Cylon.js (http://cylonjs.com) is a JavaScript framework for robotics, physical computing, and the Internet of Things (IoT).
This repository contains the Cylon adaptor for the Intel Joule, Intel Edison and Intel Galileo IoT platforms. It uses the Galileo-io node module (https://github.com/rwaldron/galileo-io/) created by @rwaldron thank you!
Want to use Ruby on robots? Check out our sister project Artoo (http://artoo.io)
Want to use the Go programming language to power your robots? Check out our sister project Gobot (http://gobot.io).
To install Cylon.js on your Intel Edison, you must be logged into the board, through ssh or the uart serial connection, and execute the following command:
$ npm install cylon cylon-intel-iot cylon-gpio cylon-i2c
Once cylon-intel-iot
and friends have been installed, you're ready to start programming!
Please note that you should flash your Intel board with the latest firmware before installing Cylon.js.
var Cylon = require('cylon');
Cylon.robot({
connections: {
edison: { adaptor: 'intel-iot' }
},
devices: {
led: { driver: 'led', pin: 13 }
},
work: function(my) {
every((1).second(), my.led.toggle);
}
}).start();
Everything you need to get started with the Edison is in the Intel Getting Started Guide located here. Don't forget to configure your Edison's wifi connection and flash your Edison with the latest firmware image (Yocto 3)!
The Intel Edison has an older Node.js (0.10.x) installed by default. You can easily update it using Node Version Manager (nvm).
The latest Yocto needs to update the version of the tar
file decompression utility before you can install new versions of Node.js using nvm
. You can easily do this as follows. First, add the "unofficial official" package repository:
echo "src/gz all http://repo.opkg.net/edison/repo/all
src/gz edison http://repo.opkg.net/edison/repo/edison
src/gz core2-32 http://repo.opkg.net/edison/repo/core2-32" > /etc/opkg/base-feeds.conf
opkg update
Thanks to http://alextgalileo.altervista.org/edison-package-repo-configuration-instructions.html for the above instructions.
Once you have added the additional package repository, run the following commands:
opkg install tar
touch ~/.profile
You are now ready to install nvm
on your Edison. Follow the nvm installation instructions here.
The Intel Edison Getting Started Guide details connection instructions for Windows, Mac and Linux.
In order to enable Ethernet over USB on your Edison, follow the appropriate guide for your OS
192.168.2.1
255.255.255.0
192.168.2.255
8.8.8.8
Edison
192.168.2.1
/etc/network/interfaces
file, if you do not have this line, you must add it and then restart your computer
iface usb0 inet dhcp
The Edison is now able to use it's wifi connection to reach the internet and your local USB to Ethernet connection for local ssh access and programming. If you have problems reaching the internet, you may need to setup the DNS on your Edison.
Execute the following command on the Edison itself
# cat "nameserver 8.8.8.8 > /etc/resolv.conf"
If you have a valid wifi connection, you should be able to reach out of your network!
If you are using ethernet over USB then you can enable internet sharing on your Edison by executing this command on the Edison itself
/sbin/route add default gw 192.168.2.1
Now you're ready to install MRAA and Cylon.
In order to use cylon-intel-iot
on your Galileo, you need to install the Intel IoT linux boot image onto an sd card.
You can download the latest image here.
For Windows hosts you can follow the instruction for flashing your sd card image here.
For Mac or Linux hosts, it's as easy as extracting the image from the downloaded archive and executing the command
$ sudo dd if=/path/to/iot-devkit-latest-mmcblkp0.direct of=/dev/sdX bs=1M && sudo sync
where /dev/sdX
is the location of your sd card. For help determing the location of your sd card, consult the appropriate guide for your OS below.
To prepare your SD card for flashing on OS X, you need to find out it's drive name and eject the volume.
To find the name, use the built-in diskutil
utility:
$ diskutil list
/dev/disk0
#: TYPE NAME SIZE IDENTIFIER
0: GUID_partition_scheme *500.3 GB disk0
1: EFI EFI 209.7 MB disk0s1
2: Apple_HFS Macintosh HD 499.4 GB disk0s2
3: Apple_Boot Recovery HD 650.0 MB disk0s3
/dev/disk1
#: TYPE NAME SIZE IDENTIFIER
0: FDisk_partition_scheme *15.7 GB disk1
1: Windows_FAT_32 NO NAME 15.7 GB disk1s1
According to this, our SD card is found at /dev/disk1
.
Before you flash it with the above dd
command, use diskutil
to eject the existing volume (disk1s1
):
$ diskutil unmount /dev/disk1s1
To prepare your SD card for flashing on Linux, you need to find the device location of your SD card. An easy way to determin the location is by filtering the /dev/
directory for new storage devices. Before you plug in your SD card, execute the following ls
command
$ ls -l /dev/sd*
brw-rw---- 1 root disk 8, 0 Sep 16 21:48 /dev/sda
brw-rw---- 1 root disk 8, 1 Sep 16 21:48 /dev/sda1
brw-rw---- 1 root disk 8, 2 Sep 16 21:48 /dev/sda2
brw-rw---- 1 root disk 8, 5 Sep 16 21:48 /dev/sda5
You can see that I only have one storage device /dev/sda
. Now plug in your SD card and execute the ls
command again
$ ls -l /dev/sd*
brw-rw---- 1 root disk 8, 0 Sep 16 21:48 /dev/sda
brw-rw---- 1 root disk 8, 1 Sep 16 21:48 /dev/sda1
brw-rw---- 1 root disk 8, 2 Sep 16 21:48 /dev/sda2
brw-rw---- 1 root disk 8, 5 Sep 16 21:48 /dev/sda5
brw-rw---- 1 root disk 8, 16 Sep 17 17:46 /dev/sdb
brw-rw---- 1 root disk 8, 17 Sep 17 17:46 /dev/sdb1
brw-rw---- 1 root disk 8, 18 Sep 17 17:46 /dev/sdb2
You can see from this output that I now have a new storage device /dev/sdb
. That is the location of my SD card, so in this instance the /dev/sdX
in our dd
command will be /dev/sdb
.
After the image has been flashed to your sd card, install the sd card into the Galileo, connect it to your local network and power it up!
Now you're ready to install MRAA and Cylon.
After you have flashed your Intel board and connected it to a network, you must now install the latest version of the Intel MRAA library. In order to update MRAA you simply log into your Intel board, through ssh or the uart serial connection, and follow the steps here.
The Edison includes a bluetooth radio right on the board itself, so it's easy to get started programming bluetooth devices out of the box. First we need to enable bluetooth on the Edison.
# rfkill unblock bluetooth
# bluetoothctl
[bluetooth]# scan on
[bluetooth]# scan off
[bluetooth]# pair [MAC address of Sphero]
[bluetooth]# exit
# rfcomm bind 0 [MAC address of Sphero] 1
/dev/rfcomm0
# npm install cylon cylon-intel-iot cylon-sphero
This example will flash the built in LED whenever the Sphero detects a collision
var Cylon = require('cylon');
Cylon.robot({
connections: {
edison: { adaptor: 'intel-iot'},
sphero: { adaptor: 'sphero', port: '/dev/rfcomm0' }
},
devices: {
led: { driver: 'led', pin: 13, connection: 'edison' },
sphero: { driver: 'sphero', connection: 'sphero' }
},
work: function(my) {
console.log("Setting up Collision Detection...");
my.sphero.stop();
my.sphero.detectCollisions();
my.sphero.on('collision', function() {
console.log("Collision");
my.led.toggle();
});
}
}).start();
We're busy adding documentation to our web site at http://cylonjs.com/ please check there as we continue to work on Cylon.js
Thank you!
For our contribution guidelines, please go to https://github.com/hybridgroup/cylon/blob/master/CONTRIBUTING.md .
For the release history, please go to https://github.com/hybridgroup/cylon-intel-iot/blob/master/RELEASES.md .
Copyright (c) 2013-2016 The Hybrid Group. Licensed under the Apache 2.0 license.