Initial version (test / feasibility on esp32 and esp8266)

This commit is contained in:
Dirk Jahnke 2018-04-06 14:39:59 +02:00
commit 8ab81f735e
7 changed files with 719 additions and 0 deletions

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.vscode
build
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# Thermo Printer Interface / Remote Control
## Overview
This is about a device that can be called by WLAN / TCP/IP and prints on a cheap thermo printer using paper rolls.
Hardware used:
- ESP-CPU:
-- Wemos ESP32 LoLin (any ESP32 should work), we are using UART1 (GPIO26=Tx)
-- Wemos ESP8266 (any should work), we are using UART1 Tx only (GPIO2=Tx)
- GOOJPRT QR204 Micro Embedded Printer with RS232/TTL and USB-Interface
-- TX, RX, GND connected to ESP32
-- POWER connected to seperate power supply (+5V/GND)
## How to install this app
- Install and start [mos tool](https://mongoose-os.com/software.html)
- Switch to the Project page, find and import this app, build and flash it:
<p align="center">
<img src="https://mongoose-os.com/images/app1.gif" width="75%">
</p>

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<html>
<body>
<h1>Welcome to the empty project</h1>
</body>
</html>

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author: Dirk Jahnke
description: Thermo Printer Remote Controller
version: 1.0
libs_version: ${mos.version}
modules_version: ${mos.version}
mongoose_os_version: ${mos.version}
# platform: esp8266
# platform: esp32
# Optional. List of tags for online search.
tags:
- c
# List of files / directories with C sources. No slashes at the end of dir names.
sources:
- src
# List of dirs. Files from these dirs will be copied to the device filesystem
filesystem:
- fs
# Custom configuration entries, settable via "device configuration"
# Below is a custom firmware configuration example.
# Uncomment and modify according to your needs:
config_schema:
# - ["my_app", "o", {title: "My app custom settings"}]
# - ["my_app.bool_value", "b", false, {title: "Some boolean value"}]
# - ["my_app.string_value", "s", "", {title: "Some string value"}]
# - ["my_app.int_value", "i", 123, {title: "Some integer value"}]
- ["i2c.enable", true]
- ["i2c.freq", 400]
- ["i2c.sda_gpio", 4] # D2
- ["i2c.scl_gpio", 5] # D1
- ["flashLight", "o", {title: "Flash light / alarm light settings"}]
- ["flashLight.address", "i", 0x30, {title: "i2c address of motor controller TB6612 (e.g. WEMOS)"}]
- ["flashLight.motorFrequency", "i", 500, {title: "Frequency of PWM in Hz"}]
- ["flashLight.motorUpdateTime", "i", 50, {title: "Time between motor updates in msec"}]
- ["flashLight.mqttCtrlTopic", "s", "flashLight/%s/ctrl", {title: "MQTT channel to subscribe to receive commands; %s is replaced by clientId"}]
- ["flashLight.mqttStatusTopic", "s", "flashLight/%s/status", {title: "MQTT channel to publish to send status change infos; %s is replaced by clientId"}]
- ["mqtt.enable", true]
- ["mqtt.server", "mqtt.pmpark.de:1883"]
- ["mqtt.user", "default"]
- ["mqtt.pass", "12345678"]
- ["mqtt.will_message", "offline"]
- ["mqtt.will_topic", "flashLight/"]
- ["sntp.enable", true]
- ["sntp.server", "time.google.com"]
# These settings get compiled into the C structure, and can be accessed
# from the C code this way:
#
# printf("Hello from %s!\n", mgos_sys_config_get_device_id());
#
# Settings are cool: can be modified remotely without full firmware upgrade!
#
# To see all available compiled settings, buid the firmware and open
# build/gen/mgos_config.h file.
#
# Also, in this config_schema section, you can override existing
# settings that has been created by other libraries. For example, debug log
# level is 2 by default. For this firmware we can override it to 3:
#
# config_schema:
# - ["debug.level", 3]
# List of libraries used by this app, in order of initialisation
libs:
- origin: https://github.com/mongoose-os-libs/ca-bundle
- origin: https://github.com/mongoose-os-libs/i2c
- origin: https://github.com/mongoose-os-libs/rpc-service-config
- origin: https://github.com/mongoose-os-libs/rpc-service-fs
- origin: https://github.com/mongoose-os-libs/rpc-uart
- origin: https://github.com/mongoose-os-libs/spi
- origin: https://github.com/mongoose-os-libs/wifi
- origin: https://github.com/mongoose-os-libs/http-server
- origin: https://github.com/mongoose-os-libs/rpc-loopback
- origin: https://github.com/mongoose-os-libs/rpc-mqtt
- origin: https://github.com/mongoose-os-libs/rpc-service-ota
- origin: https://github.com/mongoose-os-libs/rpc-service-cron
- origin: https://github.com/mongoose-os-libs/crontab
- origin: https://github.com/mongoose-os-libs/dash
- origin: https://github.com/mongoose-os-libs/sntp
# Used by the mos tool to catch mos binaries incompatible with this file format
manifest_version: 2017-05-18

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#include "QR204.h"
static bool initialized = false;
static uint8_t uart = 0;
static const char initCmd[] = { 0x1b, '@' };
// ***** INIT *****
void tp_init(uint8_t uartNo) {
if (!initialized) {
uart = uartNo;
mgos_uart_write(uart, initCmd, sizeof(initCmd));
initialized = true;
}
}
// ***** End of INIT *****
// ***** MODE Handling *****
static uint8_t currentMode = 0;
void tp_set_mode(uint8_t addModes) {
currentMode |= addModes;
char setModeCmd[3] = {0x1b, '!', currentMode};
mgos_uart_write(uart, setModeCmd, 3);
}
void tp_reset_mode(uint8_t removeModes) {
currentMode &= ~removeModes;
char setModeCmd[3] = {0x1b, '!', currentMode};
mgos_uart_write(uart, setModeCmd, 3);
}
void tp_reverse_feed(uint8_t numLines) {
char cmd[3] = { 0x1b, 'e', numLines };
mgos_uart_write(uart, cmd, 3);
}
void tp_linefeed(uint8_t numLines) {
char cmd[3] = { 0x1b, 'd', numLines };
mgos_uart_write(uart, cmd, 3);
}
void tp_cutpaper(bool fullcut) {
char cmd[3] = { 0x1d, 'V', fullcut ? '0' : '1' };
mgos_uart_write(uart, cmd, 3);
}
// ***** End of MODE Handling *****
/*
PRINT #1, CHR$(&H1B);"@"; 'Initializes the printer (ESC @)
PRINT #1, CHR$(&H1B);"a";CHR$(1);'Specifies a centered printing position (ESC a)
PRINT #1, CHR$(&H1B);"!";CHR$(0); 'Specifies font A (ESC !)
PRINT #1, "January 14, 2002 15:00";
PRINT #1, CHR$(&H1B);"d";CHR$(3); 'Prints and 3 line feeding (ESC d)
PRINT #1, CHR$(&H1B);"a";CHR$(0); 'Selects the left print position (ESC a)
PRINT #1, CHR$(&H1B);"!";CHR$(1); 'Selects font B
PRINT #1, "TM-U210B"
PRINT #1, "TM-U210D"
PRINT #1, "PS-170"
PRINT #1, CHR$(&HA);
$20.00";CHR$(&HA); $21.00";CHR$(&HA); $17.00";CHR$(&HA);
'Line feeding (LF)
PRINT #1, CHR$(&H1B);"!";CHR$(17); 'Selects double-height mode
PRINT #1, "TOTAL $58.00"; CHR$(&HA);
PRINT #1, CHR$(&H1B);"!";CHR$(0); 'Cancels double-height mode
PRINT #1, "------------------------------";CHR$(&HA); PRINT #1, "PAID $60.00";CHR$(&HA); PRINT #1, "CHANGE $ 2.00";CHR$(&HA);
PRINT #1, CHR$(&H1D);"V";CHR$(66);CHR$(0); 'Feeds paper & cut
Drawer Kick (ESC p)
PRINT #1, CHR$(&H1B); CHR$(&H70); CHR$(&H0); CHR$(60); CHR$(120);
*/

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#ifndef __QR204_H
#define __QR204_H
#include "mgos.h"
#include "mgos_system.h"
#include "mgos_uart.h"
#define TP_MODE_ALTERNATEFONT 0x01
#define TP_MODE_EMPFHASIZED 0x08
#define TP_MODE_DOUBLEHEIGHT 0x10
#define TP_MODE_DOUBLEWIDTH 0x20
#define TP_MODE_UNDERLINED 0x80
#define TP_MODE_ALL 0xff
#define tp_print mgos_uart_printf
extern void tp_init(uint8_t uartNo);
extern void tp_set_mode(uint8_t addModes);
extern void tp_reset_mode(uint8_t removeModes);
extern void tp_reverse_feed(uint8_t numLines);
extern void tp_linefeed(uint8_t numLines);
#endif

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#include <stdio.h>
#include "mgos.h"
#include "mgos_app.h"
#include "mgos_gpio.h"
#include "mgos_system.h"
#include "mgos_timers.h"
#include "mgos_uart.h"
#include "mgos_rpc.h"
#include "mgos_sys_config.h"
#include "mgos_mqtt.h"
#include "mgos_net.h"
#include "mgos_crontab.h"
#include "common/mbuf.h"
#include "common/platform.h"
#include "common/cs_dbg.h"
#include "common/json_utils.h"
#include "common/mg_str.h"
#include "common/str_util.h"
#if CS_PLATFORM == CS_P_ESP32
#include <esp_system.h>
#endif
#include "QR204.h"
static bool doPrint = false;
#if CS_PLATFORM == CS_P_ESP32
#define UART_NO 1
int esp32_uart_rx_fifo_len(int uart_no);
extern uint8_t temprature_sens_read();
extern uint32_t hall_sens_read();
static int tempOffset = 17;
#elif CS_PLATFORM == CS_P_ESP8266
#define UART_NO 1
#else
#error Unsupported platform
#endif
static void timer_cb(void *arg) {
/*
* Note: do not use mgos_uart_write to output to console UART (0 in our case).
* It will work, but output may be scrambled by console debug output.
*/
printf("Timer loop!\n");
if (doPrint) {
tp_reset_mode(TP_MODE_ALL);
tp_print(UART_NO, "Timer loop!\n");
tp_set_mode(TP_MODE_UNDERLINED);
tp_print(UART_NO, "0,123456789\n");
}
/* tp_print(UART_NO, "- -\n");
tp_print(UART_NO, " - - \n");
tp_reverse_feed(2);
tp_print(UART_NO, " - - \n");
tp_print(UART_NO, "- -\n");*/
#if CS_PLATFORM == CS_P_ESP32
uint32_t hall = hall_sens_read();
uint8_t temp = temprature_sens_read();
esp_chip_info_t ci;
esp_chip_info(&ci);
tp_print(UART_NO, "t=%.1f C, h=%ld mH, tasks=%d\n", (float) (temp-32)/1.8 - tempOffset, hall, uxTaskGetNumberOfTasks());
#elif CS_PLATFORM == CS_P_ESP8266
tp_print(UART_NO, "xyz\n");
#endif
(void) arg;
}
static void printSystemInfo() {
#if CS_PLATFORM == CS_P_ESP32
esp_chip_info_t ci;
esp_chip_info(&ci);
tp_print(UART_NO,
"ESP32 mod=%d, cores=%d, rev=%d\n",
ci.model, ci.cores, ci.revision);
#elif CS_PLATFORM == CS_P_ESP8266
tp_print(UART_NO,
"ESP8266: cpu=%d MHz\n",
(int) mgos_get_cpu_freq() / 1000000);
tp_print(UART_NO,
"mem=%d kB, free=%d kB, fs=%d kB\n",
(int) mgos_get_heap_size()/1024,
(int) mgos_get_free_heap_size()/1024,
(int) mgos_get_fs_size()/1024);
#endif
}
enum mgos_app_init_result mgos_app_init(void) {
struct mgos_uart_config ucfg;
mgos_uart_config_set_defaults(UART_NO, &ucfg);
/*
* At this point it is possible to adjust baud rate, pins and other settings.
* 115200 8-N-1 is the default mode, but we set it anyway
*/
ucfg.baud_rate = 9600;
ucfg.num_data_bits = 8;
ucfg.parity = MGOS_UART_PARITY_NONE;
ucfg.stop_bits = MGOS_UART_STOP_BITS_1;
if (!mgos_uart_configure(UART_NO, &ucfg)) {
LOG(LL_ERROR,("ERROR: Cannot configure uart %d", UART_NO));
return MGOS_APP_INIT_ERROR;
}
printf("Initial printer operation");
tp_init(UART_NO);
mgos_set_timer(60000 /* ms */, true /* repeat */, timer_cb, NULL /* arg */);
mgos_uart_set_rx_enabled(UART_NO, false);
tp_reset_mode(TP_MODE_ALL);
tp_print(UART_NO, "TEST Print\r");
tp_print(UART_NO, "----------\n");
printSystemInfo();
return MGOS_APP_INIT_SUCCESS;
}
/* -------------------------------------------------------------------- */
/* =======================================
static void recalcTimings() {
flashLightRampUp_deltaSpeed = (flashLightSpeed * motorUpdateTime_msec) / motorRampUpTime_msec;
flashLightRampDown_deltaSpeed = (flashLightSpeed * motorUpdateTime_msec) / motorRampDownTime_msec;
}
static void pubStatus(const char *statusString, double percentage) {
struct mbuf fb;
struct json_out out = JSON_OUT_MBUF(&fb);
if (!mqttConnected) return;
mbuf_init(&fb, 30);
if (mgos_mqtt_global_connect()) {
json_printf(&out, "{statusString: %Q, speed: %f}", statusString, percentage);
mgos_mqtt_pub(pubStatusTopic, fb.buf, fb.len, 0, true);
}
}
static void motor_timer_cb(void *arg) {
static bool stopped = false;
switch (motorStatus) {
case MotorStatus_Off:
wemos_motor_stop(M1);
break;
case MotorStatus_On:
wemos_motor_setmotor(M1, motorDirection, pwm);
break;
case MotorStatus_RampUp:
pwm += flashLightRampUp_deltaSpeed;
if (pwm >= flashLightSpeed) {
LOG(LL_INFO, ("MotorStatus_RampUp: Speed target reached"));
pwm = flashLightSpeed;
motorStatus = MotorStatus_On;
}
wemos_motor_setmotor(M1, motorDirection, pwm);
// LOG(LL_INFO, ("M1, dir=%d, pwm=%f", motorDirection, pwm));
break;
case MotorStatus_RampDown:
pwm -= flashLightRampDown_deltaSpeed;
if (pwm <= flashLightTargetSpeed) {
if (pwm <= 0.0) {
motorStatus = MotorStatus_Off;
pwm = 0.0;
wemos_motor_stop(M1);
// change direction for next time, when motor turns on again
if (motorDirection == _CW) {
motorDirection = _CCW;
} else {
motorDirection = _CW;
}
} else {
pwm = flashLightTargetSpeed;
LOG(LL_INFO, ("MotorStatus_RampDown: Speed target reached"));
motorStatus = MotorStatus_On;
wemos_motor_setmotor(M1, motorDirection, pwm);
}
} else {
wemos_motor_setmotor(M1, motorDirection, pwm);
// LOG(LL_INFO, ("M1, dir=%d, pwm=%f", motorDirection, pwm));
}
break;
case MotorStatus_DemoMode:
default:
if (pwm > flashLightSpeed + 5.0) {
pwm = 0.0; // start again
stopped = false;
} else {
pwm += 0.1;
if (!stopped) {
wemos_motor_setmotor(M1, motorDirection, pwm);
LOG(LL_INFO, ("M1, dir=%d, pwm=%f", motorDirection, pwm));
pubStatus("on", pwm);
if (pwm > flashLightSpeed) {
// wemos_motor_setmotor(M1, _STOP, 0.0);
wemos_motor_setmotor(M1, _STANDBY, pwm);
stopped = true;
LOG(LL_INFO, ("Stopped/Standby"));
pubStatus("off", 0);
}
}
}
break;
}
(void) arg;
}
static void flashLightOn() {
LOG(LL_INFO, ("FlashLight ON\n"));
flashLightTargetSpeed = flashLightSpeed;
motorStatus = MotorStatus_RampUp; // this starts the motor on next timer callback
pubStatus("on", flashLightSpeed);
}
static void rpc_flashLightOn(struct mg_rpc_request_info *ri, void *cb_arg,
struct mg_rpc_frame_info *fi, struct mg_str args) {
struct mbuf fb;
struct json_out out = JSON_OUT_MBUF(&fb);
flashLightOn();
mbuf_init(&fb, 100);
json_printf(&out, "{result: 0, resultString: %Q}", "OK");
mg_rpc_send_responsef(ri, "%.*s", fb.len, fb.buf);
ri = NULL;
mbuf_free(&fb);
(void) cb_arg;
(void) fi;
(void) args;
}
static void cron_flashLightOn(struct mg_str action, struct mg_str payload, void *userdata) {
LOG(LL_INFO, ("Crontab flashLightOn fired"));
flashLightOn();
(void) action;
(void) payload;
(void) userdata;
}
static void flashLightOff() {
LOG(LL_INFO, ("FlashLight OFF\n"));
flashLightTargetSpeed = 0.0;
motorStatus = MotorStatus_RampDown; // this stops the motor on next timer callback
pubStatus("off", 0);
}
static void rpc_flashLightOff(struct mg_rpc_request_info *ri, void *cb_arg,
struct mg_rpc_frame_info *fi, struct mg_str args) {
struct mbuf fb;
struct json_out out = JSON_OUT_MBUF(&fb);
flashLightOff();
mbuf_init(&fb, 100);
json_printf(&out, "{result: 0, resultString: %Q}", "OK");
mg_rpc_send_responsef(ri, "%.*s", fb.len, fb.buf);
ri = NULL;
mbuf_free(&fb);
(void) cb_arg;
(void) fi;
(void) args;
}
static void cron_flashLightOff(struct mg_str action, struct mg_str payload, void *userdata) {
LOG(LL_INFO, ("Crontab flashLightOff fired"));
flashLightOff();
(void) action;
(void) payload;
(void) userdata;
}
static void cron_init() {
mgos_crontab_register_handler(mg_mk_str("FlashLightOn"), cron_flashLightOn, NULL);
mgos_crontab_register_handler(mg_mk_str("FlashLightOff"), cron_flashLightOff, NULL);
}
static void flashLightSetSpeed(uint16_t newSpeed) {
flashLightTargetSpeed = (double) newSpeed;
flashLightSpeed = flashLightTargetSpeed;
if (pwm < flashLightTargetSpeed) {
motorStatus = MotorStatus_RampUp;
} else if (pwm > flashLightTargetSpeed) {
motorStatus = MotorStatus_RampDown;
}
}
static void rpc_flashLightSetSpeed(struct mg_rpc_request_info *ri, void *cb_arg,
struct mg_rpc_frame_info *fi, struct mg_str args) {
struct mbuf fb;
struct json_out out = JSON_OUT_MBUF(&fb);
mbuf_init(&fb, 100);
int speed = 0;
if (json_scanf(args.p, args.len, ri->args_fmt, &speed) == 1) {
printf("FlashLight set speed to %d\n", speed);
json_printf(&out, "{result: 0, resultString: %Q, speed: %d}", "OK", speed);
flashLightSetSpeed(speed);
} else {
json_printf(&out, "{error: %Q}", "speed is required");
}
mg_rpc_send_responsef(ri, "%.*s", fb.len, fb.buf);
ri = NULL;
mbuf_free(&fb);
recalcTimings();
(void) cb_arg;
(void) fi;
(void) args;
}
static void flashLightSetRampupTime(struct mg_rpc_request_info *ri, void *cb_arg,
struct mg_rpc_frame_info *fi, struct mg_str args) {
struct mbuf fb;
struct json_out out = JSON_OUT_MBUF(&fb);
mbuf_init(&fb, 100);
uint16_t rampUpTime_msec = 0;
if (json_scanf(args.p, args.len, ri->args_fmt, &rampUpTime_msec) == 1) {
motorRampUpTime_msec = rampUpTime_msec;
printf("FlashLight set motor ramp up time to %d\n", rampUpTime_msec);
json_printf(&out, "{result: 0, resultString: %Q, rampUpTime_ms: %d}", "OK", rampUpTime_msec);
} else {
json_printf(&out, "{error: %Q}", "rampUpTime_msec is required");
}
mg_rpc_send_responsef(ri, "%.*s", fb.len, fb.buf);
ri = NULL;
mbuf_free(&fb);
recalcTimings();
(void) cb_arg;
(void) fi;
(void) args;
}
static void flashLightSetRampdownTime(struct mg_rpc_request_info *ri, void *cb_arg,
struct mg_rpc_frame_info *fi, struct mg_str args) {
struct mbuf fb;
struct json_out out = JSON_OUT_MBUF(&fb);
mbuf_init(&fb, 100);
uint16_t rampDownTime_msec = 0;
if (json_scanf(args.p, args.len, ri->args_fmt, &rampDownTime_msec) == 1) {
motorRampDownTime_msec = rampDownTime_msec;
printf("FlashLight set motor ramp up time to %d\n", rampDownTime_msec);
json_printf(&out, "{result: 0, resultString: %Q, rampDownTime_ms: %d}", "OK", rampDownTime_msec);
} else {
json_printf(&out, "{error: %Q}", "rampDownTime_msec is required");
}
mg_rpc_send_responsef(ri, "%.*s", fb.len, fb.buf);
ri = NULL;
mbuf_free(&fb);
recalcTimings();
(void) cb_arg;
(void) fi;
(void) args;
}
static void flashLightSetMotorUpdateTime(struct mg_rpc_request_info *ri, void *cb_arg,
struct mg_rpc_frame_info *fi, struct mg_str args) {
struct mbuf fb;
struct json_out out = JSON_OUT_MBUF(&fb);
mbuf_init(&fb, 100);
uint16_t updateTime = 0;
if (json_scanf(args.p, args.len, ri->args_fmt, &updateTime) == 1) {
motorUpdateTime_msec = updateTime;
printf("FlashLight set updateTime_msec tp %d\n", updateTime);
json_printf(&out, "{result: 0, resultString: %Q, udateTime_ms: %d}", "OK", updateTime);
} else {
json_printf(&out, "{error: %Q}", "motorUpdateTime_msec is required");
}
mg_rpc_send_responsef(ri, "%.*s", fb.len, fb.buf);
ri = NULL;
mbuf_free(&fb);
recalcTimings();
(void) cb_arg;
(void) fi;
(void) args;
}
static void flashLightGetSettings(struct mg_rpc_request_info *ri, void *cb_arg,
struct mg_rpc_frame_info *fi, struct mg_str args) {
struct mbuf fb;
struct json_out out = JSON_OUT_MBUF(&fb);
mbuf_init(&fb, 1024);
json_printf(&out, "{pwm: %f, speed: %f, rampupTime_ms: %d, rampdownTime_ms: %d, updateTime_ms: %d, rampupDeltaSpeed: %f, rampdownDeltaSpeed: %f, motorDirection: %d, clientId: %Q, commandTopic: %Q, statusTopic: %Q, mqttConnected: %Q, motorStatus: %d}",
pwm, flashLightSpeed, motorRampUpTime_msec, motorRampDownTime_msec, motorUpdateTime_msec, flashLightRampUp_deltaSpeed, flashLightRampDown_deltaSpeed,
motorDirection, clientId, commandTopic, pubStatusTopic, mqttConnected ? "true" : "false", motorStatus);
mg_rpc_send_responsef(ri, "%.*s", fb.len, fb.buf);
ri = NULL;
mbuf_free(&fb);
(void) cb_arg;
(void) fi;
(void) args;
}
void net_changed(int ev, void *evd, void *arg) {
if (ev != MGOS_NET_EV_IP_ACQUIRED) return;
// call_peer();
(void) evd;
(void) arg;
}
static void mqttCommandHandler(struct mg_connection *c, const char *topic, int topic_len,
const char *msg, int msg_len, void *userdata) {
LOG(LL_INFO, ("Got message on topic %.*s", topic_len, topic));
(void) c;
(void) topic;
(void) topic_len;
(void) msg;
(void) msg_len;
(void) userdata;
}
// void onMqttConnection(struct mg_connection *c, const char *client_id, struct mg_send_mqtt_handshake_opts *opts, void *fn_arg) {
void onMqttConnection(struct mg_connection *c, const char *client_id, struct mg_send_mqtt_handshake_opts *opts, void *fn_arg) {
// add MQTT cmd subscription
LOG(LL_INFO, ("onMqttConnection handler called with clientId=%s", client_id));
#if 0
#endif
mgos_mqtt_sub(commandTopic, mqttCommandHandler, NULL);
mqttConnected = true;
(void) c;
(void) client_id;
(void) opts;
(void) fn_arg;
}
enum mgos_app_init_result mgos_app_init(void) {
struct mg_rpc *c = mgos_rpc_get_global();
mg_rpc_add_handler(c, "FlashLight.On", NULL, rpc_flashLightOn, NULL);
mg_rpc_add_handler(c, "FlashLight.Off", NULL, rpc_flashLightOff, NULL);
mg_rpc_add_handler(c, "FlashLight.Speed", "{speed: %d}", rpc_flashLightSetSpeed, NULL);
mg_rpc_add_handler(c, "FlashLight.RampUpTime_msec", "{rampUpTime_ms: %d}", flashLightSetRampupTime, NULL);
mg_rpc_add_handler(c, "FlashLight.RampDownTime_msec", "{rampDownTime_ms: %d}", flashLightSetRampdownTime, NULL);
mg_rpc_add_handler(c, "FlashLight.MotorUpdateTime_msec", "{uptdateTime_ms: %d}", flashLightSetMotorUpdateTime, NULL);
mg_rpc_add_handler(c, "FlashLight.GetSettings", NULL, flashLightGetSettings, NULL);
mgos_event_add_group_handler(MGOS_EVENT_GRP_NET, net_changed, NULL);
// enable crontab
cron_init();
// add MQTT cmd subscription
LOG(LL_INFO, ("Initializing MQTT"));
clientId = mgos_sys_config_get_mqtt_client_id();
clientId = clientId ? clientId : mgos_sys_config_get_device_id();
LOG(LL_INFO, ("clientId=%s", clientId));
LOG(LL_INFO, ("cmdTopic=%s", mgos_sys_config_get_flashLight_mqttCtrlTopic()));
LOG(LL_INFO, ("pubStatusTopic=%s", mgos_sys_config_get_flashLight_mqttStatusTopic()));
c_snprintf(commandTopic, sizeof(commandTopic), mgos_sys_config_get_flashLight_mqttCtrlTopic(), clientId);
c_snprintf(pubStatusTopic, sizeof(pubStatusTopic), mgos_sys_config_get_flashLight_mqttStatusTopic(), clientId);
LOG(LL_INFO, ("cmdTopic=%s", commandTopic));
LOG(LL_INFO, ("pubStatusTopic=%s", pubStatusTopic));
mgos_mqtt_set_connect_fn(onMqttConnection, NULL);
motorFrequency = mgos_sys_config_get_flashLight_motorFrequency();
LOG(LL_INFO, ("motorFrequency=%d Hz", motorFrequency));
motorAddress = mgos_sys_config_get_flashLight_address();
LOG(LL_INFO, ("motorAddress=%d", motorAddress));
LOG(LL_INFO, ("Initializing motor controller"));
recalcTimings();
wemos_motor_init();
LOG(LL_INFO, ("Initializing motor M1"));
wemos_motor_initMotor(M1, motorAddress, motorFrequency);
LOG(LL_INFO, ("Setting up timer"));
motorUpdateTime_msec = mgos_sys_config_get_flashLight_motorUpdateTime();
mgos_set_timer(motorUpdateTime_msec, MGOS_TIMER_REPEAT, motor_timer_cb, NULL);
LOG(LL_INFO, ("Initialization done"));
return MGOS_APP_INIT_SUCCESS;
}
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