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+1
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@@ -1,6 +1,7 @@
.pio .pio
.vscode .vscode
.vscode/* .vscode/*
.vscode/**
compress compress
data_gz data_gz
platformio.ini platformio.ini
-7
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@@ -1,7 +0,0 @@
{
// See http://go.microsoft.com/fwlink/?LinkId=827846
// for the documentation about the extensions.json format
"recommendations": [
"platformio.platformio-ide"
]
}
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@@ -1,53 +0,0 @@
{
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"random": "cpp",
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"deque": "cpp",
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"string": "cpp",
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"vector": "cpp",
"string_view": "cpp",
"memory": "cpp",
"ranges": "cpp",
"initializer_list": "cpp",
"utility": "cpp",
"atomic": "cpp",
"bit": "cpp",
"cctype": "cpp",
"clocale": "cpp",
"cmath": "cpp",
"compare": "cpp",
"concepts": "cpp",
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"cstring": "cpp",
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"map": "cpp",
"set": "cpp",
"exception": "cpp",
"algorithm": "cpp",
"functional": "cpp",
"iterator": "cpp",
"memory_resource": "cpp",
"numeric": "cpp",
"optional": "cpp",
"system_error": "cpp",
"tuple": "cpp",
"type_traits": "cpp",
"iosfwd": "cpp",
"limits": "cpp",
"new": "cpp",
"ostream": "cpp",
"stdexcept": "cpp",
"streambuf": "cpp",
"cinttypes": "cpp",
"typeinfo": "cpp"
},
"python.pythonPath": "C:\\Users\\simon\\AppData\\Local\\Programs\\Python\\Python37\\python.exe"
}
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//
// Academic License - for use in teaching, academic research, and meeting
// course requirements at degree granting institutions only. Not for
// government, commercial, or other organizational use.
//
// File: FSMTreppe.cpp
//
// Code generated for Simulink model 'FSMTreppe'.
//
// Model version : 1.29
// Simulink Coder version : 9.5 (R2021a) 14-Nov-2020
// C/C++ source code generated on : Sat Jul 3 17:39:25 2021
//
// Target selection: ert.tlc
// Embedded hardware selection: ARM Compatible->ARM Cortex-M
// Code generation objectives: Unspecified
// Validation result: Not run
//
#include "FSMTreppe2.h"
#include <stdint.h>
// Named constants for Chart: '<Root>/FSMTreppe'
const uint8_t FSMTreppe_IN_abdimmen_hoch = 1U;
const uint8_t FSMTreppe_IN_abdimmen_runter = 2U;
const uint8_t FSMTreppe_IN_aufdimmen_hoch = 3U;
const uint8_t FSMTreppe_IN_aufdimmen_runter = 4U;
const uint8_t FSMTreppe_IN_inaktiv = 5U;
const uint8_t FSMTreppe_IN_ruhezustand = 6U;
const uint8_t FSMTreppe_IN_warten_hoch = 7U;
const uint8_t FSMTreppe_IN_warten_runter = 8U;
// Model step function
void FSMTreppeModelClass::step()
{
// Chart: '<Root>/FSMTreppe' incorporates:
// Inport: '<Root>/anim_beendet'
// Inport: '<Root>/ldr_schwelle'
// Inport: '<Root>/sensor_oben'
// Inport: '<Root>/sensor_unten'
if (FSMTreppe_DW.temporalCounter_i1 < 511U) {
FSMTreppe_DW.temporalCounter_i1 = static_cast<uint16_t>
(FSMTreppe_DW.temporalCounter_i1 + 1U);
}
if (FSMTreppe_DW.is_active_c3_FSMTreppe == 0U) {
FSMTreppe_DW.is_active_c3_FSMTreppe = 1U;
FSMTreppe_DW.is_c3_FSMTreppe = FSMTreppe_IN_inaktiv;
// Outport: '<Root>/status'
FSMTreppe_Y.status = 0U;
} else {
switch (FSMTreppe_DW.is_c3_FSMTreppe) {
case FSMTreppe_IN_abdimmen_hoch:
// Outport: '<Root>/dimmrichtung'
FSMTreppe_Y.dimmrichtung = 0U;
// Outport: '<Root>/status'
FSMTreppe_Y.status = 4U;
if (FSMTreppe_U.anim_beendet || (FSMTreppe_DW.temporalCounter_i1 >= 500U))
{
FSMTreppe_DW.is_c3_FSMTreppe = FSMTreppe_IN_ruhezustand;
// Outport: '<Root>/status'
FSMTreppe_Y.status = 1U;
}
break;
case FSMTreppe_IN_abdimmen_runter:
// Outport: '<Root>/dimmrichtung'
FSMTreppe_Y.dimmrichtung = 0U;
// Outport: '<Root>/status'
FSMTreppe_Y.status = 7U;
if (FSMTreppe_U.anim_beendet || (FSMTreppe_DW.temporalCounter_i1 >= 500U))
{
FSMTreppe_DW.is_c3_FSMTreppe = FSMTreppe_IN_ruhezustand;
// Outport: '<Root>/status'
FSMTreppe_Y.status = 1U;
}
break;
case FSMTreppe_IN_aufdimmen_hoch:
// Outport: '<Root>/laufrichtung'
FSMTreppe_Y.laufrichtung = 1U;
// Outport: '<Root>/dimmrichtung'
FSMTreppe_Y.dimmrichtung = 1U;
// Outport: '<Root>/status'
FSMTreppe_Y.status = 2U;
if (FSMTreppe_U.anim_beendet || (FSMTreppe_DW.temporalCounter_i1 >= 500U))
{
FSMTreppe_DW.is_c3_FSMTreppe = FSMTreppe_IN_warten_hoch;
FSMTreppe_DW.temporalCounter_i1 = 0U;
// Outport: '<Root>/status'
FSMTreppe_Y.status = 3U;
}
break;
case FSMTreppe_IN_aufdimmen_runter:
// Outport: '<Root>/laufrichtung'
FSMTreppe_Y.laufrichtung = 0U;
// Outport: '<Root>/dimmrichtung'
FSMTreppe_Y.dimmrichtung = 1U;
// Outport: '<Root>/status'
FSMTreppe_Y.status = 5U;
if (FSMTreppe_U.anim_beendet || (FSMTreppe_DW.temporalCounter_i1 >= 500U))
{
FSMTreppe_DW.is_c3_FSMTreppe = FSMTreppe_IN_warten_runter;
FSMTreppe_DW.temporalCounter_i1 = 0U;
// Outport: '<Root>/status'
FSMTreppe_Y.status = 6U;
}
break;
case FSMTreppe_IN_inaktiv:
// Outport: '<Root>/status'
FSMTreppe_Y.status = 0U;
if (FSMTreppe_U.ldr_schwelle == 1.0) {
FSMTreppe_DW.is_c3_FSMTreppe = FSMTreppe_IN_ruhezustand;
// Outport: '<Root>/status'
FSMTreppe_Y.status = 1U;
}
break;
case FSMTreppe_IN_ruhezustand:
// Outport: '<Root>/status'
FSMTreppe_Y.status = 1U;
if (FSMTreppe_U.sensor_unten) {
FSMTreppe_DW.is_c3_FSMTreppe = FSMTreppe_IN_aufdimmen_hoch;
FSMTreppe_DW.temporalCounter_i1 = 0U;
// Outport: '<Root>/laufrichtung'
FSMTreppe_Y.laufrichtung = 1U;
// Outport: '<Root>/dimmrichtung'
FSMTreppe_Y.dimmrichtung = 1U;
// Outport: '<Root>/status'
FSMTreppe_Y.status = 2U;
} else if (FSMTreppe_U.sensor_oben) {
FSMTreppe_DW.is_c3_FSMTreppe = FSMTreppe_IN_aufdimmen_runter;
FSMTreppe_DW.temporalCounter_i1 = 0U;
// Outport: '<Root>/laufrichtung'
FSMTreppe_Y.laufrichtung = 0U;
// Outport: '<Root>/dimmrichtung'
FSMTreppe_Y.dimmrichtung = 1U;
// Outport: '<Root>/status'
FSMTreppe_Y.status = 5U;
} else if (FSMTreppe_U.ldr_schwelle == 0.0) {
FSMTreppe_DW.is_c3_FSMTreppe = FSMTreppe_IN_inaktiv;
// Outport: '<Root>/status'
FSMTreppe_Y.status = 0U;
}
break;
case FSMTreppe_IN_warten_hoch:
// Outport: '<Root>/status'
FSMTreppe_Y.status = 3U;
if (FSMTreppe_U.sensor_oben || (FSMTreppe_DW.temporalCounter_i1 >= 500U))
{
FSMTreppe_DW.is_c3_FSMTreppe = FSMTreppe_IN_abdimmen_hoch;
FSMTreppe_DW.temporalCounter_i1 = 0U;
// Outport: '<Root>/dimmrichtung'
FSMTreppe_Y.dimmrichtung = 0U;
// Outport: '<Root>/status'
FSMTreppe_Y.status = 4U;
}
break;
default:
// Outport: '<Root>/status'
// case IN_warten_runter:
FSMTreppe_Y.status = 6U;
if (FSMTreppe_U.sensor_unten || (FSMTreppe_DW.temporalCounter_i1 >= 500U))
{
FSMTreppe_DW.is_c3_FSMTreppe = FSMTreppe_IN_abdimmen_runter;
FSMTreppe_DW.temporalCounter_i1 = 0U;
// Outport: '<Root>/dimmrichtung'
FSMTreppe_Y.dimmrichtung = 0U;
// Outport: '<Root>/status'
FSMTreppe_Y.status = 7U;
}
break;
}
}
// End of Chart: '<Root>/FSMTreppe'
}
// Model initialize function
void FSMTreppeModelClass::initialize()
{
// (no initialization code required)
}
// Model terminate function
void FSMTreppeModelClass::terminate()
{
// (no terminate code required)
}
// Constructor
FSMTreppeModelClass::FSMTreppeModelClass() :
FSMTreppe_DW(),
FSMTreppe_U(),
FSMTreppe_Y()
{
// Currently there is no constructor body generated.
}
// Destructor
FSMTreppeModelClass::~FSMTreppeModelClass()
{
// Currently there is no destructor body generated.
}
//
// File trailer for generated code.
//
// [EOF]
//
+119
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@@ -0,0 +1,119 @@
//
// Academic License - for use in teaching, academic research, and meeting
// course requirements at degree granting institutions only. Not for
// government, commercial, or other organizational use.
//
// File: FSMTreppe.h
//
// Code generated for Simulink model 'FSMTreppe'.
//
// Model version : 1.28
// Simulink Coder version : 9.5 (R2021a) 14-Nov-2020
// C/C++ source code generated on : Sat Jul 3 13:50:17 2021
//
// Target selection: ert.tlc
// Embedded hardware selection: ARM Compatible->ARM Cortex-M
// Code generation objectives: Unspecified
// Validation result: Not run
//
#ifndef RTW_HEADER_FSMTreppe_h_
#define RTW_HEADER_FSMTreppe_h_
#include <stdint.h>
// Class declaration for model FSMTreppe
class FSMTreppeModelClass {
// public data and function members
public:
// Block states (default storage) for system '<Root>'
struct DW_FSMTreppe_T {
uint16_t temporalCounter_i1; // '<Root>/FSMTreppe'
uint8_t is_active_c3_FSMTreppe; // '<Root>/FSMTreppe'
uint8_t is_c3_FSMTreppe; // '<Root>/FSMTreppe'
};
// External inputs (root inport signals with default storage)
struct ExtU_FSMTreppe_T {
bool sensor_unten; // '<Root>/sensor_unten'
bool sensor_oben; // '<Root>/sensor_oben'
bool anim_beendet; // '<Root>/anim_beendet'
double ldr_schwelle; // '<Root>/ldr_schwelle'
};
// External outputs (root outports fed by signals with default storage)
struct ExtY_FSMTreppe_T {
uint8_t laufrichtung; // '<Root>/laufrichtung'
uint8_t status; // '<Root>/status'
uint8_t dimmrichtung; // '<Root>/dimmrichtung'
};
// model initialize function
void initialize();
// model step function
void step();
// model terminate function
void terminate();
// Constructor
FSMTreppeModelClass();
// Destructor
~FSMTreppeModelClass();
// Root-level structure-based inputs set method
// Root inports set method
void setExternalInputs(const ExtU_FSMTreppe_T* pExtU_FSMTreppe_T)
{
FSMTreppe_U = *pExtU_FSMTreppe_T;
}
// Root-level structure-based outputs get method
// Root outports get method
const FSMTreppeModelClass::ExtY_FSMTreppe_T & getExternalOutputs() const
{
return FSMTreppe_Y;
}
// private data and function members
private:
// Block states
DW_FSMTreppe_T FSMTreppe_DW;
// External inputs
ExtU_FSMTreppe_T FSMTreppe_U;
// External outputs
ExtY_FSMTreppe_T FSMTreppe_Y;
};
//-
// The generated code includes comments that allow you to trace directly
// back to the appropriate location in the model. The basic format
// is <system>/block_name, where system is the system number (uniquely
// assigned by Simulink) and block_name is the name of the block.
//
// Note that this particular code originates from a subsystem build,
// and has its own system numbers different from the parent model.
// Refer to the system hierarchy for this subsystem below, and use the
// MATLAB hilite_system command to trace the generated code back
// to the parent model. For example,
//
// hilite_system('FSM_Treppenlicht/FSMTreppe') - opens subsystem FSM_Treppenlicht/FSMTreppe
// hilite_system('FSM_Treppenlicht/FSMTreppe/Kp') - opens and selects block Kp
//
// Here is the system hierarchy for this model
//
// '<Root>' : 'FSM_Treppenlicht'
// '<S1>' : 'FSM_Treppenlicht/FSMTreppe'
#endif // RTW_HEADER_FSMTreppe_h_
//
// File trailer for generated code.
//
// [EOF]
//
+42 -37
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@@ -132,10 +132,8 @@ void Treppe::rampe()
} }
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
// https://github.com/NachtRaveVL/PCA9685-Arduino/issues/15 // https://github.com/NachtRaveVL/PCA9685-Arduino/issues/15
// see also lib/PCA9685-Arduin/PCA9685.h:204 // see also lib/PCA9685-Arduin/PCA9685.h:204
@@ -145,60 +143,67 @@ void Treppe::setup(){
pwmController.setAllChannelsPWM(idle_brightness); pwmController.setAllChannelsPWM(idle_brightness);
pinMode(A0, INPUT); pinMode(A0, INPUT);
pinMode(SENSOR1, INPUT); pinMode(SENSOR_OBEN, INPUT);
pinMode(SENSOR2, INPUT); pinMode(SENSOR_UNTEN, INPUT);
pinMode(OE, OUTPUT); pinMode(OE, OUTPUT);
digitalWrite(OE, 0); digitalWrite(OE, 0);
Serial.printf("differenz_pwm_pro_tick %f\n", differenz_pwm_pro_tick);
Serial.println("Hello from Treppe"); Serial.println("Hello from Treppe");
Serial.print("Treppe: initial parameters: stairs="); Serial.print("Treppe: initial parameters: stairs=");
Serial.println(stairs); Serial.println(stairs);
} }
void Treppe::print_state_on_change() {
static FSMTreppeModelClass::ExtU_FSMTreppe_T last_in;
static FSMTreppeModelClass::ExtY_FSMTreppe_T last_out;
if(
fsm_inputs.anim_beendet != last_in.anim_beendet ||
fsm_inputs.sensor_oben != last_in.sensor_oben ||
fsm_inputs.sensor_unten != last_in.sensor_unten ||
fsm_outputs.dimmrichtung != last_out.dimmrichtung ||
fsm_outputs.laufrichtung != last_out.laufrichtung ||
fsm_outputs.status != last_out.status
) {
last_in.anim_beendet = fsm_inputs.anim_beendet;
last_in.sensor_oben = fsm_inputs.sensor_oben;
last_in.sensor_unten = fsm_inputs.sensor_unten;
Serial.printf("FSM IN: s_u: %d, s_o: %d, beendet: %d =>",
fsm_inputs.sensor_oben, fsm_inputs.sensor_unten, fsm_inputs.anim_beendet);
Serial.print(" step => ");
Serial.printf("OUT: LR: %d DR: %d ST: %d\n",
fsm_outputs.laufrichtung, fsm_outputs.dimmrichtung, fsm_outputs.status);
}
}
void Treppe::task(){ void Treppe::task(){
//Serial.printf("LDR: %f\n", ((float)analogRead(A0))/1023.*3.68);
if(finish){ if(finish){
direction = switch_direction; direction = switch_direction;
state = switch_state; state = switch_state;
} }
static uint8_t last_sensor_state[2] = {0,0};
uint8_t current_sensor_state[2] = {0,0};
current_sensor_state[0] = digitalRead(SENSOR1);
current_sensor_state[1] = digitalRead(SENSOR2);
if(current_sensor_state[0] && !last_sensor_state[0] && state == 0){ fsm_inputs.ldr_schwelle = true;
setTick(0); fsm_inputs.sensor_oben = read_sensor(SENSOR_OBEN);
setAnAus(1); fsm_inputs.sensor_unten = read_sensor(SENSOR_UNTEN);
setDirection(1); fsm_inputs.anim_beendet = static_cast<bool>(finish);
setState(1);
}
if(current_sensor_state[1] && !last_sensor_state[1] && state == 0){ FSMTreppe_Obj.setExternalInputs(&fsm_inputs);
setTick(0); FSMTreppe_Obj.step();
setAnAus(0); fsm_outputs = FSMTreppe_Obj.getExternalOutputs();
setDirection(0); print_state_on_change();
setState(1);
}
// first switch - off approach, use timer later direction = fsm_outputs.laufrichtung;
if(!current_sensor_state[0] && last_sensor_state[0] && state == 1){ state = fsm_outputs.dimmrichtung;
setTick(ticks_treppe);
setAnAus(1);
setDirection(1);
setState(0);
}
if(!current_sensor_state[1] && last_sensor_state[1] && state == 1){ // setTick(ticks_treppe);
setTick(ticks_treppe); // setAnAus(1);
setAnAus(1); // setDirection(0);
setDirection(0); // setState(0);
setState(0);
}
last_sensor_state[0] = current_sensor_state[0];
last_sensor_state[1] = current_sensor_state[1];
ledsequence(); ledsequence();
//Serial.printf("LDR: %f\n", ((float)analogRead(A0))/1023.*3.68);
} }
+27 -6
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@@ -1,25 +1,27 @@
#pragma once #pragma once
#include "FSMTreppe/FSMTreppe2.h"
#include "PCA9685.h" #include "PCA9685.h"
#define SENSOR1 2 #define SENSOR_OBEN 2
#define SENSOR2 12 #define SENSOR_UNTEN 12
#define OE 14 #define OE 14
#define INT_TIME 20 // interrupt intervall [ms] #define INT_TIME 20 // interrupt intervall [ms]
class Treppe { class Treppe {
private: private:
uint8_t stairs; uint8_t stairs;
uint16_t time_per_stair = 300; // dimmtime per stair [ms] uint16_t time_per_stair = 300; // dimmtime per stair [ms]
uint16_t idle_brightness = 100; uint16_t idle_brightness = 100;
uint16_t active_brightness = 2048; uint16_t active_brightness = 300;
uint8_t direction = 0; uint8_t direction = 0;
uint8_t switch_direction = 0; uint8_t switch_direction = 0;
uint8_t state = 0; uint8_t state = 0;
uint8_t switch_state = 0; uint8_t switch_state = 0;
uint8_t finish = 1; bool finish = 1;
// alternative // alternative
uint32_t tick = 0; uint32_t tick = 0;
@@ -31,21 +33,40 @@ private:
float differenz_pwm_pro_tick = 0.0; float differenz_pwm_pro_tick = 0.0;
// alternative // alternative
// initialize with i2c-Address 0, use Wire Library // initialize with i2c-Address 0, use Wire Library
PCA9685 pwmController; PCA9685 pwmController;
FSMTreppeModelClass FSMTreppe_Obj;
FSMTreppeModelClass::ExtU_FSMTreppe_T fsm_inputs;
FSMTreppeModelClass::ExtY_FSMTreppe_T fsm_outputs;
void print_state_on_change();
const uint8_t FSMTreppe_IN_animation_down = 1U;
const uint8_t FSMTreppe_IN_animation_up = 2U;
const uint8_t FSMTreppe_IN_idle = 3U;
uint8_t softstart_led(uint8_t led, uint16_t startval, uint16_t stopval); uint8_t softstart_led(uint8_t led, uint16_t startval, uint16_t stopval);
void ledsequence(); void ledsequence();
void rampe(); void rampe();
bool read_sensor(int sensor) {
int pegel = digitalRead(sensor);
return static_cast<bool>(pegel);
}
public: public:
Treppe(uint8_t _stairs) : stairs(_stairs){ Treppe(uint8_t _stairs) : stairs(_stairs){
FSMTreppe_Obj.initialize();
ticks_pro_stufe = time_per_stair / 20; // [ms] ticks_pro_stufe = time_per_stair / 20; // [ms]
ticks_treppe = ticks_pro_stufe * stairs; ticks_treppe = ticks_pro_stufe * stairs;
differenz_pwm_pro_tick = (float) (active_brightness - idle_brightness) differenz_pwm_pro_tick = (float) (active_brightness - idle_brightness)
/ (float) ticks_pro_stufe; / (float) ticks_pro_stufe;
} }
~Treppe() {
FSMTreppe_Obj.terminate();
}
void setup(); void setup();
void task(); // call periodically void task(); // call periodically