• For mote, WISE-1570, WISE-1500 and WISE-ED22 or WISE-ED20.
• PC running LINUX operating systems such as Ubuntu 16.04.1.

Please refer to the following steps for setup a WISE series of boards before using WISE-1570 SDK.

②WISE-1500

③WISE-ED20

④SW2 on WISE-ED20

• Please check pin1 and pin2 to “ON” as default.
• Switch pin1 to “ON”: flash programming, “OFF”: boot from flash.

⑤CN2 on WISE-1500

• Booting into the mode of network connection when both 3.3V and GPIO0 are opened.
• Booting into the mode of console of API when both 3.3V and GPIO0 are shorted.

⑥SW3 on WISE-1500

• Please check pin1 and pin2 to “OFF” as default.
• Switch pin2 to decide whether running “backup to default” while device booting. “ON”: enabled, “OFF”: disabled.

⑦One reset button on WISE-1500 and the other on WISE-ED20

⑧Micro USB connector

• Power supplies for UART3 debug port.

⑨Com port

• No supported.

Step02: Connect the WISE-ED20 to PC using micro-USB cable.

The device will be visible in the Device Manager as below after FTDI driver installed. The user can find the FTDI driver in source tree.

The ARM mbed is IoT device platform and it has a lot of resources for IoT development. We supported ARM mbed OS on WISE-1570 to make user easily to get started and obtain great benefit from ARM mbed.

The mbed CLI is command-line tool. The user needs to setup CLI for WISE-1570 SDK and please follows the steps to install related tools. For more details, please refer to mbed CLI.
Note: We expected the user setups mbed CLI in Linux as default. If the user preferred Windows, ARM mbed provides the Video tutorial for manual installation.

• Install Python

mbed CLI supports Windows, Linux and Mac OS X operating systems. You can select the OS you prefer to work with. mbed CLI is a Python script, so you’ll need Python to use it. The version 2.7.11 of Python has been verified with mbed CLI.

Note: mbed CLI is incompatible with Python 3.

 
Install python 2.7.11 
$ sudo wget https://www.python.org/ftp/python/2.7.11/Python-2.7.11.tgz
$ tar zxvf Python-2.7.11.tgz
$ cd Python-2.7.11
$ sudo ./configure 
$ sudo make altinstall

Check the python version
$ python --version

• (Optional) Install Git or Mercurial

If you would like to maintain your source code in repositories, you can continue with the next step. mbed CLI supports both Git and Mercurial repositories, you can install which one you prefer:

Git - version 1.9.5 or later.

Mercurial - version 2.2.2 or later.

If you don’t want to use repositories, you can just skip it.

Git install commands as follow

Install Git latest
$ sudo add-apt-repository ppa:git-core/ppa
$ sudo apt-get update
$ sudo apt-get install git

Check the git version
$ git --version

Mercurial install commands as follow

Install mercurial latest
$ sudo add-apt-repository ppa:mercurial-ppa/releases
$ sudo apt-get update
$ sudo apt-get install mercurial

Check the mercurial version
$ hg --version

• Install GCC

mbed CLI invokes the mbed OS 5 tools for various features, such as compiling, testing and exporting to industry standard toolchains. To compile your code, you will need either a compiler or an IDE:

 Compilers: GCC ARM, ARM Compiler 5, IAR.

 IDE: Keil uVision, DS-5, IAR Workbench.

We select GCC ARM Embedded, so you can install version 4.9 of GCC ARM Embedded.

Install GCC ARM Embedded
$ sudo add-apt-repository ppa:team-gcc-arm-embedded/ppa
$ sudo apt-get update
$ sudo apt-get install gcc-arm-embedded

Check the Gcc version
$ arm-none-eabi-gcc --version

Note: When installing the Arm Compiler 5 on a 64-bit Linux machine, you may need to also install the i386 architecture package:

 
$ sudo dpkg --add-architecture i386
$ sudo apt-get update
$ sudo apt-get install libc6:i386 libncurses5:i386 libstdc++6:i386 

• Install mbed CLI

You can get the latest stable version of mbed CLI from PyPI

 
$ pip2 install mbed-cli 

Note: On Linux or Mac, you may need to run with sudo.

• Other necessary package

$ sudo pip2 install colorama
$ sudo pip2 install pyserial
$ sudo pip2 install prettytable
$ sudo pip2 install jinja2
$ sudo pip2 install intelhex
$ sudo pip2 install junit_xml
$ sudo pip2 install mbed_ls
$ sudo pip2 install beautifulsoup4 
$ sudo pip2 install fuzzywuzzy
$ sudo pip2 install mbed_host_tests
$ sudo pip2 install mbed_greentea

• GCC_ARM_PATH

Set GCC_ARM_PATH to the binary directory of your GCC Arm installation

$ mbed config -G GCC_ARM_PATH "/home/erick/gcc-arm-none-eabi-4_9-2015q3/bin"
[mbed] /home/erick/gcc-arm-none-eabi-4_9-2015q3/bin now set as global GCC_ARM_PATH

Please refer to WISE-ED22 for flash programming.

• Serial API
• I2C API
• SPI API
• PWM API
• ADC API
• DIO API
  • DigitalIn
  • DigitalOut
  • DigitalInOut
• RTC API

• MQTT-SN API

The user can use this example to communicate with RF by specified AT command. Please follow the below steps to give it a try. About AT command manual if needed, please get in touch your contact person from ADVANTECH.

Step01: Get source code and compile it by mbed CLI.

Please click "Link to source" and review the file "README.md" to know how to deployment and compilation with this example. The output binary will be "source_dir/BUILD/WISE_1570/GCC_ARM/WISE-1570-Rf-Bridge.bin"

Step02: Flash programming by WISE-ED22

Check device connected from WISE-ED22 to PC using micro-USB cable and use drag-and-drop programming with your binary.

Step03: Get the version of RF by AT command "AT+CGMR"

• Choose any terminal you like. (e.g., the snapshot is setting of Tera Term.)
• Please set terminal as the below setting:

Baud rate: 9600

Data: 8bit

Parity: None

Stop: 1bit

Flow control: None

• Type AT command "AT+CGMR" and see the response on the console.

This example use I2C bus to read humidity and temperature sensor which is built-in WISE-1500

#include "mbed.h"

#define TI_HDC1050_DEVICE_ADDR            0X40
#define TI_HDC1050_TEMPERATURE_ADDR       0X00
#define TI_HDC1050_HUMIDITY_ADDR          0X01
#define TI_HDC1050_CONFIGURATION_ADDR     0x02
#define TI_HDC1050_SERIALID0_ADDR         0XFB
#define TI_HDC1050_SERIALID1_ADDR         0XFC
#define TI_HDC1050_MANUFACTURER_ID_ADDR   0xFE
#define TI_HDC1050_DEVICE_ID_ADDR         0XFF
#define TI_HDC1050_MANUFACTURER_ID        0x5449
#define TI_HDC1050_DEVICE_ID              0x1050

static I2C i2c0(I2C0_SDA,I2C0_SCL);
static DigitalOut g_tPower(CB_PWR_ON);

int main(int argc, char* argv[])
{   
    char rxBuff[4];
    char ofs = TI_HDC1050_TEMPERATURE_ADDR;
    uint16_t u16Humidity = 0;
    float fTemperature = 0;
    I2C *i2c = &i2c0;
    g_tPower = 1;

    //
    // Set clock frequency of I2C interface is 100KHz
    //
    i2c->frequency(100000);

    //
    // Access sensor by read/write transaction through I2C interface
    //
    for(int i=0; i<10; i++) {
        i2c->write(TI_HDC1050_DEVICE_ADDR << 1, &ofs, 1);
        wait_ms(100);
        i2c->read(TI_HDC1050_DEVICE_ADDR << 1, rxBuff, 4);

        fTemperature = (float)(( rxBuff[0] << 8) | (rxBuff[1] ));
        fTemperature = (fTemperature*165)/65536-40;
        u16Humidity = (rxBuff[2] << 8) | (rxBuff[3] );
        u16Humidity = (u16Humidity*100)/65536;
        printf("temperature:%.2f, humidity:%d \n\r", fTemperature, u16Humidity);
        wait(1);
    }
    return 0;
}