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Copy file name to clipboardExpand all lines: content/hardware/01.mkr/01.boards/mkr-1000-wifi/tutorials/wifi-101-library-examples/wifi-101-library-examples.md
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The 19.6.1 firmware is only available for model B of the WINC1500, this is used in the MKR1000 board. Unfortunately, the WiFi101 shield uses model A, which Atmel has stopped supporting, so there is no 19.6.1 firmware release for it, 19.4.4 will be the latest firmware version that is compatible.
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To simplify the process, we have prepared a specific sketch - this *FirmwareUpdater* - that you must load on the host board (either the one with the shield plugged in, or the MKR1000 itself) and an easy to use plug-in available in Arduino Software (IDE) 1.6.10 onwards.
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To simplify the process, we have prepared a specific sketch - this **FirmwareUpdater** - that you must load on the host board (either the one with the shield plugged in, or the MKR1000 itself) and an easy to use plug-in available in Arduino Software (IDE) 1.6.10 onwards.
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The `FirmwareUpdater.ino` sketch is available in **Examples > WiFi101**
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Choose in the dropdown list the model corresponding to your unit and proceed clicking on the *Update Firmware button*. A bar at the bottom will show you the progress of the procedure that includes erasing, writing and verifying of the firmware. At the end you get a clear notice of the successful operation.
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Choose in the dropdown list the model corresponding to your unit and proceed clicking on the **Update Firmware button**. A bar at the bottom will show you the progress of the procedure that includes erasing, writing and verifying of the firmware. At the end you get a clear notice of the successful operation.
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With the same procedure, you may load root certificates on the WiFi module to access securely specific websites. Your board must be running the **FirmwareUpdater** sketch to work .The root certificates are issued by a limited number of certification authorities, but it is difficult to know which site is using which authority. To ease your life, we allow you to specify directly the URL to which you need to connect securely, leaving to us the task to download the root certificate.
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The list you are building is not saved from one session to the next one. It might happen that a few websites share the same root certificate. You don't have to worry about this as we take care of it. The space available on your WiFi module to store the certificates is limited to around 10 certificates that, being issued by a limited number of authorities, should be more than enough for the average projects.
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The procedure starts connecting your board (either the one with the shield plugged in, or the MKR1000 itself) to your computer and selecting it from the Tools menu of the Arduino Software (IDE). Load the FirmwareUpdater on the board and launch the *WiFi 101 Firmware Updater* from Tools and go to the third section of the interface.
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The procedure starts connecting your board (either the one with the shield plugged in, or the MKR1000 itself) to your computer and selecting it from the Tools menu of the Arduino Software (IDE). Load the FirmwareUpdater on the board and launch the **WiFi 101 Firmware Updater** from Tools and go to the third section of the interface.
Copy file name to clipboardExpand all lines: content/hardware/01.mkr/01.boards/mkr-nb-1500/tutorials/securely-connecting-an-arduino-nb-1500-to-azure-iot-hub/securely-connecting-an-arduino-nb-1500-to-azure-iot-hub.md
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You can now enter a message body to send to the device, in the screenshot below "*Hello there :)*" was entered. Click the "Send Message" button in the toolbar to send the message.
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You can now enter a message body to send to the device, in the screenshot below "**Hello there :)**" was entered. Click the "Send Message" button in the toolbar to send the message.
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Copy file name to clipboardExpand all lines: content/hardware/01.mkr/01.boards/mkr-vidor-4000/tutorials/VidorQrRecognition/VidorQrRecognition.md
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`#include "VidorGraphics.h"`
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`#include "VidorCamera.h"`
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You have a number of functions available to manage the recognition of a QR Code. VidorQR is part of the VidorCam library; the functions are accessible with *cam.qrrec*.
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You have a number of functions available to manage the recognition of a QR Code. VidorQR is part of the VidorCam library; the functions are accessible with **cam.qrrec**.
Copy file name to clipboardExpand all lines: content/hardware/01.mkr/01.boards/mkr-wifi-1010/tutorials/atmel-ice/using-an-atmel-ice-with-the-ide-v2.md
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## Using the Debugger Tool
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Now that we have our hardware set up, we can learn how to use the IDE 2.0 Debugger Tool main functionalities through the [_Debugging with the Arduino IDE 2.0 tutorial_](https://docs.arduino.cc/software/ide-v2/tutorials/ide-v2-debugger). This tutorial goes through some key features of the Debugger Tool, and includes pointers to get started.
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Now that we have our hardware set up, we can learn how to use the IDE 2.0 Debugger Tool main functionalities through the [**Debugging with the Arduino IDE 2.0 tutorial**](https://docs.arduino.cc/software/ide-v2/tutorials/ide-v2-debugger). This tutorial goes through some key features of the Debugger Tool, and includes pointers to get started.
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As explained in the [_Debugging with the Arduino IDE 2.0 tutorial_](https://docs.arduino.cc/software/ide-v2/tutorials/ide-v2-debugger), before we can use the Debugger Tool of the Arduino IDE 2.0, we need to upload a sketch to our MKR WiFi 1010 board, making sure it is optimized for debugging. Let's try a simple program that blinks the onboard LED of our MKR WiFi 1010 board and changes the value of several variables while running.
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As explained in the [**Debugging with the Arduino IDE 2.0 tutorial**](https://docs.arduino.cc/software/ide-v2/tutorials/ide-v2-debugger), before we can use the Debugger Tool of the Arduino IDE 2.0, we need to upload a sketch to our MKR WiFi 1010 board, making sure it is optimized for debugging. Let's try a simple program that blinks the onboard LED of our MKR WiFi 1010 board and changes the value of several variables while running.
Copy file name to clipboardExpand all lines: content/hardware/01.mkr/01.boards/mkr-wifi-1010/tutorials/securely-connecting-an-arduino-mkr-wifi-1010-to-aws-iot-core/securely-connecting-an-arduino-mkr-wifi-1010-to-aws-iot-core.md
[AWS IoT Core](https://aws.amazon.com/iot-core/) is a managed cloud service that lets connected devices easily and securely interact with cloud applications and other devices. AWS IoT Core can support billions of devices and trillions of messages, and can process and route those messages to AWS endpoints and to other devices reliably and securely.
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Devices can connect to AWS IoT Core using the following protocols: HTTP, WebSockets and MQTT. This tutorial will walk you through how to connect an [Arduino MKR WiFi 1010](https://store.arduino.cc/usa/arduino-mkr-wifi-1010) (or MKR1000) board securely to AWS IoT Core using the MQTT protocol. [MQTT](http://mqtt.org/) (*Message Queuing Telemetry Transport*) is an extremely lightweight M2M (machine-to-machine) connectivity protocol which provides a messaging subscription and publish transport.
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Devices can connect to AWS IoT Core using the following protocols: HTTP, WebSockets and MQTT. This tutorial will walk you through how to connect an [Arduino MKR WiFi 1010](https://store.arduino.cc/usa/arduino-mkr-wifi-1010) (or MKR1000) board securely to AWS IoT Core using the MQTT protocol. [MQTT](http://mqtt.org/) (**Message Queuing Telemetry Transport**) is an extremely lightweight M2M (machine-to-machine) connectivity protocol which provides a messaging subscription and publish transport.
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When connecting to AWS IoT Core using MQTT, devices are required to use X.509 certificates with TLS for authentication, as AWS IoT Core does not support authentication via username and password like many other MQTT broker services provide support for. More information on X.509 certificate support on AWS IoT can be found [here](https://docs.aws.amazon.com/iot/latest/developerguide/x509-certs.html).
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13) Click "Create a policy." We'll be creating a very open policy for testing, **later on we suggest you create a stricter policy**. We'll call this policy "AllowEverything," fill in "iot:*" for the Action and "*" for the Resource ARN, then check the "Allow" box, then click "Create."
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13) Click "Create a policy." We'll be creating a very open policy for testing, **later on we suggest you create a stricter policy***. We'll call this policy "AllowEverything," fill in "iot:\*" for the Action and "\*" for the Resource ARN, then check the "Allow" box, then click "Create."
Copy file name to clipboardExpand all lines: content/hardware/01.mkr/03.carriers/mkr-iot-carrier/tutorials/mkr-iot-carrier-01-technical-reference/mkr-iot-carrier-01-technical-reference.md
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The **HTS221 Humidity Sensor** is mounted on the top side of the carrier under the display, marked with a drop icon. The sensor uses capacitive sensing with a **humidity sensing range** of _0-100%_ and **accuracy** of _± 3.5% rH (20 to +80% rH)_, and a **temperature sensing range** of _-40 to 120° C_, with an **accuracy** of _± 0.5 °C,15 to +40 °C_. The sensor uses a low power consumption (2μA at 1 Hz sampling rate) and connects to the mounted Arduino MKR board through a I2C interface.
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The **HTS221 Humidity Sensor** is mounted on the top side of the carrier under the display, marked with a drop icon. The sensor uses capacitive sensing with a **humidity sensing range** of **0-100%** and **accuracy** of **± 3.5% rH (20 to +80% rH)**, and a **temperature sensing range** of **-40 to 120° C**, with an **accuracy** of **± 0.5 °C,15 to +40 °C**. The sensor uses a low power consumption (2μA at 1 Hz sampling rate) and connects to the mounted Arduino MKR board through a I2C interface.
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### Code
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The **LPS22HBTR Pressure Sensor** is mounted on the top side of the carrier under the display, marked with a meter icon. The sensor measures **absolute pressure range** of _260 to 1260 hPa (0.25 to 1.24 atm)_ and connects to the mounted Arduino MKR board through a I2C interface.
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The **LPS22HBTR Pressure Sensor** is mounted on the top side of the carrier under the display, marked with a meter icon. The sensor measures **absolute pressure range** of **260 to 1260 hPa (0.25 to 1.24 atm)** and connects to the mounted Arduino MKR board through a I2C interface.
Create a function to deal with *digital* commands. Accept the client as the argument. Create some local variables to hold the pin and value of the command.
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Create a function to deal with **digital** commands. Accept the client as the argument. Create some local variables to hold the pin and value of the command.
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```arduino
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void digitalCommand(YunClient client) {
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By wrapping the value to the client in `F()`, you'll be printing form the flash memory. This helps conserve space in SRAM, which is useful when dealing with long strings like URLs.
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The key will be the pin, and type. For example *D2* will be saved for for digital pin 2. The value will be whatever value the pin is currently set to, or was read from the pin.
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The key will be the pin, and type. For example **D2** will be saved for for digital pin 2. The value will be whatever value the pin is currently set to, or was read from the pin.
Copy file name to clipboardExpand all lines: content/hardware/02.hero/boards/yun-rev2/tutorials/LinuxCLI/LinuxCLI.md
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SSH is shorthand for Secure Shell, a terminal protocol for securely connecting between two computers. You'll use SSH to connect between your computer and the Yún.
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To connect via SSH, you need the IP address of the Yún, the administrator password, and you'll need to have the Arduino and the computer you're using on the same network. To find the Yun's IP address, make sure you're on the same wireless network, and open the Arduino software. Check the *Ports* list, the Yún should be listed with its address.
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To connect via SSH, you need the IP address of the Yún, the administrator password, and you'll need to have the Arduino and the computer you're using on the same network. To find the Yun's IP address, make sure you're on the same wireless network, and open the Arduino software. Check the **Ports** list, the Yún should be listed with its address.
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To connect to your Yún via SSH, open your terminal application, type the following, substituting the IP address for that of your Yún :
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