7 Commits
Author SHA1 Message Date
schmidtsi76327 b47f778fc1 weitere anpassungen an pwm 2021-06-25 21:10:07 +02:00
schmidtsi76327 c7eaffda00 moved to treppe.h instead of pwm.h :) 2021-06-25 19:23:02 +02:00
schmidtsi76327 69e1e869a5 old pwm 2021-06-25 19:14:30 +02:00
schmidtsi76327 1a284080e8 typo 2021-06-25 19:13:04 +02:00
schmidtsi76327 3490e7ba44 Merge branch 'master' into test 2021-06-25 19:11:58 +02:00
schmidtsi76327 d059c3d72d working, but need to write test 2021-06-25 18:35:16 +02:00
schmidtsi76327 55ebd21975 test 2021-06-25 04:53:06 +02:00
7 changed files with 249 additions and 103 deletions

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+3
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@@ -72,3 +72,6 @@ LED Flickering issue
https://github.com/NachtRaveVL/PCA9685-Arduino/issues/15 https://github.com/NachtRaveVL/PCA9685-Arduino/issues/15
PlatformIO Library veraltet PlatformIO Library veraltet
###TIMER in OTA unterbrechen !!!!!
-44
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@@ -1,44 +0,0 @@
#pragma once
#include "PCA9685.h"
#define SENSOR1 15
#define SENSOR2 12
#define INT_TIME 20 // interrupt intervall [ms]
class Treppe {
private:
uint8_t stairs;
uint16_t time_per_stair = 200; // dimmtime per stair [ms]
uint16_t idle_brightness = 0;
uint16_t active_brightness = 1048;
uint8_t direction = 0;
uint8_t switch_direction = 0;
uint8_t state = 0;
uint8_t switch_state = 0;
uint8_t finish = 1;
// initialize with i2c-Address 0, use Wire Library
PCA9685 pwmController;
uint8_t softstart_led(uint8_t led, uint16_t startval, uint16_t stopval);
void ledsequence();
public:
Treppe(uint8_t _stairs) : stairs(_stairs){}
void task(); // call periodically
void setup();
// Parameter section
uint16_t setIdle(uint16_t _idle_brightness);
uint16_t setActive(uint16_t _active_brightness);
uint16_t setTime(uint16_t _time_per_stair);
// Runtime Parameter section
uint8_t setDirection(uint8_t _direction);
uint8_t setState(uint8_t _state);
uint8_t getState() { return state;};
uint8_t getDirection() {return direction;};
};
+74 -25
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@@ -1,4 +1,4 @@
#include "pwm.h" #include "treppe.h"
uint8_t Treppe::softstart_led(uint8_t led, uint16_t startval, uint16_t stopval){ uint8_t Treppe::softstart_led(uint8_t led, uint16_t startval, uint16_t stopval){
/* /*
@@ -30,7 +30,7 @@ uint8_t Treppe::softstart_led(uint8_t led, uint16_t startval, uint16_t stopval){
else { else {
current_pwm += stepsize; current_pwm += stepsize;
} }
Serial.println((uint16_t)current_pwm); // Serial.println((uint16_t)current_pwm);
pwmController.setChannelPWM(led, (uint16_t)current_pwm); pwmController.setChannelPWM(led, (uint16_t)current_pwm);
if(current_pwm > stopval - stepsize && current_pwm < stopval + stepsize){ if(current_pwm > stopval - stepsize && current_pwm < stopval + stepsize){
if(stopval == 0) pwmController.setChannelPWM(led, 0); if(stopval == 0) pwmController.setChannelPWM(led, 0);
@@ -60,39 +60,80 @@ void Treppe::ledsequence(){
lastbrightness = active_brightness; lastbrightness = active_brightness;
} }
status = status_build; // set parameter memory status = status_build; // set parameter memory
Serial.print("----Status Changed! onoff: ");
Serial.print(state);
Serial.print(" dir: ");
Serial.println(direction);
Serial.printf("----Status Changed! onoff: %d, dir: %d\n", state, direction);
} }
if(!finish){ // finish == 0 -> action pending if(!finish){ // finish == 0 -> action pending
if(!softstart_led(led,lastbrightness, brightness)){ if(!softstart_led(led,lastbrightness, brightness)){
Serial.print("one LED finished: "); Serial.printf("one LED finished: led: %d, last: %d, curr %d\n",
Serial.print(led); led, lastbrightness, brightness);
Serial.print(" last: ");
Serial.print(lastbrightness);
Serial.print(" curr: ");
Serial.println(brightness);
if(direction){ if(direction){
led++; led++;
if(led >= stairs) { if(led >= stairs)
finish = 1; finish = 1;
//lastbrightness = brightness;
}
} }
else{ else{
led--; led--;
if(led < 0){ if(led < 0)
//lastbrightness = brightness;
finish = 1; finish = 1;
} }
} }
} }
} }
void Treppe::rampe()
{
if(state) {
finish = 0;
state = 0; // set parameter memory
}
if(!finish) {
if(direction) { // aufwärts
if(tick >= ticks_treppe-1) { // ziel erreicht
Serial.println("[Treppe] oberster tick !");
finish = 1;
return;
}
tick++; // eins hoch
}
else { // abwärts
if(tick <= 0) { // ziel erreicht
Serial.println("[Treppe] unterster tick !");
finish = 1;
return;
}
tick--; // eins runter
}
stufe = tick / ticks_pro_stufe;
float new_pwm = 0.0;
if(an_aus) {
new_pwm = differenz_pwm_pro_tick * (tick - ticks_pro_stufe*stufe);
new_pwm += idle_brightness;
if(direction) new_pwm += differenz_pwm_pro_tick;
}
else {
new_pwm = active_brightness - differenz_pwm_pro_tick * (tick - ticks_pro_stufe*stufe);
new_pwm += idle_brightness;
if(direction) new_pwm -= differenz_pwm_pro_tick;
}
pwmController.setChannelPWM(stufe, (uint16_t) new_pwm);
Serial.printf("tick %04u, led %02d:%02u, pwm %4.1f\n",
tick,
stufe,
(tick - ticks_pro_stufe*stufe),
new_pwm
);
}
} }
void Treppe::setup(){ void Treppe::setup(){
Serial.printf("differenz_pwm_pro_tick %f\n", differenz_pwm_pro_tick);
pwmController.resetDevices(); pwmController.resetDevices();
// Deactive PCA9685 Phase Balancer due to LED Flickering // Deactive PCA9685 Phase Balancer due to LED Flickering
@@ -108,6 +149,7 @@ void Treppe::setup(){
Serial.print("Treppe: initial parameters: stairs="); Serial.print("Treppe: initial parameters: stairs=");
Serial.println(stairs); Serial.println(stairs);
} }
void Treppe::task(){ void Treppe::task(){
if(finish){ if(finish){
@@ -120,32 +162,41 @@ void Treppe::task(){
current_sensor_state[1] = digitalRead(SENSOR2); current_sensor_state[1] = digitalRead(SENSOR2);
if(current_sensor_state[0] && !last_sensor_state[0] && state == 0){ if(current_sensor_state[0] && !last_sensor_state[0] && state == 0){
setTick(0);
setAnAus(1);
setDirection(1); setDirection(1);
setState(1); setState(1);
} }
if(current_sensor_state[1] && !last_sensor_state[1] && state == 0){ if(current_sensor_state[1] && !last_sensor_state[1] && state == 0){
setTick(0);
setAnAus(0);
setDirection(0); setDirection(0);
setState(1); setState(1);
} }
// first switch - off approach, use timer later // first switch - off approach, use timer later
if(!current_sensor_state[0] && last_sensor_state[0] && state == 1){ if(!current_sensor_state[0] && last_sensor_state[0] && state == 1){
setTick(ticks_treppe);
setAnAus(1);
setDirection(1); setDirection(1);
setState(0); setState(0);
} }
if(!current_sensor_state[1] && last_sensor_state[1] && state == 1){ if(!current_sensor_state[1] && last_sensor_state[1] && state == 1){
setTick(ticks_treppe);
setAnAus(1);
setDirection(0); setDirection(0);
setState(0); setState(0);
} }
last_sensor_state[0] = current_sensor_state[0]; last_sensor_state[0] = current_sensor_state[0];
last_sensor_state[1] = current_sensor_state[1]; last_sensor_state[1] = current_sensor_state[1];
ledsequence();
ledsequence();
} }
uint16_t Treppe::setIdle(uint16_t _idle_brightness){ uint16_t Treppe::setIdle(uint16_t _idle_brightness){
idle_brightness = _idle_brightness; idle_brightness = _idle_brightness;
Serial.println("Treppe: idle brightness changed!"); Serial.println("Treppe: idle brightness changed!");
@@ -162,22 +213,20 @@ uint16_t Treppe::setTime(uint16_t _time_per_stair){
return time_per_stair; return time_per_stair;
} }
uint8_t Treppe::setDirection(uint8_t _direction){ void Treppe::setDirection(uint8_t _direction){
switch_direction = _direction; switch_direction = _direction;
Serial.println("Treppe: Direction changed!"); Serial.printf("Treppe: switch_direction=%d!\n", switch_direction);
if(finish) Serial.println("apply direction request immediately"); if(finish) Serial.println("apply direction request immediately");
else Serial.println("currently active, dir change afterwards"); else Serial.println("currently active, dir change afterwards");
// to do: implement state command variable to determine dimm-state // to do: implement state command variable to determine dimm-state
return switch_direction;
} }
uint8_t Treppe::setState(uint8_t _state){ void Treppe::setState(uint8_t _state){
if(state == _state) return 1; if(state == _state) return;
else { else {
switch_state = _state; switch_state = _state;
Serial.println("Treppe: State Request changed!"); Serial.printf("Treppe: switch_state=%d!\n", switch_state);
if(finish) Serial.println("apply state request immediately"); if(finish) Serial.println("apply state request immediately");
else Serial.println("currently active, state changes after activity"); else Serial.println("currently active, state changes after activity");
} }
return 0;
} }
+75
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@@ -0,0 +1,75 @@
#pragma once
#include "PCA9685.h"
#define SENSOR1 15
#define SENSOR2 12
#define INT_TIME 20 // interrupt intervall [ms]
class Treppe {
private:
uint8_t stairs;
uint16_t time_per_stair = 300; // dimmtime per stair [ms]
uint16_t idle_brightness = 0;
uint16_t active_brightness = 500;
uint8_t direction = 0;
uint8_t switch_direction = 0;
uint8_t state = 0;
uint8_t switch_state = 0;
uint8_t finish = 1;
// alternative
uint32_t tick = 0;
uint32_t stufe = 0;
uint8_t an_aus = 0;
uint32_t ticks_treppe = 0;
uint32_t ticks_pro_stufe = 0;
float differenz_pwm_pro_tick = 0.0;
// alternative
// initialize with i2c-Address 0, use Wire Library
PCA9685 pwmController;
uint8_t softstart_led(uint8_t led, uint16_t startval, uint16_t stopval);
void ledsequence();
void rampe();
public:
Treppe(uint8_t _stairs) : stairs(_stairs){
ticks_pro_stufe = time_per_stair / 20; // [ms]
ticks_treppe = ticks_pro_stufe * stairs;
differenz_pwm_pro_tick = (float) (active_brightness - idle_brightness)
/ (float) ticks_pro_stufe;
}
void setup();
void task(); // call periodically
// Parameter section
uint16_t setIdle(uint16_t _idle_brightness);
uint16_t setActive(uint16_t _active_brightness);
uint16_t setTime(uint16_t _time_per_stair);
void setTick(uint32_t _tick) {
tick = _tick;
Serial.printf("Treppe: Tick: %u!\n", tick);
}
uint32_t getTicks() {
return ticks_treppe;
}
// Runtime Parameter section
void setDirection(uint8_t _direction);
void setState(uint8_t _state);
void setAnAus(uint8_t _an_aus) {
an_aus = _an_aus;
}
uint8_t getState() { return state;};
uint8_t getFinished() { return finish;};
uint8_t getDirection() {return direction;};
};
+19 -4
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@@ -18,10 +18,10 @@ extern "C" {
#define NODEMCU_LED 16 #define NODEMCU_LED 16
// PWM // PWM
#include "pwm.h" #include "treppe.h"
os_timer_t timer1; os_timer_t timer1;
uint8_t timer_flag = 0; uint8_t timer_flag = 0;
Treppe stairs(13); Treppe stairs(16);
// WIFI // WIFI
const char* ssid = STASSID; const char* ssid = STASSID;
@@ -105,7 +105,22 @@ void setup() {
os_timer_arm(&timer1, 20, true); os_timer_arm(&timer1, 20, true);
} }
#include <random>
void loop() { void loop() {
TIMEIF_US(ArduinoOTA.handle(), 1000, "OTA"); // if(stairs.getState() == 0) {
TIMEIF_US(httpServer.handleClient(), 1000, "HTTP"); // delay(1000);
// // uint32_t t = rand() % stairs.getTicks();
// // uint32_t d = rand() % 2;
// // stairs.setTick(t);
// // stairs.setDirection(d);
// stairs.setDirection(!stairs.getDirection());
// stairs.setState(1);
// }
TIMEIF_US(ArduinoOTA.handle(), 10000, "OTA");
TIMEIF_US(httpServer.handleClient(), 10000, "HTTP");
} }
+30 -30
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@@ -1,40 +1,40 @@
#include <Arduino.h> // #include <Arduino.h>
#include <unity.h> // #include <unity.h>
String STR_TO_TEST; // String STR_TO_TEST;
void setUp(void) { // // void setUp(void) {
// set stuff up here // // // set stuff up here
STR_TO_TEST = "Hello, world!"; // // STR_TO_TEST = "Hello, world!";
} // // }
void tearDown(void) { // // void tearDown(void) {
// clean stuff up here // // // clean stuff up here
STR_TO_TEST = ""; // // STR_TO_TEST = "";
} // // }
void test_led_builtin_pin_number(void) { // void test_led_builtin_pin_number(void) {
TEST_ASSERT_EQUAL(2, LED_BUILTIN); // TEST_ASSERT_EQUAL(2, LED_BUILTIN);
} // }
void test_string_concat(void) { // void test_string_concat(void) {
String hello = "Hello, "; // String hello = "Hello, ";
String world = "world!"; // String world = "world!";
TEST_ASSERT_EQUAL_STRING(STR_TO_TEST.c_str(), (hello + world).c_str()); // TEST_ASSERT_EQUAL_STRING(STR_TO_TEST.c_str(), (hello + world).c_str());
} // }
void setup() // void setup()
{ // {
delay(2000); // service delay // delay(2000); // service delay
UNITY_BEGIN(); // UNITY_BEGIN();
RUN_TEST(test_led_builtin_pin_number); // RUN_TEST(test_led_builtin_pin_number);
RUN_TEST(test_string_concat); // RUN_TEST(test_string_concat);
UNITY_END(); // stop unit testing // UNITY_END(); // stop unit testing
} // }
void loop() // void loop()
{ // {
} // }
+48
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@@ -0,0 +1,48 @@
#include <Arduino.h>
#include "treppe.h"
#include <unity.h>
Treppe stairs(10);
void setUp(void) {
// run before each test
// set stuff up here
stairs.setup();
Serial.println("Treppe initialized !");
Serial.println("PCA9685 connected !");
}
void tearDown(void) {
// clean stuff up here
}
void test_set_state(void) {
stairs.setState(1);
TEST_ASSERT_EQUAL(1, stairs.getState());
stairs.setState(0);
TEST_ASSERT_EQUAL(0, stairs.getState());
}
void test_set_direction(void) {
stairs.setDirection(1);
TEST_ASSERT_EQUAL(1, stairs.getDirection());
stairs.setDirection(0);
TEST_ASSERT_EQUAL(0, stairs.getDirection());
}
void setup()
{
delay(2000); // service delay
UNITY_BEGIN();
RUN_TEST(test_set_state);
RUN_TEST(test_set_direction);
UNITY_END(); // stop unit testing
}
void loop()
{
}