prototyping area with a 13x12 grid of 0.1" pitch PTHs.

Note: This product does not come with a microSD card. These cards change in size and price frequently.

Kit Includes:

• 1 x microSD Shield
• 2 x Stackable Headers 6-pin
• 2 x Stackable Headers 8-pin

Documents:

• microSD Quickstart Guide
• Example sketch
• Schematic
• Eagle Files
• FAT16 Library (Unzip this folder in the Arduino Libraries Folder. Once unzipped you can find an example by going to File->Examples->FAT->FAT_Example in Arduino. You must re-open Arduino after unzipping the folder.

Note: The power circuit chip is only rated to drive 0.6 amps. However, we've successfully tested it to over 2A.

Documents:

• Schematic
• Eagle Files
• Datasheet (FDMA1024NZ)
• Datasheet (TPS61200DRCT)
• IDEO Labs Page

Sensors can be soldered to a 2.5mm cable and you can begin plug-and-play prototyping with a wide assortment of our sensors including line sensors, ultrasonic distance sensors, light sensors, photo interrupter, etc. There is also a large programmable button and a space for an i2c header to connect more advanced sensors such as an accelerometer.

The motor driver circuit is based on the L298 H-bridge and can drive up to 2 amps per channel. The board takes its power from the same Vin line as the Arduino board, includes blue and yellow LEDs to indicate active direction, and all driver lines are diode protected from back EMF.

Modkit develops a drag-and-drop graphical programming environment inspired by Scratch for Arduino and Arduino compatible boards, making it easier than ever to program your physical project. The Modkit MotoProto Shield is well suited for general projects, prototyping, and educational robotics.

For a limited time, purchase a Modkit MotoProto Shield and receive a free invite to try Modkit's programming environment before it is released to the public. The shield can also be programmed with the Arduino development environment.

Note: This product is a collaboration with ModKit. A portion of each sales goes back to them for product support and continued development.

Documents:

• Schematic
• Eagle Files
• Example Code
• Datasheet (L298)
• Modkit Software

XBee and XBee-PRO 802.15.4 OEM RF modules are embedded solutions providing wireless end-point connectivity to devices. These modules use the IEEE 802.15.4 networking protocol for fast point-to-multipoint or peer-to-peer networking. They are designed for high-throughput applications requiring low latency and predictable communication timing.

In addition, even when the Displayduino XBee Shield is plugged into the main controller you can still pile on more Displayduino shields right on top of the XBee shield.

Documents:

• Getting Started with Displayduino (video)
• Introduction to MondoMatrix (video)
• Product Page

Note: When using this board in extreme high-demand applications it may be necessary to improve thermal performance with a heat-sink or fan and to solder the wires directly to the board instead of using a screw terminal (in addition to the myriad other complications present in a high-current system) However, when using the board at currents up to 6A the chips will barely become noticeably warm.

Features:

• Voltage max: 16V
• Maximum current rating: 30 A
• Practical Continuous Current: 14 A
• Current sensing available to Arduino analog pin
• MOSFET on-resistance: 19 m (per leg)
• Maximum PWM frequency: 20 kHz
• Thermal Shutdown
• Undervoltage and Overvoltage shutdown

Documents:

• Schematic
• Eagle Files
• Datasheet (VNH2SP30)
• Example Code

If you need a lot of inputs and/or outputs, this is your solution! The Mux (Multiplexer) Shield adds the capacity for up to 48 inputs or outputs on the Arduino and Arduino Mega. Using three Texas Instruments CD74HC4067 Analog Multiplexers, the Mux Shield makes it possible to have 48 analog/digital inputs or digital outputs in many configurations.

The Mux Shield comes with stackable headers installed and ready to plug into your Arduino!

Features:

• 48 analog inputs/digital inputs
• Vcc and Ground header strips (each input/output pin has a dedicated Vcc and Ground)
• Reset button
• PIN 13 LED and Power LED
• Stackable headers (plug directly into Arduino and add more shields on top)
• Arduino Mega compatible
• Requires digital pins 2,3,4,5 and analog pins 0,1,2 – 48 inputs/outputs for the price of 7 pins!

Documents:

• Product Page
• Analog input example code
  
• Digital input example code
  
• Digital output example code
• CD74HC4067 Data Sheet



The Mux Shield II improves on the original by moving all of the I/O pins to the end of the board, thus allowing you to add one big connector and hook up a ribbon wire or similar cable solution. This also gets the pins out of the way so that the Mux Shield can be in the middle of a stack, with a shield on top of it, and you can still get to the I/O pins. The pins are arranged into three rows of sixteen and each row can be individually set as a digital input, a digital output or an analog input from the Arduino sketch! Further increasing the flexibility of the board, Mayhew Labs added solder jumpers to the bottom of the board that allow you to shut off this software control feature and "hard wire" the functionality of each row, freeing up the associated Arduino pins for other shields in the stack.

The Mux Shield uses TI 74HC4067 analog multiplexers (muxs) for input functionality and TI 74HC595 shift registers for output functionality. Don't worry if that's jibberish to you, the included Arduino library wraps it up and makes it very easy-to-use.

The shield comes without any headers so be sure to pick up some stackable shield headers!

Replaces: DEV-09832

The Arduino Nano I/O Shield acts as a breadkout board for the Arduino Nano and DFRduino Nano microcontrollers. There are several different options for power input and the footprint of the DFRduino board is the same as the Arduino Duemilanove. In addition, each pinout includes 5V and GND pins for easy connection to sensors or servos. Unit comes fully assembled.

NOTE:This shield only support Nano 2.0/2.3.  There is small issue with latest v3.0 Nano on IO Shield.  Check out this link.

Specification

• Power supply: +5 V
• Size: 69x54mm

Documents

• Manual

The way this is accomplished is that the unused data pairs of the RJ-45 connector broken out to the 4-pin header in the corner of the shield. The 'V-' pin on that header breaks out the 7 8 pair of RJ-45 pins, and the 'V+' pin breaks out the 4 5 pair. You can use a couple of jumpers to connect those pins to 'GND' and 'VIN' respectively. This will send the PoE through the Arduino, to be regulated to 5 and 3.3V. This works really well with our passive PoE cable set! The shield also includes an SD card slot that can be accessed using the SD library.

Note: This is not 802.3af-compatible PoE, it's more of a home-brew Power-over-Ethernet scheme that we like to call "DIY PoE." You shouldn't apply anything outside the 7-12V range to those pins (The input voltage range of the Arduino board) unless you regulate the power off-board.

Documents:

• Schematic
• Eagle Files
• Arduino Ethernet Library

Most project of Arduino may need more than two voltage supply. When feed with from 4.5-35V, this power shield able to provide a voltage range from 1.25-12V with 3A peak current. Ideal for servo control and other non-standard components. With this shield, your Arduino now have one power supply for all.

It has be build-in voltage measuring function which mapping the output voltage to Arduino analog pin 0. It can be controlled by Arduino digital Pin13 to switch on/off.

Specification

• Supply voltage:4.5-35V
• Output voltage:1.25-12V 
• Output current: 2A (3A peak)
• Efficiency:90%

Documents

• Wiki Doc

The ScrewShield extends all pins of the Arduino out to 3.5mm pitch screw terminals. It also has a lot of the utility provided by Arduino Protoshield, including: a large prototyping space of both connected and unconnected 0.1" spaced through-holes, a couple 5V and GND busses, a reset button, general use push button, and a 5mm yellow LED.

This product includes all the parts shown and comes in kit form and must be soldered together by the end user.

Kit Includes:

• 1x ScrewShield PCB
• 1x 5mm Yellow LED
• 1x 330Ω Resistor
• 2x 6-pin Stackable Headers
• 2x 8-pin Stackable Headers
• 2x Momentary Push Buttons
• 6x 2-pin 3.5mm Screw Terminals
• 8x 3-pin 3.5mm Screw Terminals

Documents:

• Schematic
• Maker Faire Project

SPECIAL OFFER WHILE STOCKS LAST!!

This is a small prototyping shield for the Arduino Pro Mini. If your project requires just a little bit more space for your external circuitry, this might be a perfect addition. 38 unconnected PTHs are provided for your prototyping needs.

The shield fits the small form factor of the Arduino Pro Mini - connecting to the 'top' four pins on each side of the Mini ('GND'-'TXO' & 'VCC'-'RAW'). There are small buses for VCC, GND and RAW. In addition to the power buses, the serial pins are also broken out on the shield. The analog and digital pins are not broken out on the shield.

Features:

• VCC, RAW and GND buses
• Serial (RXI & TXO) pins broken out to small buses
• Works with both 5V and 3.3V Pro Mini versions
• Upholds the Pro Mini's small form factor
• 38 unconnected PTHs for prototyping



Use this board to increase the number of PWM pins available to your microcontroller for applications such as monocolor, multicolor or full-color LED displays, LED signboards, display backlighting, servo control, or any other project where a large number of PWM drivers are necessary.

Note: While each 3-pin PWM header is 0.1" spaced, the space between each header is slightly larger in order to accommodate servo connections. In order to make this board suitable for use with servos, 2.2k pull-up resistors have been included on each output as well. Finally, the 2.2k resistor on the Iref pin sets the output current to 17.8mA but a parallel through-hole connection is provided for an additional resistor to increase the current if necessary. To determine the resistor value you need for a given output check the equations provided on the schematic below.

Documents:

• Schematic
• Eagle Files
• Datasheet (TLC5940)
• Arduino Library
• Arduino Example

Relay Shield es un módulo con 4 relés que ofrecen un camino fácil para aplicaciones de control de baja y alta tensión. La potencia máxima de conmutación podrá ser DC90W o AC360VA. Podrá ser directamente controlado por Arduino a través de IOs digitales con un suministro externo de 9V. haciendo sencillo el uso en robótica, control industrial, domótica, etc.

Documentación
- Datasheet
- Source file
- Demo code

This pamphlet is for the GPS Shield.

Documents:

• Full Resolution PDF

This pamphlet is for the Joystick Shield.

Documents:

• Full Resolution PDF

This pamphlet is for the MicroSD Shield.

Documents:

• Full Resolution PDF

This pamphlet is for the Motor Shield.

Documents:

• Full Resolution PDF

This pamphlet is for the Arduino ProtoShield.

Documents:

• Full Resolution PDF

RFID Module for Arduino puede conectarse a través de la placa XBee y comunicarse usando el puerto serie de Arduino (UART).

Documentacion:
Tutorial RFID module

Echa un vistazo a la Review del Producto por Arduteka & Cooking Hacks.

Visita también el Tutorial RFID de nuestro amigo Jeremy Blum

Descarga aquí la librería Fritzing para incluir en tus diseños electrónicos.

Nota: Si está buscando dispositivos de Redes Sensoriales Inalámbricas (WSN) (motes) podría estar interesado en nuestra plataforma sensorial lista para el mercado: Waspmote. Puedes ver las diferencias entre ambas plataformas en el documento: Waspmote vs SquidBee.

The RFM22 Shield connects the RFM22 module to the appropriate lines on the Arduino. By using the RF22 Library, you can send and receive messages via standard 4-wire SPI. The library includes command structures for setting up anything from simple non-addressed point-to-point communication to fully addressed networks of clients and routers. The shield also provides a through-hole antenna connection for hooking up a basic wire antenna. In our testing, a 17cm wire attached to the 'ANT' pin worked just fine. A hole is drilled next to the 'ANT' pin for strain relief.

The shield has on-board power regulation and level shifting. There are one pin headers and jumpers on the interrupt (nIRQ), interface select (nSEL), shutdown input (SDN) and GPIO2 lines so that you can cut the trace and reroute those lines if you need to for your project. The board also provides a little bit of prototyping space.

Features:

• Frequency Range = Software configurable from ~240MHz to 980MHz
• Sensitivity = -118 dBm
• +17 dBm Max Output Power (Configurable)
• Data Rate = 1 to 128 kbps
• Digital RSSI
• Wake-on-radio
• Configurable packet structure
• Preamble detector
• TX and RX 64 byte FIFOs
• Low battery detector
• Temperature sensor and 8-bit ADC
• -40 to +85 C temperature range

Documents:

• Schematic
• Eagle Files
• RFM22 Library
• Datasheet (RFM22B)
• Product Video

The RFM22 is a low-cost ISM FSK transceiver module which offers communication at 433MHz ISM and adjustable output power of up to +20 dBm. What does that mean for you? It means your Arduino now has an inexpensive way to talk to other Arduinos so building point-to-point and even basic mesh networks just got a lot more attractive.

The RFM22 Shield connects the RFM22 module to the appropriate lines on the Arduino. By using the RF22 Library, you can send and receive messages via standard 4-wire SPI. The library includes command structures for setting up anything from simple non-addressed point-to-point communication to fully addressed networks of clients and routers. The shield also provides a through-hole antenna connection for hooking up a basic wire antenna. In our testing, a 17cm wire attached to the 'ANT' pin worked just fine. A hole is drilled next to the 'ANT' pin for strain relief.