APS Lab
/
mbed-os-example-adxl362
adxl362 csv output format
Revision 0:813b34a76f24, committed 2019-05-16
- Comitter:
- APS_Lab
- Date:
- Thu May 16 07:02:24 2019 +0000
- Commit message:
- adxl362
Changed in this revision
--- /dev/null Thu Jan 01 00:00:00 1970 +0000 +++ b/.gitignore Thu May 16 07:02:24 2019 +0000 @@ -0,0 +1,4 @@ +.build +.mbed +projectfiles +*.py*
--- /dev/null Thu Jan 01 00:00:00 1970 +0000 +++ b/ADXL362.cpp Thu May 16 07:02:24 2019 +0000 @@ -0,0 +1,380 @@ +#include "ADXL362.h" + +#define WAIT_US(value) (0.000001 * ((float)value)) + +#define REGADDR_WRITE (0x80) +#define REGADDR_WR_L (0x00) +#define REGADDR_WR_H (0x01) + +#define GET_VAL_L(value) ((value >> 0) & 0xFF) +#define GET_VAL_H(value) ((value >> 8) & 0xFF) + +// define for EV-COG-AD3029LZ +#define SPI_CS SPI1_CS3 + +/** ========================================== + * Public ( initializing ) + * ========================================== */ +ADXL362::ADXL362(Serial *setUart, SPI* spi1) { + int check; + + uart = setUart; + _spi = spi1; + _cs = new DigitalOut(SPI_CS); + + _spi->format(8,3); + _spi->frequency(1000000); + + chipSelOff(); + + /* start */ + check = regRD(DEVID_AD); + if (check != DEVID_AD_ADXL362) { + return; + } + check = regRD(DEVID_MST); + if (check != DEVID_MST_ADXL362) { + return; + } + check = regRD(PARTID); + if (check != PARTID_ADXL362) { + return; + } + + /* init MIN/MAX store */ + initMinMax(&minStore, &maxStore); + /* set convert parameter */ + SoftReset(); + + scaleAccel = PARAM_ADXL362_SCALE_ACCEL; + scaleThermal = PARAM_ADXL362_SCALE_THERMAL; + offsetThermal = PARAM_ADXL362_THERMAL_OFFSET; + + //SetMesureParam(POWER_CTL_PARAM_LOWNOISE_ULTRA); + //StartMesure(); +} + +ADXL362::~ADXL362() { + delete this->_cs; +} + + +/** ========================================== + * Private ( Control Pins ) + * ========================================== */ +/* Assert CHIP_SEL = enable */ +void ADXL362::chipSelOn() { + chipSelDelay(); + *_cs = 0; +} + +/* Assert CHIP_SEL = disable */ +void ADXL362::chipSelOff() { + *_cs = 1; +} + +/* delay for CHIP_SEL */ +void ADXL362::chipSelDelay() { + wait(WAIT_US(0.2)); +} +/** ========================================== + * Public ( ADXL Configuration ) + * ========================================== */ +void ADXL362::set_gravity(int g) +{ + int value; + unsigned char g_reg; + + switch(g) + { + case GRAVITY_2G: + ADXL362::gravity = GRAVITY_2G; + g_reg = 0x00; + break; + case GRAVITY_4G: + ADXL362::gravity = GRAVITY_4G; + g_reg = 0x40; + break; + case GRAVITY_8G: + ADXL362::gravity = GRAVITY_8G; + g_reg = 0x80; + break; + default: + ADXL362::gravity = GRAVITY_2G; + g_reg = 0x00; + break; + } + value = regRD(FILTER_CTL); + value &= 0x3f; + value |= g_reg; + regWR(FILTER_CTL, value); + set_scalefactor(); +} + +void ADXL362::set_ODR(int o) +{ + int value; + unsigned char o_reg; + + switch(o) + { + case ODR_12: + odr = ODR_12; + o_reg = 0x00; + break; + case ODR_25: + odr = ODR_25; + o_reg = 0x01; + break; + case ODR_50: + odr = ODR_50; + o_reg = 0x02; + break; + case ODR_100: + odr = ODR_100; + o_reg = 0x03; + break; + case ODR_200: + odr = ODR_200; + o_reg = 0x04; + break; + case ODR_400: + odr = ODR_400; + o_reg = 0x07; + break; + default: + odr = ODR_100; + o_reg = 0x03; + break; + } + value = regRD(FILTER_CTL); + value &= 0xf8; + value |= o_reg; + regWR(FILTER_CTL, value); +} + +void ADXL362::set_powermode(int m) +{ + ADXL362::SetMesureParam(m); +} + +void ADXL362::set_wakeupmode(void) +{ + regWR(THRESH_ACT_L, 0x50); + regWR(THRESH_ACT_H, 0x00); + regWR(TIME_ACT, 0x00); + regWR(THRESH_INACT_L, 0xff); + regWR(THRESH_INACT_H, 0x07); + regWR(TIME_INACT_L, 0x06); + regWR(TIME_INACT_H, 0x00); + regWR(ACT_INACT_CTL, 0x1F); + regWR(INTMAP1, 0xC0); + regWR(POWER_CTL, 0x0E); +} + +void ADXL362::set_scalefactor(void) +{ + float base, sf; + + base = (ADXL362::gravity / 2.0f); + sf = base*(0.001f)*9.80665f; + scaleAccel = sf; +} + +void ADXL362::start(void) +{ + int value; + value = regRD(POWER_CTL); + value &= 0xfc; + value |= POWER_CTL_MESURE; + regWR(POWER_CTL, value); + wait_ms(5); + GetStatus(); +} + +void ADXL362::stop(void) +{ + int value; + value = regRD(POWER_CTL); + value &= 0xfc; + value |= POWER_CTL_STOP; + regWR(POWER_CTL, value); + wait_ms(5); + GetStatus(); +} + +/** ========================================== + * Public ( Send Command to Device ) + * ========================================== */ +/* Write 16bit-Aligned Register */ +void ADXL362::SoftReset() { + regWR(SOFT_RESET, SOFT_RESET_ADXL362); + wait(0.5); +} + +void ADXL362::SetMesureParam(int param) { + int value; + value = regRD(POWER_CTL); + param &= ~(POWER_CTL_MODEMASK); + value &= POWER_CTL_MODEMASK; + value |= param; + regWR(POWER_CTL, value); +} + +void ADXL362::StartMesure() { + int value; + GetStatus(); + value = regRD(POWER_CTL); + value &= ~(POWER_CTL_MODEMASK); + value |= POWER_CTL_MESURE; + regWR(POWER_CTL, POWER_CTL_MESURE); + value = regRD(POWER_CTL); + wait_ms(5); + GetStatus(); +} + +int ADXL362::GetStatus() { + int value; + value = regRD(STATUS); + return value; +} + +/** ========================================== + * Public ( Sensing ) + * ========================================== */ +void ADXL362::SensorRead(AccelTemp *pAT) { + int burstBuf[8]; + /* Xx2 + Yx2 + Zx2 + Tempx2 = 8*/ + regBurstRD(XDATA_L, 8, burstBuf); + convertSensorData(pAT, burstBuf); +#if 0 + uart->printf("ADXL362[ax] = 0x%02x\n", pAT->ax); + uart->printf("ADXL362[ay] = 0x%02x\n", pAT->ay); + uart->printf("ADXL362[az] = 0x%02x\n", pAT->az); + uart->printf("ADXL362[tm] = 0x%02x\n", pAT->tm) +#endif + updateMinMax(&minStore, &maxStore, pAT); +} + +/** ========================================== + * Public ( Sub Infomation ) + * ========================================== */ +/* Get Internal Store (for Min Info) */ +AccelTemp* ADXL362::GetMinInfo(void) { + return &minStore; +} + +/* Get Internal Store (for Max Info) */ +AccelTemp* ADXL362::GetMaxInfo(void) { + return &maxStore; +} + +/* Convert CtrlValue to Real for Accelerometer */ +float ADXL362::ConvAccel(int ctrlval) { + return scaleAccel * (float)ctrlval; +} + +/* Convert CtrlValue to Real for Thermal Sensor */ +float ADXL362::ConvThermal(int ctrlval) { + return (scaleThermal * (float)ctrlval) + offsetThermal; +} + +/** ========================================== + * Private ( convert sensing value ) + * ========================================== */ +void ADXL362::convertSensorData(AccelTemp *at, int *buf) { + at->ax = ext12bitToInt(buf[0], buf[1]); + at->ay = ext12bitToInt(buf[2], buf[3]); + at->az = ext12bitToInt(buf[4], buf[5]); + at->tm = ext12bitToInt(buf[6], buf[7]); +} + +int ADXL362::ext12bitToInt(int l, int h) +{ + h <<= 8; + h &= 0x0f00; + h |= l & 0xff; + if ((h & 0x800) != 0) { + h |= 0xfffff000; + } + return h; +} + +/** ========================================== + * Private ( SPI Communication ) + * ========================================== */ +#define ADXL362_SPI_CMD_WR 0x0A +#define ADXL362_SPI_CMD_RD 0x0B +#define ADXL362_SPI_CMD_RD_FIFO 0x0D + +/* Read Single Register */ +int ADXL362::regRD(int regAddr) { + int recvData; + regBurstRD(regAddr, 1, &recvData); + return recvData; +} + +/* Read Multi Register */ +void ADXL362::regBurstRD(int regAddr, int numBurst, int *recvBuf) { + int cnt; + + /* SPI Burst Read Loop ** + * Write A -> Write B : Read A -> Write C : Read B -> ... */ + _spi->lock(); + chipSelOn(); + /* WriteADDR[n] and ReadData[n-1] */ + _spi->write(ADXL362_SPI_CMD_RD); + _spi->write(regAddr); + for (cnt = 0; cnt < numBurst; cnt++) { + /* WriteADDR[n] and ReadData[n-1] */ + recvBuf[cnt] = _spi->write(0x00); + } + chipSelOff(); + _spi->unlock(); + return; +} + +/* Write 16bit-Aligned Register */ +void ADXL362::regWR(int regAddr, int value) { + _spi->lock(); + chipSelOn(); + _spi->write(ADXL362_SPI_CMD_WR); + _spi->write(regAddr); + _spi->write(value); + chipSelOff(); + _spi->unlock(); + return; +} + +/** ========================================== + * Private ( Control internal Stores ) + * ========================================== */ +/* clear internal Min/Max infomation */ +void ADXL362::initMinMax +(AccelTemp *minData, AccelTemp *maxData) { + minData->ax = INT_MAX; + minData->ay = INT_MAX; + minData->az = INT_MAX; + minData->tm = INT_MAX; + + maxData->ax = INT_MIN; + maxData->ay = INT_MIN; + maxData->az = INT_MIN; + maxData->tm = INT_MIN; +} + +/* update internal Min/Max infomation */ +#define TEST_MIN_AND_SET(now, test) (now = (now >= test)? test : now) +#define TEST_MAX_AND_SET(now, test) (now = (now <= test)? test : now) +void ADXL362::updateMinMax +(AccelTemp *minData, AccelTemp *maxData, AccelTemp *getData) { + TEST_MIN_AND_SET(minData->ax, getData->ax); + TEST_MIN_AND_SET(minData->ay, getData->ay); + TEST_MIN_AND_SET(minData->az, getData->az); + TEST_MIN_AND_SET(minData->tm, getData->tm); + + TEST_MAX_AND_SET(maxData->ax, getData->ax); + TEST_MAX_AND_SET(maxData->ay, getData->ay); + TEST_MAX_AND_SET(maxData->az, getData->az); + TEST_MAX_AND_SET(maxData->tm, getData->tm); +}
--- /dev/null Thu Jan 01 00:00:00 1970 +0000 +++ b/ADXL362.h Thu May 16 07:02:24 2019 +0000 @@ -0,0 +1,160 @@ +#ifndef _ADXL362_H_ +#define _ADXL362_H_ +#include "mbed.h" +#include <SPI.h> + +// Register Memory Map +#define DEVID_AD 0x00 +#define DEVID_MST 0x01 +#define PARTID 0x02 +#define REVID 0x03 +/* _ reserved _ */ +#define XDATA 0x08 +#define YDATA 0x09 +#define ZDATA 0x0A +#define STATUS 0x0B +#define FIFO_ENTRIES_L 0x0C +#define FIFO_ENTRIES_H 0x0D +#define XDATA_L 0x0E +#define XDATA_H 0x0F +#define YDATA_L 0x10 +#define YDATA_H 0x11 +#define ZDATA_L 0x12 +#define ZDATA_H 0x13 +#define TEMP_L 0x14 +#define TEMP_H 0x15 +/* _ reserved _ */ +#define SOFT_RESET 0x1F +#define THRESH_ACT_L 0x20 +#define THRESH_ACT_H 0x21 +#define TIME_ACT 0x22 +#define THRESH_INACT_L 0x23 +#define THRESH_INACT_H 0x24 +#define TIME_INACT_L 0x25 +#define TIME_INACT_H 0x26 +#define ACT_INACT_CTL 0x27 +#define FIFO_CONTROL 0x28 +#define FIFO_SAMPLES 0x29 +#define INTMAP1 0x2A +#define INTMAP2 0x2B +#define FILTER_CTL 0x2C +#define POWER_CTL 0x2D +#define SELF_TEST 0x2E + +/* ADXL const parameters */ +#define SOFT_RESET_ADXL362 (0x52) + +#define POWER_CTL_PARAM_LOWNOISE_NORM (0x00) +#define POWER_CTL_PARAM_LOWNOISE_LOW (0x10) +#define POWER_CTL_PARAM_LOWNOISE_ULTRA (0x20) + +#define POWER_CTL_MODEMASK (0x03) +#define POWER_CTL_STOP (0x00) +#define POWER_CTL_STANDBY (0x01) +#define POWER_CTL_MESURE (0x02) + +/* ADXL362 configuration */ +#define DEVID_AD_ADXL362 (0xAD) +#define DEVID_MST_ADXL362 (0x1D) +#define PARTID_ADXL362 (0xF2) + +#define GRAVITY_2G (2) +#define GRAVITY_4G (4) +#define GRAVITY_8G (8) + +#define ODR_12 0 +#define ODR_25 1 +#define ODR_50 2 +#define ODR_100 3 +#define ODR_200 4 +#define ODR_400 5 + + +#define PARAM_ADXL362_SCALE_ACCEL (1.0f * 0.001f * 9.80665f) // DATA +#define PARAM_ADXL362_SCALE_THERMAL (0.0025f) // TEMP +#define PARAM_ADXL362_THERMAL_OFFSET (25.0f) // TEMP + + + +/* Output of Accelerometers */ +typedef struct _struct_AccelTemp { + int ax; + int ay; + int az; + int tm; +} AccelTemp; + +/* ADIS16460 class definition */ +class ADXL362 { + +public: + + /* ADIS16460 initializer */ + ADXL362(Serial*, SPI*); + ~ADXL362(); + + /* Control */ + void SoftReset(); + void SetMesureParam(int param); + void StartMesure(); + int GetStatus(); + + /* Sensing */ + void SensorRead(AccelTemp*); + + /* GetSubInfo */ + AccelTemp* GetMinInfo(void); + AccelTemp* GetMaxInfo(void); + + /* convert real scale */ + float ConvAccel(int ctrlval); + float ConvThermal(int ctrlval); + + /* configuration */ + void set_gravity(int g); + void set_ODR(int o); + void set_powermode(int m); + void set_wakeupmode(void); + void set_scalefactor(void); + void start(void); + void stop(void); + +private: + /* locked */ + ADXL362(); + + /* information store */ + Serial *uart; + SPI *_spi; + DigitalOut *_cs; + int odr; + AccelTemp minStore; + AccelTemp maxStore; + + /* realvalue */ + float gravity; + float scaleAccel; + float scaleThermal; + float offsetThermal; + + /* convert value */ + void convertSensorData(AccelTemp*, int *); + int ext12bitToInt(int l, int h); + + /* update internal min/max */ + void initMinMax(AccelTemp *min, AccelTemp *max); + void updateMinMax(AccelTemp *min, AccelTemp *max, AccelTemp *getData); + + + /* communication via SPI*/ + void chipSelOn(void); + void chipSelOff(void); + void chipSelDelay(void); + + /* R/W primitives */ + int regRD(int); + void regWR(int, int); + void regBurstRD(int, int, int*); +}; + +#endif /* _ADXL362_H_ */ \ No newline at end of file
--- /dev/null Thu Jan 01 00:00:00 1970 +0000 +++ b/CONTRIBUTING.md Thu May 16 07:02:24 2019 +0000 @@ -0,0 +1,5 @@ +# Contributing to Mbed OS + +Mbed OS is an open-source, device software platform for the Internet of Things. Contributions are an important part of the platform, and our goal is to make it as simple as possible to become a contributor. + +To encourage productive collaboration, as well as robust, consistent and maintainable code, we have a set of guidelines for [contributing to Mbed OS](https://os.mbed.com/docs/mbed-os/latest/contributing/index.html).
--- /dev/null Thu Jan 01 00:00:00 1970 +0000 +++ b/README.md Thu May 16 07:02:24 2019 +0000 @@ -0,0 +1,152 @@ +# Getting started example for Mbed OS + +This guide reviews the steps required to get Blinky with the addition of dynamic OS statistics working on an Mbed OS platform. (Note: To see a rendered example you can import into the Arm Online Compiler, please see our [quick start](https://os.mbed.com/docs/mbed-os/latest/quick-start/online-with-the-online-compiler.html#importing-the-code).) + +Please install [Mbed CLI](https://github.com/ARMmbed/mbed-cli#installing-mbed-cli). + +## Import the example application + +From the command-line, import the example: + +``` +mbed import mbed-os-example-blinky +cd mbed-os-example-blinky +``` + +### Now compile + +Invoke `mbed compile`, and specify the name of your platform and your favorite toolchain (`GCC_ARM`, `ARM`, `IAR`). For example, for the Arm Compiler: + +``` +mbed compile -m K64F -t ARM +``` + +Your PC may take a few minutes to compile your code. At the end, you see the following result: + +``` +[snip] + +Image: ./BUILD/K64F/GCC_ARM/mbed-os-example-blinky.bin +``` + +### Program your board + +1. Connect your Mbed device to the computer over USB. +1. Copy the binary file to the Mbed device. +1. Press the reset button to start the program. + +The LED on your platform turns on and off. The main thread will additionally take a snapshot of the device's runtime statistics and display it over serial to your PC. The snapshot includes: + +* System Information: + * Mbed OS Version: Will currently default to 999999 + * Compiler ID + * ARM = 1 + * GCC_ARM = 2 + * IAR = 3 + * [CPUID Register Information](#cpuid-register-information) + * [Compiler Version](#compiler-version) +* CPU Statistics + * Percentage of runtime that the device has spent awake versus in sleep +* Heap Statistics + * Current heap size + * Max heap size which refers to the largest the heap has grown to +* Thread Statistics + * Provides information on all running threads in the OS including + * Thread ID + * Thread Name + * Thread State + * Thread Priority + * Thread Stack Size + * Thread Stack Space + +#### Compiler Version + +| Compiler | Version Layout | +| -------- | -------------- | +| ARM | PVVbbbb (P = Major; VV = Minor; bbbb = build number) | +| GCC | VVRRPP (VV = Version; RR = Revision; PP = Patch) | +| IAR | VRRRPPP (V = Version; RRR = Revision; PPP = Patch) | + +#### CPUID Register Information + +| Bit Field | Field Description | Values | +| --------- | ----------------- | ------ | +|[31:24] | Implementer | 0x41 = ARM | +|[23:20] | Variant | Major revision 0x0 = Revision 0 | +|[19:16] | Architecture | 0xC = Baseline Architecture | +| | | 0xF = Constant (Mainline Architecture) | +|[15:4] | Part Number | 0xC20 = Cortex-M0 | +| | | 0xC60 = Cortex-M0+ | +| | | 0xC23 = Cortex-M3 | +| | | 0xC24 = Cortex-M4 | +| | | 0xC27 = Cortex-M7 | +| | | 0xD20 = Cortex-M23 | +| | | 0xD21 = Cortex-M33 | +|[3:0] | Revision | Minor revision: 0x1 = Patch 1 | + + + +You can view individual examples and additional API information of the statistics collection tools at the bottom of the page in the [related links section](#related-links). + + +### Output + +To view the serial output you can use any terminal client of your choosing such as [PuTTY](http://www.putty.org/) or [CoolTerm](http://freeware.the-meiers.org/). Unless otherwise specified, printf defaults to a baud rate of 9600 on Mbed OS. + +You can find more information on the Mbed OS configuration tools and serial communication in Mbed OS in the related [related links section](#related-links). + +The output should contain the following block transmitted at the blinking LED frequency (actual values may vary depending on your target, build profile, and toolchain): + +``` +=============================== SYSTEM INFO ================================ +Mbed OS Version: 999999 +CPU ID: 0x410fc241 +Compiler ID: 2 +Compiler Version: 60300 +RAM0: Start 0x20000000 Size: 0x30000 +RAM1: Start 0x1fff0000 Size: 0x10000 +ROM0: Start 0x0 Size: 0x100000 +================= CPU STATS ================= +Idle: 98% Usage: 2% +================ HEAP STATS ================= +Current heap: 1096 +Max heap size: 1096 +================ THREAD STATS =============== +ID: 0x20001eac +Name: main_thread +State: 2 +Priority: 24 +Stack Size: 4096 +Stack Space: 3296 + +ID: 0x20000f5c +Name: idle_thread +State: 1 +Priority: 1 +Stack Size: 512 +Stack Space: 352 + +ID: 0x20000f18 +Name: timer_thread +State: 3 +Priority: 40 +Stack Size: 768 +Stack Space: 664 + +``` + +## Troubleshooting + +If you have problems, you can review the [documentation](https://os.mbed.com/docs/latest/tutorials/debugging.html) for suggestions on what could be wrong and how to fix it. + +## Related Links + +* [Mbed OS Stats API](https://os.mbed.com/docs/latest/apis/mbed-statistics.html) +* [Mbed OS Configuration](https://os.mbed.com/docs/latest/reference/configuration.html) +* [Mbed OS Serial Communication](https://os.mbed.com/docs/latest/tutorials/serial-communication.html) + +### License and contributions + +The software is provided under Apache-2.0 license. Contributions to this project are accepted under the same license. Please see contributing.md for more info. + +This project contains code from other projects. The original license text is included in those source files. They must comply with our license guide.
--- /dev/null Thu Jan 01 00:00:00 1970 +0000 +++ b/main.cpp Thu May 16 07:02:24 2019 +0000 @@ -0,0 +1,333 @@ +/* mbed Microcontroller Library + * Copyright (c) 2018 ARM Limited + * SPDX-License-Identifier: Apache-2.0 + */ + +#include "mbed.h" +#include "stats_report.h" +#include "ADXL362.h" +#include "math.h" + +#define G_2 1.0 +#define G_4 2.0 +#define G_8 4.0 + + + +#define MODE_NORMAL 0 +#define MODE_LOW_POWER 1 +#define MODE_ULTRA_LOW_POWER 2 + +DigitalOut led1(LED1); +Serial PC(USBTX, USBRX); + +char Buf[128]; +char command[8]; +char mode[8]; +char val[8]; +int f_val; + +int set_mode(int m); +int set_freq(int v); +int set_grav(int v); +void set_start(void); +void set_stop(void); +static void clearDisplay(void); +static void drawCLI(ADXL362 *adxlCtrl, AccelTemp *getData); +static void draw_Raw(ADXL362 *adxlCtrl, AccelTemp *getData); + +volatile int f_run = 0; +volatile int f_wake = 0; +SPI *spi1; +ADXL362 *adxlCtrl; +AccelTemp GetData; +DigitalIn ADXL_WAKE(WAKE2); + +void help(void); + +// main() runs in its own thread in the OS +int main() +{ + PC.baud(115200); + PC.printf("EV-COG-AD4050LZ Demo\n"); + + spi1 = new SPI(SPI1_MOSI, SPI1_MISO, SPI1_SCLK); + adxlCtrl = new ADXL362(&PC, spi1); + + clearDisplay(); + + help(); + + while (true) { + // Blink LED and wait 0.5 seconds + led1 = !led1; + wait_ms(500); + + PC.scanf("%s", command); + + if(strncmp(command, "set", 3) == 0) + { + PC.scanf("%s",mode); + + if(strncmp(mode, "freq", 4) == 0) + { + PC.scanf("%s", val); + f_val = atoi(val); + set_freq(f_val); + } + else if(strncmp(mode, "mode", 4) == 0) + { + PC.scanf("%s", val); + f_val = atoi(val); + set_mode(f_val); + } + else if(strncmp(mode, "grav", 4) == 0) + { + PC.scanf("%s", val); + f_val = atoi(val); + set_grav(f_val); + } + else if(strncmp(mode, "wakeup", 6) == 0) + { + PC.printf("ADXL362 wakeup mode\n"); + adxlCtrl->set_wakeupmode(); + f_wake = 1; + PC.printf("ADXL362 wakeup waiting......\n"); + while(f_wake) + { + if(ADXL_WAKE.read() == 1) + { + f_wake = 0; + PC.printf("ADXL362 Wake-up\n"); + led1 = 1; + PC.printf("ADXL362 Condition %d\n", ADXL_WAKE.read()); + adxlCtrl->GetStatus(); + } + else + { + PC.printf("."); + } + wait_ms(100); + } + + + }else + { + PC.printf("Command Invalid\n"); + } + } + else if(strncmp(command, "start", 5) == 0) + { + set_start(); + while(f_run) + { + adxlCtrl->SensorRead(&GetData); + draw_Raw(adxlCtrl, &GetData); + wait(0.2); + } + } + //else if(strncmp(command, "stop", 4) == 0) + //{ + // set_stop(); + //} + else + { + help(); + } + // Following the main thread wait, report on the current system status + //sys_state.report_state(); + } +} + +void help(void) +{ + PC.printf("Command Usage\n"); + PC.printf("Command : only 'set'\n"); + PC.printf("Mode : 'freq' is ODR configuration\n"); + PC.printf(" : ODR frequency from 12, 25, 50, 100, 200, 400Hz\n"); + PC.printf("Mode : 'grav' is select gravity\n"); + PC.printf(" : 0:2g 1:4g 2:8g\n"); + PC.printf("Mode : 'mode' is power mode\n"); + PC.printf(" : 0:Normal 1:Low Power 2:Ultra Low Power(freq is fixed at 100Hz)\n"); + PC.printf("i.e. 'set mode 0'\n"); + PC.printf("i.e. 'set freq 1000'\n"); + PC.printf("i.e. 'start'\n"); +} + +int set_freq(int v) +{ + if((v < 12) || (v > 400)) + { + PC.printf("ODR Freqency Range is over/under. Please configure for 12-400 Hz.\n"); + return 1; + } + else + { + PC.printf("Set Frequency %d Hz\n", v); + return 0; + } +} + +int set_grav(int v) +{ + switch(v) + { + case 0: + PC.printf("Set gravity 2g\n"); + adxlCtrl->set_gravity(GRAVITY_2G); + break; + case 1: + PC.printf("Set gravity 4g\n"); + adxlCtrl->set_gravity(GRAVITY_4G); + break; + case 2: + PC.printf("Set gravity 8g\n"); + adxlCtrl->set_gravity(GRAVITY_8G); + break; + default: + PC.printf("Unknown Command\n"); + break; + }; + + return 0; +} +int set_mode(int m) +{ + switch(m) + { + case MODE_NORMAL: + PC.printf("Set Normal Mode\n"); + adxlCtrl->set_powermode(POWER_CTL_PARAM_LOWNOISE_NORM); + break; + case MODE_LOW_POWER: + PC.printf("Set Low Power Mode\n"); + adxlCtrl->set_powermode(POWER_CTL_PARAM_LOWNOISE_LOW); + break; + case MODE_ULTRA_LOW_POWER: + PC.printf("Set Ultra Low Power Mode\n"); + adxlCtrl->set_powermode(POWER_CTL_PARAM_LOWNOISE_ULTRA); + break; + default: + PC.printf("Unknown Command\n"); + break; + }; + + return 0; +} + +void set_start(void) +{ + f_run = 1; + adxlCtrl->start(); + PC.printf("Start Accel\n"); +} + +void set_stop(void) +{ + f_run = 0; + adxlCtrl->stop(); + PC.printf("Stop Accel\n"); +} + +static void clearDisplay(void) +{ + PC.printf("\033[2J"); + PC.printf("\033[0;0H"); + PC.printf("\033[0m\033[37m"); +} + +static void drawCLI(ADXL362 *adxlCtrl, AccelTemp *getData) +{ + AccelTemp *min = adxlCtrl->GetMinInfo(); + AccelTemp *max = adxlCtrl->GetMaxInfo(); + AccelTemp *p; + float x, y, z, t; + + PC.printf("\033[2J"); + + /* BLANK LINE */ + + PC.printf("\033[0m\033[33m\033[1m"); + PC.printf("\033[2;1H"); + PC.printf("\033[K"); + PC.printf("ACCELEROMETERs"); + + PC.printf("\033[0m\033[37m"); + PC.printf("\033[3;3H"); + PC.printf("\033[K"); + PC.printf("\033[3;10H-X---\033[3;20H-Y---\033[3;30H-Z---"); + + PC.printf("\033[0m\033[35m"); + PC.printf("\033[4;3H"); + PC.printf("\033[K"); + p = min; + x = sin(adxlCtrl->ConvAccel(p->ax)); + y = adxlCtrl->ConvAccel(p->ay); + z = adxlCtrl->ConvAccel(p->az); + PC.printf("min\033[4;10H%04.2f\033[4;20H%04.2f\033[4;30H%04.2f", x, y, z); + + PC.printf("\033[0m\033[37m\033[1m"); + PC.printf("\033[5;3H"); + PC.printf("\033[K"); + p = getData; + x = adxlCtrl->ConvAccel(p->ax); + y = adxlCtrl->ConvAccel(p->ay); + z = adxlCtrl->ConvAccel(p->az); + PC.printf("-->\033[5;10H%04.2f\033[5;20H%04.2f\033[5;30H%04.2f", x, y, z); + + PC.printf("\033[0m\033[36m"); + PC.printf("\033[6;3H"); + PC.printf("\033[K"); + p = max; + x = adxlCtrl->ConvAccel(p->ax); + y = adxlCtrl->ConvAccel(p->ay); + z = adxlCtrl->ConvAccel(p->az); + PC.printf("max\033[6;10H%04.2f\033[6;20H%04.2f\033[6;30H%04.2f", x, y, z); + + /* BLANK LINE */ + + PC.printf("\033[0m\033[31m\033[1m"); + PC.printf("\033[8;1H"); + PC.printf("\033[K"); + PC.printf("Temperature"); + + /* BLANK LINE */ + + PC.printf("\033[0m\033[35m"); + PC.printf("\033[10;3H"); + PC.printf("\033[K"); + p = min; + t = adxlCtrl->ConvThermal(p->tm); + PC.printf("min\033[10;10H%04.2f", t); + + PC.printf("\033[0m\033[37m\033[1m"); + PC.printf("\033[11;3H"); + PC.printf("\033[K"); + p = getData; + t = adxlCtrl->ConvThermal(p->tm); + PC.printf("-->\033[11;10H%04.2f", t); + + PC.printf("\033[0m\033[36m"); + PC.printf("\033[12;3H"); + PC.printf("\033[K"); + p = max; + t = adxlCtrl->ConvThermal(p->tm); + PC.printf("max\033[12;10H%04.2f", t); +} + +static void draw_Raw(ADXL362 *adxlCtrl, AccelTemp *getData) +{ + AccelTemp *p; + float x, y, z, t; + + /* BLANK LINE */ + p = getData; + t = adxlCtrl->ConvThermal(p->tm); + x = adxlCtrl->ConvAccel(p->ax); + y = adxlCtrl->ConvAccel(p->ay); + z = adxlCtrl->ConvAccel(p->az); + PC.printf("%04.2f, %04.2f, %04.2f, %04.2f\n", x, y, z, t); +} + + + \ No newline at end of file
--- /dev/null Thu Jan 01 00:00:00 1970 +0000 +++ b/mbed-os.lib Thu May 16 07:02:24 2019 +0000 @@ -0,0 +1,1 @@ +https://github.com/ARMmbed/mbed-os/#a8e5a4cb0f4facb615c32306d9b509aec07a0b5a
--- /dev/null Thu Jan 01 00:00:00 1970 +0000 +++ b/mbed_app.json Thu May 16 07:02:24 2019 +0000 @@ -0,0 +1,11 @@ +{ + "target_overrides": { + "*": { + "platform.stack-stats-enabled": true, + "platform.heap-stats-enabled": true, + "platform.cpu-stats-enabled": true, + "platform.thread-stats-enabled": true, + "platform.sys-stats-enabled": true + } + } +}
--- /dev/null Thu Jan 01 00:00:00 1970 +0000 +++ b/stats_report.h Thu May 16 07:02:24 2019 +0000 @@ -0,0 +1,132 @@ +/* mbed Microcontroller Library + * Copyright (c) 2018 ARM Limited + * SPDX-License-Identifier: Apache-2.0 + */ + +#ifndef STATS_REPORT_H +#define STATS_REPORT + +#include "mbed.h" + +/** + * System Reporting library. Provides runtime information on device: + * - CPU sleep, idle, and wake times + * - Heap and stack usage + * - Thread information + * - Static system information + */ +class SystemReport { + mbed_stats_heap_t heap_stats; + mbed_stats_cpu_t cpu_stats; + mbed_stats_sys_t sys_stats; + + mbed_stats_thread_t *thread_stats; + uint8_t thread_count; + uint8_t max_thread_count; + uint32_t sample_time_ms; + +public: + /** + * SystemReport - Sample rate in ms is required to handle the CPU percent awake logic + */ + SystemReport(uint32_t sample_rate) : max_thread_count(8), sample_time_ms(sample_rate) + { + thread_stats = new mbed_stats_thread_t[max_thread_count]; + + // Collect the static system information + mbed_stats_sys_get(&sys_stats); + + printf("=============================== SYSTEM INFO ================================\r\n"); + printf("Mbed OS Version: %ld \r\n", sys_stats.os_version); + printf("CPU ID: 0x%lx \r\n", sys_stats.cpu_id); + printf("Compiler ID: %d \r\n", sys_stats.compiler_id); + printf("Compiler Version: %ld \r\n", sys_stats.compiler_version); + + for (int i = 0; i < MBED_MAX_MEM_REGIONS; i++) { + if (sys_stats.ram_size[i] != 0) { + printf("RAM%d: Start 0x%lx Size: 0x%lx \r\n", i, sys_stats.ram_start[i], sys_stats.ram_size[i]); + } + } + for (int i = 0; i < MBED_MAX_MEM_REGIONS; i++) { + if (sys_stats.rom_size[i] != 0) { + printf("ROM%d: Start 0x%lx Size: 0x%lx \r\n", i, sys_stats.rom_start[i], sys_stats.rom_size[i]); + } + } + } + + ~SystemReport(void) + { + free(thread_stats); + } + + /** + * Report on each Mbed OS Platform stats API + */ + void report_state(void) + { + report_cpu_stats(); + report_heap_stats(); + report_thread_stats(); + + // Clear next line to separate subsequent report logs + printf("\r\n"); + } + + /** + * Report CPU idle and awake time in terms of percentage + */ + void report_cpu_stats(void) + { + static uint64_t prev_idle_time = 0; + + printf("================= CPU STATS =================\r\n"); + + // Collect and print cpu stats + mbed_stats_cpu_get(&cpu_stats); + + uint64_t diff = (cpu_stats.idle_time - prev_idle_time); + uint8_t idle = (diff * 100) / (sample_time_ms * 1000); // usec; + uint8_t usage = 100 - ((diff * 100) / (sample_time_ms * 1000)); // usec;; + prev_idle_time = cpu_stats.idle_time; + + printf("Idle: %d%% Usage: %d%% \r\n", idle, usage); + } + + /** + * Report current heap stats. Current heap refers to the current amount of + * allocated heap. Max heap refers to the highest amount of heap allocated + * since reset. + */ + void report_heap_stats(void) + { + printf("================ HEAP STATS =================\r\n"); + + // Collect and print heap stats + mbed_stats_heap_get(&heap_stats); + + printf("Current heap: %lu\r\n", heap_stats.current_size); + printf("Max heap size: %lu\r\n", heap_stats.max_size); + } + + /** + * Report active thread stats + */ + void report_thread_stats(void) + { + printf("================ THREAD STATS ===============\r\n"); + + // Collect and print running thread stats + int count = mbed_stats_thread_get_each(thread_stats, max_thread_count); + + for (int i = 0; i < count; i++) { + printf("ID: 0x%lx \r\n", thread_stats[i].id); + printf("Name: %s \r\n", thread_stats[i].name); + printf("State: %ld \r\n", thread_stats[i].state); + printf("Priority: %ld \r\n", thread_stats[i].priority); + printf("Stack Size: %ld \r\n", thread_stats[i].stack_size); + printf("Stack Space: %ld \r\n", thread_stats[i].stack_space); + } + } +}; + +#endif // STATS_REPORT_H