Simple demo example of X-NUCLEO-IPS02A1 24V Intelligent Power Switch Library usage.
Dependencies: X_NUCLEO_IPS02A1 mbed
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HelloWorld_IPS02A1, demo example for IPS02A1 expansion board
Introduction
This example application provides a basic code to show how to use the X-NUCLEO-IPS02A1 Intelligent Power Switch Expansion Board. The example performs current measurements on output Channel 1 (Ch1) and Channel 2 (Ch2), continuously, in the following conditions:
- 1) Ch1 OFF, Ch2 OFF
- 2) Ch1 ON, Ch2 OFF
- 3) Ch1 OFF, Ch2 ON
- 4) Ch1 ON, Ch2 ON
for each configuration the Current for each channel is displayed over an opened console (use Hyperterminal or whatever, set 9600 as bauds, 8-bit data, no parity)
Demo Code
The basic operation done by the demo code, which can be used in the customer application are :
1) In order to use get the singleton instance of the X_NUCLEO_IPS02A1 by calling class method `Instance()`:
// IPS expansion board singleton instance static X_NUCLEO_IPS02A1 *ips_expansion_board = X_NUCLEO_IPS02A1::Instance();
2) Switch-on or Switch-off loads output (Channel 1 or Channel 2) by setting or clearing associated digital input :
ips_expansion_board.vps2535h.In_1 = 1; // switch-on Channel 1 ips_expansion_board.vps2535h.In_2 = 0; // switch-off Channel 2
3) Read Current circulating on Channel 1 or Channel 2 and print on the Terminal
Multisense_Signal= ips_expansion_board.GetCurrent(CHANNEL_1); printf("Current Ch1 = %2.3fA \n\r", Multisense_Signal); Multisense_Signal= ips_expansion_board.GetCurrent(CHANNEL_2); printf("Current Ch2 = %2.3fA \n\r", Multisense_Signal);
main.cpp
- Committer:
- Davidroid
- Date:
- 2017-07-13
- Revision:
- 10:4bf9e0e0dd69
- Parent:
- 9:60a0bf4a5681
File content as of revision 10:4bf9e0e0dd69:
/** ****************************************************************************** * @file main.cpp * @author ADG * @version V1.0.1 * @date 01-July-2016 * @brief Example application for using the X_NUCLEO_IPS02A1 * Intelligent Power Switch Nucleo expansion board. ****************************************************************************** * @attention * * <h2><center>© COPYRIGHT(c) 2016 STMicroelectronics</center></h2> * * Redistribution and use in source and binary forms, with or without modification, * are permitted provided that the following conditions are met: * 1. Redistributions of source code must retain the above copyright notice, * this list of conditions and the following disclaimer. * 2. Redistributions in binary form must reproduce the above copyright notice, * this list of conditions and the following disclaimer in the documentation * and/or other materials provided with the distribution. * 3. Neither the name of STMicroelectronics nor the names of its contributors * may be used to endorse or promote products derived from this software * without specific prior written permission. * * THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS "AS IS" * AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE * IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE * DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT HOLDER OR CONTRIBUTORS BE LIABLE * FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL * DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR * SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER * CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, * OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE * OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. * ****************************************************************************** */ /** * @mainpage X_NUCLEO_IPS02A1 Intelligent Power Switch Nucleo Expansion Board Firmware Package * * <b>Introduction</b> * * This firmware package includes Components Device Drivers, Board Support Package * and example application for STMicroelectronics X_NUCLEO_IPS02A1 Intelligent Power Switch * Nucleo Expansion Board * * <b>Example Application</b> * */ /*** Includes ----------------------------------------------------------------- ***/ #include "mbed.h" #include "assert.h" #include "XNucleoIPS02A1.h" /*** Static variables --------------------------------------------------------- ***/ #ifdef DBG_MCU #include "DbgMCU.h" static DbgMCU enable_dbg; #endif // DBG_MCU /* HW settings */ /* Pay attention before changing HW settings, they must be coherent with you HW design */ /* Power Switch Connection to Arduino connectors */ #define IPS02A1_PIN_IN_1 (D5) #define IPS02A1_PIN_IN_2 (D6) #define IPS02A1_PIN_FR_STBY (D4) #define IPS02A1_PIN_CURRENTSENSE1 (A2) #define IPS02A1_PIN_CURRENTSENSE2 (A3) /* V-Ref */ #define V_REF 3.3 /* Rsense Value */ #define R_SENSE 1e3 /* R_D1 */ #define R_D1 56e3 /* R_D2 */ #define R_D2 36e3 /*** Variables ----------------------------------------------------------------- ***/ static XNucleoIPS02A1 &ips_expansion_board = XNucleoIPS02A1::instance(IPS02A1_PIN_IN_1, IPS02A1_PIN_IN_2, IPS02A1_PIN_FR_STBY, IPS02A1_PIN_CURRENTSENSE1, IPS02A1_PIN_CURRENTSENSE2, V_REF, R_SENSE, R_D1, R_D2); static Ticker ticker; DigitalOut user_led(LED1); float multisense_signal = 0; // Multisense pin - signal level bool button_pressed = 0; // User Button int test_sequence = 1; // Test sequence counter //------------------------------------ // Hyperterminal configuration // 9600 bauds, 8-bit data, no parity //------------------------------------ InterruptIn user_button(USER_BUTTON); // B1 is the User Button void b1_pressed (void); void led_blink (int test_sequence); void write_serial (void); void reset_pins (void); /*** Functions ----------------------------------------------------------------- ***/ /** * Main function. */ int main(void) { user_button.fall(&b1_pressed); //Interrupt User Button printf("############################################################ \n\r"); printf("################### TEST PROCEDURE ######################## \n\r"); printf("############################################################ \n\n\r"); printf("This demo performs current measurements on Ch1 and Ch2 \n\r"); printf("in the following conditions: \n\r\n\r"); printf(" 1) Ch1 OFF, Ch2 OFF \n\r"); printf(" 2) Ch1 ON, Ch2 OFF \n\r"); printf(" 3) Ch1 OFF, Ch2 ON \n\r"); printf(" 4) Ch1 ON, Ch2 ON \n\r\n\r"); printf("Start test Procedure.... \n\r\n\r"); printf("PRESS USER BUTTON (Blue One) on NUCLEO to perform single test \n\r\n\r\n\r"); while (true) { // Wait for User button pressed. while (!button_pressed) {} button_pressed = 0; led_blink(test_sequence); switch (test_sequence) { case (1): printf("############################################################ \n\r"); printf("################### TEST PROCEDURE ######################## \n\r"); printf("############################################################ \n\n\r"); printf("This demo performs current measurements on Ch1 and Ch2 \n\r"); printf("in the following conditions: \n\r\n\r"); printf(" 1) Ch1 OFF, Ch2 OFF \n\r"); printf(" 2) Ch1 ON, Ch2 OFF \n\r"); printf(" 3) Ch1 OFF, Ch2 ON \n\r"); printf(" 4) Ch1 ON, Ch2 ON \n\r\n\r"); printf("\n\r\n\r"); break; case (2): { printf("Test 1: StandBy\n\r"); reset_pins(); wait (0.1); write_serial(); multisense_signal = ips_expansion_board.get_current(CHANNEL_1); printf("Current Ch1 = %2.3fA \n\r", multisense_signal); multisense_signal = ips_expansion_board.get_current(CHANNEL_2); printf("Current Ch2 = %2.3fA \n\r", multisense_signal); printf("\n\r\n\r"); } break; case(3):{ printf("Test 2: Ch1=ON, CH2=OFF\n\r"); ips_expansion_board.vps2535h.In_1 = 1; ips_expansion_board.vps2535h.In_2 = 0; ips_expansion_board.vps2535h.Fr_Stby = 1; wait (0.1); write_serial(); multisense_signal = ips_expansion_board.get_current(CHANNEL_1); printf("Current Ch1 = %2.3fA \n\r", multisense_signal); multisense_signal = ips_expansion_board.get_current(CHANNEL_2); printf("Current Ch2 = %2.3fA \n\r", multisense_signal); wait (0.5); reset_pins(); printf("\n\r\n\r"); } break; case(4):{ printf("Test 3: Ch1=OFF, CH2=ON\n\r"); ips_expansion_board.vps2535h.In_1 = 0; ips_expansion_board.vps2535h.In_2 = 1; ips_expansion_board.vps2535h.Fr_Stby = 1; wait (0.1); write_serial(); multisense_signal = ips_expansion_board.get_current(CHANNEL_1); printf("Current Ch1 = %2.3fA \n\r", multisense_signal); multisense_signal = ips_expansion_board.get_current(CHANNEL_2); printf("Current Ch2 = %2.3fA \n\r", multisense_signal); wait (.5); reset_pins(); printf("\n\r\n\r"); } break; case(5):{ printf("Test 4: Ch1=ON, CH2=ON \n\r"); ips_expansion_board.vps2535h.In_1= 1; ips_expansion_board.vps2535h.In_2 = 1; ips_expansion_board.vps2535h.Fr_Stby = 1; wait (0.1); write_serial(); multisense_signal = ips_expansion_board.get_current(CHANNEL_1); printf("Current Ch1 = %2.3fA \n\r", multisense_signal); multisense_signal = ips_expansion_board.get_current(CHANNEL_2); printf("Current Ch2 = %2.3fA \n\r", multisense_signal); wait (.5); reset_pins(); printf("\n\r\n\r"); } break; default: { printf("End of Test Cycle. Press the user button to continue...\n\n\n\r"); test_sequence = 0; reset_pins(); } break; } } } /** * Interrupt procedure, user button is pressed. */ void b1_pressed() { test_sequence ++; user_led = 1; // LED is ON wait(0.05); // 50 ms user_led = 0; // LED is OFF button_pressed = 1; } /** * Feedback by using User LED. */ void led_blink(int test_sequence) { for (int test = 0; test < test_sequence; test++) { user_led = 1; // LED is ON wait(0.05); // 50 ms user_led = 0; // LED is OFF wait(0.05); // 50 msec } wait(1- (test_sequence * 2 * 0.05)); } /** * Send messages and data to the serial port. */ void write_serial() { printf("Input 1= %d\t", ips_expansion_board.vps2535h.In_1.read()); printf("Input 2= %d\t", ips_expansion_board.vps2535h.In_2.read()); printf("Fr_Stby= %d\t\n\r", ips_expansion_board.vps2535h.Fr_Stby.read()); } /** * Reset input pins. */ void reset_pins() { ips_expansion_board.vps2535h.In_1= 0; ips_expansion_board.vps2535h.In_2 = 0; ips_expansion_board.vps2535h.Fr_Stby = 0; }