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This commit is contained in:
danielvici123
2025-04-02 11:33:52 +02:00
parent 6ee3cb1211
commit 51468e220a
52 changed files with 1269 additions and 622 deletions
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54
INF/KA3/KA3_Aufg1_2025_03_28/KA3_Aufg1_2025_03_28.ino Normal file
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@@ -0,0 +1,54 @@
/* KA3 2025-03-28 Vorlage Aufgabe 1, Teil 2 bis 3
* I2C-Bus, Temperaturmessung und LED-Ansteuerung */
#include <Wire.h>
// LED0 LED1 LED2 LED3
byte Muster[ ] = {0b0000001, 0b0000011, 0b0000110, 0b0001100, 0b00011000, 0b00110000, 0b01100000, 0b10000000, 0b110000000};
byte LowByte, HighByte;
uint16_t Messwert;
float fTemperatur;
#define lm75_addr 0b1001010
void setup() {
Serial.begin ( 115200 );
Serial.println("DANIEL CWIKLA"); // bitte ändern!
Messwert = 0;
fTemperatur = 0.0;
Wire.begin();
}
void loop() {
// hier kann mit delay gearbeitet werden
Wire.requestFrom(lm75_addr, 2 );
if( Wire.available( ) >= 2 ) {
//Messwert = Wire.read();
HighByte = Wire.read();
LowByte = Wire.read();
//Serial.print("Messwert: ");
//Serial.println(Messwert);
Serial.print("HL Byte:");
fTemperatur = HighByte << LowByte;
Serial.println(fTemperatur);
}
delay(100);
matrix();
}
void matrix(){
Wire.beginTransmission(0b0111011);
// ----------------------------------
// | LEDS low aktiv 0 -> 1 , 1 -> 0 |
// ----------------------------------
Wire.write(0b1111110);
Wire.write(0b1111100);
Wire.write(0b1111001);
Wire.write(0b1110011);
Wire.write(0b11100111);
Wire.write(0b11001111);
Wire.write(0b10011111);
Wire.write(0b10111111);
Wire.write(0b00111111);
Wire.endTransmission();
}

28
INF/KA3/KA3_Aufg2_2025_03_28/KA3_Aufg2_2025_03_28.ino Normal file
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@@ -0,0 +1,28 @@
/* KA3 2025-03-28 Vorlage Aufgabe 2
* AD-Wandler, Kennlinie mit map */
int16_t DigitalWert, Sollwert1, Sollwert2;
uint32_t NextTime = 0, CurrentTime;
void setup() {
Serial.begin(115200);
}
void loop() {
// 2.1) 2x pro Sekunde Analog-Eingang 0 einlesen und ausgeben
CurrentTime = millis();
if (CurrentTime - NextTime >= 1000) {
DigitalWert = analogRead(A0);
Serial.print("Digitalwert: ");
Serial.println(DigitalWert);
NextTime = CurrentTime;
// 2.3) mit map-Funktion in Sollwert1 umrechnen und ausgeben
Sollwert1 = map(DigitalWert, 0, 4095, 285, 3694);
Serial.print("Sollwert1: ");
Serial.println(Sollwert1);
// 2.4) Sollwert2 begrenzen auf 0 bis 1000 und Sollwert1, Sollwert2 ausgeben
Sollwert2 = map(Sollwert1, 285, 3694, 0, 1000);
Serial.print("Sollwert2: ");
Serial.println(Sollwert2);
}
}

27
INF/lernen/sketch_mar28a/sketch_mar28a.ino Normal file
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@@ -0,0 +1,27 @@
void setup(){
}
void loop(){
Wire.beginTransmission ( I2C_Adresse );
Wire.write( Datenbyte ); // Datenbyte oder Registeradresse
Wire.endTransmission( );
byte Daten1, Daten2, Daten3;
Wire.requestFrom ( I2C_Adresse, 3 ); // Baustein und Anzahl der Bytes
if( Wire.available( ) >= 3 ) {
Daten1 = Wire.read( );
Daten2 = Wire.read( );
Daten3 = Wire.read( );
}
byte Daten1, Daten2, Daten3;
Wire.beginTransmission ( I2C_Adresse );
Wire.write( Registeradresse ); // Auswahl einer internen Registeradresse
Wire.endTransmission( false ); // true oder ( ) sendet ein Stop, false
// sendet kein Stop!
Wire.requestFrom ( I2C_Adresse, 3 );
if( Wire.available( ) >= 3 ) {
Daten1 = Wire.read( );
Daten2 = Wire.read( );
Daten3 = Wire.read( );
}

50
INF/lernen/sketch_mar28b/sketch_mar28b.ino Normal file
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@@ -0,0 +1,50 @@
// ESP32 Timer Testprogramm
hw_timer_t *MeinTimer = NULL; // beliebiger Name
volatile int Zaehler = 0; // wird in ISR verändert => volatile
uint32_t LastTime = 0;
// ***** Pins deklarieren
const int Taster2=2;
bool bTuWas;
// ****** Funktionsprototypen
void Ruecksetzen ( void );
void Counter ( void );
void setup() {
Serial.begin(115200);
Serial.println("Hello, from ESP32!");
// Pins Konfigurieren
pinMode(Taster2, INPUT); // INPUT_PULLUP bei realer Platine
attachInterrupt(digitalPinToInterrupt(Taster2),&Ruecksetzen,FALLING);
// Timer1 konfigurieren
MeinTimer = timerBegin(1, 80, true); // Timer1, Vorteiler 80, Aufwärts
timerAlarmWrite(MeinTimer, 10000, true);// Alarm 10000 => alle 10ms ein Alarm
timerAttachInterrupt(MeinTimer, &Counter, true); // ISR Counter verknüpfen
timerAlarmEnable(MeinTimer);
timerStart(MeinTimer);
}
void loop() {
// 1 mal pro Sekunde den aktuellen Zählerstand ausgeben:
if( millis()- LastTime >= 1000) {
LastTime = millis();
Serial.println(Zaehler);
}
delay(10); // this speeds up the simulation
}
// Rücksetzen per Taster-Interrupt
void IRAM_ATTR Ruecksetzen ( void ) {
Zaehler =0;
}
// Hochzählen per Timer-Interrrupt
void IRAM_ATTR Counter( void ) {
Zaehler ++;
}

38
INF/libraries/Adafruit_GFX_Library/Adafruit_GFX.cpp
View File

@@ -1758,13 +1758,22 @@ const uint8_t PROGMEM GFXcanvas1::GFXclrBit[] = {0x7F, 0xBF, 0xDF, 0xEF,
@brief Instatiate a GFX 1-bit canvas context for graphics
@param w Display width, in pixels
@param h Display height, in pixels
@param allocate_buffer If true, a buffer is allocated with malloc. If
false, the subclass must initialize the buffer before any drawing operation,
and free it in the destructor. If false (the default), the buffer is
allocated and freed by the library.
*/
/**************************************************************************/
GFXcanvas1::GFXcanvas1(uint16_t w, uint16_t h) : Adafruit_GFX(w, h) {
GFXcanvas1::GFXcanvas1(uint16_t w, uint16_t h, bool allocate_buffer)
: Adafruit_GFX(w, h), buffer_owned(allocate_buffer) {
if (allocate_buffer) {
uint32_t bytes = ((w + 7) / 8) * h;
if ((buffer = (uint8_t *)malloc(bytes))) {
memset(buffer, 0, bytes);
}
} else {
buffer = nullptr;
}
}
/**************************************************************************/
@@ -1773,7 +1782,7 @@ GFXcanvas1::GFXcanvas1(uint16_t w, uint16_t h) : Adafruit_GFX(w, h) {
*/
/**************************************************************************/
GFXcanvas1::~GFXcanvas1(void) {
if (buffer)
if (buffer && buffer_owned)
free(buffer);
}
@@ -2111,13 +2120,21 @@ void GFXcanvas1::drawFastRawHLine(int16_t x, int16_t y, int16_t w,
@brief Instatiate a GFX 8-bit canvas context for graphics
@param w Display width, in pixels
@param h Display height, in pixels
@param allocate_buffer If true, a buffer is allocated with malloc. If
false, the subclass must initialize the buffer before any drawing operation,
and free it in the destructor. If false (the default), the buffer is
allocated and freed by the library.
*/
/**************************************************************************/
GFXcanvas8::GFXcanvas8(uint16_t w, uint16_t h) : Adafruit_GFX(w, h) {
GFXcanvas8::GFXcanvas8(uint16_t w, uint16_t h, bool allocate_buffer)
: Adafruit_GFX(w, h), buffer_owned(allocate_buffer) {
if (allocate_buffer) {
uint32_t bytes = w * h;
if ((buffer = (uint8_t *)malloc(bytes))) {
memset(buffer, 0, bytes);
}
} else
buffer = nullptr;
}
/**************************************************************************/
@@ -2126,7 +2143,7 @@ GFXcanvas8::GFXcanvas8(uint16_t w, uint16_t h) : Adafruit_GFX(w, h) {
*/
/**************************************************************************/
GFXcanvas8::~GFXcanvas8(void) {
if (buffer)
if (buffer && buffer_owned)
free(buffer);
}
@@ -2379,13 +2396,22 @@ void GFXcanvas8::drawFastRawHLine(int16_t x, int16_t y, int16_t w,
@brief Instatiate a GFX 16-bit canvas context for graphics
@param w Display width, in pixels
@param h Display height, in pixels
@param allocate_buffer If true, a buffer is allocated with malloc. If
false, the subclass must initialize the buffer before any drawing operation,
and free it in the destructor. If false (the default), the buffer is
allocated and freed by the library.
*/
/**************************************************************************/
GFXcanvas16::GFXcanvas16(uint16_t w, uint16_t h) : Adafruit_GFX(w, h) {
GFXcanvas16::GFXcanvas16(uint16_t w, uint16_t h, bool allocate_buffer)
: Adafruit_GFX(w, h), buffer_owned(allocate_buffer) {
if (allocate_buffer) {
uint32_t bytes = w * h * 2;
if ((buffer = (uint16_t *)malloc(bytes))) {
memset(buffer, 0, bytes);
}
} else {
buffer = nullptr;
}
}
/**************************************************************************/
@@ -2394,7 +2420,7 @@ GFXcanvas16::GFXcanvas16(uint16_t w, uint16_t h) : Adafruit_GFX(w, h) {
*/
/**************************************************************************/
GFXcanvas16::~GFXcanvas16(void) {
if (buffer)
if (buffer && buffer_owned)
free(buffer);
}

12
INF/libraries/Adafruit_GFX_Library/Adafruit_GFX.h
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@@ -309,7 +309,7 @@ private:
/// A GFX 1-bit canvas context for graphics
class GFXcanvas1 : public Adafruit_GFX {
public:
GFXcanvas1(uint16_t w, uint16_t h);
GFXcanvas1(uint16_t w, uint16_t h, bool allocate_buffer = true);
~GFXcanvas1(void);
void drawPixel(int16_t x, int16_t y, uint16_t color);
void fillScreen(uint16_t color);
@@ -329,6 +329,8 @@ protected:
void drawFastRawVLine(int16_t x, int16_t y, int16_t h, uint16_t color);
void drawFastRawHLine(int16_t x, int16_t y, int16_t w, uint16_t color);
uint8_t *buffer; ///< Raster data: no longer private, allow subclass access
bool buffer_owned; ///< If true, destructor will free buffer, else it will do
///< nothing
private:
#ifdef __AVR__
@@ -340,7 +342,7 @@ private:
/// A GFX 8-bit canvas context for graphics
class GFXcanvas8 : public Adafruit_GFX {
public:
GFXcanvas8(uint16_t w, uint16_t h);
GFXcanvas8(uint16_t w, uint16_t h, bool allocate_buffer = true);
~GFXcanvas8(void);
void drawPixel(int16_t x, int16_t y, uint16_t color);
void fillScreen(uint16_t color);
@@ -360,12 +362,14 @@ protected:
void drawFastRawVLine(int16_t x, int16_t y, int16_t h, uint16_t color);
void drawFastRawHLine(int16_t x, int16_t y, int16_t w, uint16_t color);
uint8_t *buffer; ///< Raster data: no longer private, allow subclass access
bool buffer_owned; ///< If true, destructor will free buffer, else it will do
///< nothing
};
/// A GFX 16-bit canvas context for graphics
class GFXcanvas16 : public Adafruit_GFX {
public:
GFXcanvas16(uint16_t w, uint16_t h);
GFXcanvas16(uint16_t w, uint16_t h, bool allocate_buffer = true);
~GFXcanvas16(void);
void drawPixel(int16_t x, int16_t y, uint16_t color);
void fillScreen(uint16_t color);
@@ -386,6 +390,8 @@ protected:
void drawFastRawVLine(int16_t x, int16_t y, int16_t h, uint16_t color);
void drawFastRawHLine(int16_t x, int16_t y, int16_t w, uint16_t color);
uint16_t *buffer; ///< Raster data: no longer private, allow subclass access
bool buffer_owned; ///< If true, destructor will free buffer, else it will do
///< nothing
};
#endif // _ADAFRUIT_GFX_H

12
INF/libraries/Adafruit_GFX_Library/Adafruit_GrayOLED.cpp
View File

@@ -62,7 +62,7 @@
allocation is performed there!
*/
Adafruit_GrayOLED::Adafruit_GrayOLED(uint8_t bpp, uint16_t w, uint16_t h,
TwoWire *twi, int8_t rst_pin,
TwoWire *twi, int16_t rst_pin,
uint32_t clkDuring, uint32_t clkAfter)
: Adafruit_GFX(w, h), i2c_preclk(clkDuring), i2c_postclk(clkAfter),
buffer(NULL), dcPin(-1), csPin(-1), rstPin(rst_pin), _bpp(bpp) {
@@ -98,9 +98,9 @@ Adafruit_GrayOLED::Adafruit_GrayOLED(uint8_t bpp, uint16_t w, uint16_t h,
allocation is performed there!
*/
Adafruit_GrayOLED::Adafruit_GrayOLED(uint8_t bpp, uint16_t w, uint16_t h,
int8_t mosi_pin, int8_t sclk_pin,
int8_t dc_pin, int8_t rst_pin,
int8_t cs_pin)
int16_t mosi_pin, int16_t sclk_pin,
int16_t dc_pin, int16_t rst_pin,
int16_t cs_pin)
: Adafruit_GFX(w, h), dcPin(dc_pin), csPin(cs_pin), rstPin(rst_pin),
_bpp(bpp) {
@@ -134,8 +134,8 @@ Adafruit_GrayOLED::Adafruit_GrayOLED(uint8_t bpp, uint16_t w, uint16_t h,
allocation is performed there!
*/
Adafruit_GrayOLED::Adafruit_GrayOLED(uint8_t bpp, uint16_t w, uint16_t h,
SPIClass *spi, int8_t dc_pin,
int8_t rst_pin, int8_t cs_pin,
SPIClass *spi, int16_t dc_pin,
int16_t rst_pin, int16_t cs_pin,
uint32_t bitrate)
: Adafruit_GFX(w, h), dcPin(dc_pin), csPin(cs_pin), rstPin(rst_pin),
_bpp(bpp) {

10
INF/libraries/Adafruit_GFX_Library/Adafruit_GrayOLED.h
View File

@@ -48,13 +48,13 @@
class Adafruit_GrayOLED : public Adafruit_GFX {
public:
Adafruit_GrayOLED(uint8_t bpp, uint16_t w, uint16_t h, TwoWire *twi = &Wire,
int8_t rst_pin = -1, uint32_t preclk = 400000,
int16_t rst_pin = -1, uint32_t preclk = 400000,
uint32_t postclk = 100000);
Adafruit_GrayOLED(uint8_t bpp, uint16_t w, uint16_t h, int8_t mosi_pin,
int8_t sclk_pin, int8_t dc_pin, int8_t rst_pin,
int8_t cs_pin);
Adafruit_GrayOLED(uint8_t bpp, uint16_t w, uint16_t h, int16_t mosi_pin,
int16_t sclk_pin, int16_t dc_pin, int16_t rst_pin,
int16_t cs_pin);
Adafruit_GrayOLED(uint8_t bpp, uint16_t w, uint16_t h, SPIClass *spi,
int8_t dc_pin, int8_t rst_pin, int8_t cs_pin,
int16_t dc_pin, int16_t rst_pin, int16_t cs_pin,
uint32_t bitrate = 8000000UL);
~Adafruit_GrayOLED(void);

14
INF/libraries/Adafruit_GFX_Library/Adafruit_SPITFT.cpp
View File

@@ -17,9 +17,10 @@
* @section dependencies Dependencies
*
* This library depends on <a href="https://github.com/adafruit/Adafruit_GFX">
* Adafruit_GFX</a> being present on your system. Please make sure you have
* installed the latest version before using this library.
* This library depends on
* <a href="https://github.com/adafruit/Adafruit-GFX-Library">Adafruit_GFX</a>
* being present on your system. Please make sure you have installed the latest
* version before using this library.
*
* @section author Author
*
@@ -40,6 +41,13 @@
#if defined(__AVR_XMEGA__) // only tested with __AVR_ATmega4809__
#define AVR_WRITESPI(x) \
for (SPI0_DATA = (x); (!(SPI0_INTFLAGS & _BV(SPI_IF_bp)));)
#elif defined(__LGT8F__)
#define AVR_WRITESPI(x) \
SPDR = (x); \
asm volatile("nop"); \
while ((SPFR & _BV(RDEMPT))) \
; \
SPFR = _BV(RDEMPT) | _BV(WREMPT)
#else
#define AVR_WRITESPI(x) for (SPDR = (x); (!(SPSR & _BV(SPIF)));)
#endif

2
INF/libraries/Adafruit_GFX_Library/Adafruit_SPITFT.h
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@@ -66,7 +66,7 @@ typedef uint32_t ADAGFX_PORT_t; ///< PORT values are 32-bit
#endif // end !ARM
typedef volatile ADAGFX_PORT_t *PORTreg_t; ///< PORT register type
#if defined(__AVR__)
#if defined(__AVR__) && !defined(__LGT8F__)
#define DEFAULT_SPI_FREQ 8000000L ///< Hardware SPI default speed
#else
#define DEFAULT_SPI_FREQ 16000000L ///< Hardware SPI default speed

2
INF/libraries/Adafruit_GFX_Library/library.properties
View File

@@ -1,5 +1,5 @@
name=Adafruit GFX Library
version=1.11.11
version=1.12.0
author=Adafruit
maintainer=Adafruit <info@adafruit.com>
sentence=Adafruit GFX graphics core library, this is the 'core' class that all our other graphics libraries derive from.

43
INF/libraries/PCA9685/LICENSE
View File

@@ -1,32 +1,29 @@
License Agreement
Janelia Open-Source Software
(3-clause BSD License)
Janelia Research Campus Software Copyright 1.1
Copyright (c) 2014, Howard Hughes Medical Institute
All rights reserved.
Copyright (c) 2021 Howard Hughes Medical Institute
Redistribution and use in source and binary forms, with or without
modification, are permitted provided that the following conditions are met:
Redistribution and use in source and binary forms, with or without modification,
are permitted provided that the following conditions are met:
* Redistributions of source code must retain the above copyright notice, this
list of conditions and the following disclaimer.
* 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.
* 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.
* Neither the name of the Howard Hughes Medical Institute nor the
names of its contributors may be used to endorse or promote products
derived from this software without specific prior written
permission.
* Neither the name of HHMI 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.
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 OWNER 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.

19
INF/libraries/PCA9685/README.org
View File

@@ -1,16 +1,21 @@
#+TITLE: PCA9685
#+AUTHOR: Peter Polidoro
#+EMAIL: peterpolidoro@gmail.com
#+EMAIL: peter@polidoro.io
* Library Information
- Name :: PCA9685
- Version :: 2.1.4
- Version :: 3.0.2
- License :: BSD
- URL :: https://github.com/janelia-arduino/PCA9685
- Author :: Peter Polidoro
- Email :: peterpolidoro@gmail.com
- Email :: peter@polidoro.io
The PCA9685 is a 16-channel 12-bit PWM controller. All channels operate at a
programmable frequency between roughly 25 to 1600 Hz with 16 independent
12-bit duty cycles from 0 to 100%. Supports using a single device (for up to
16 channels) or up to 55 devices (for up to 880 channels).
** Description
The PCA9685 is a 16-channel 12-bit PWM controller.
All channels operate at a programmable frequency between roughly 25 to 1600 Hz
with 16 independent 12-bit duty cycles from 0 to 100%.
Supports using a single device (for up to 16 channels) or up to 55 devices
(for up to 880 channels).

BIN
INF/libraries/PCA9685/datasheet/PCA9685.pdf Normal file
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Binary file not shown.

8
INF/libraries/PCA9685/examples/FrequencySweep/Constants.cpp
View File

@@ -3,16 +3,16 @@
//
//
// Authors:
// Peter Polidoro peterpolidoro@gmail.com
// Peter Polidoro peter@polidoro.io
// ----------------------------------------------------------------------------
#include "Constants.h"
namespace constants
{
const uint8_t device_address = 0x40;
const size_t output_enable_pin = 2;
const PCA9685::DeviceAddress device_address = 0x40;
const PCA9685::Pin output_enable_pin = 2;
const size_t loop_delay = 100;
const uint16_t frequency_increment = 10;
const PCA9685::Frequency frequency_increment = 10;
}

9
INF/libraries/PCA9685/examples/FrequencySweep/Constants.h
View File

@@ -3,19 +3,20 @@
//
//
// Authors:
// Peter Polidoro peterpolidoro@gmail.com
// Peter Polidoro peter@polidoro.io
// ----------------------------------------------------------------------------
#ifndef CONSTANTS_H
#define CONSTANTS_H
#include <Arduino.h>
#include <PCA9685.h>
namespace constants
{
extern const uint8_t device_address;
extern const size_t output_enable_pin;
extern const PCA9685::DeviceAddress device_address;
extern const PCA9685::Pin output_enable_pin;
extern const size_t loop_delay;
extern const uint16_t frequency_increment;
extern const PCA9685::Frequency frequency_increment;
}
#endif

10
INF/libraries/PCA9685/examples/FrequencySweep/FrequencySweep.ino
View File

@@ -6,9 +6,9 @@
PCA9685 pca9685;
uint16_t frequency_min;
uint16_t frequency_max;
uint16_t frequency;
PCA9685::Frequency frequency_min;
PCA9685::Frequency frequency_max;
PCA9685::Frequency frequency;
void setup()
{
@@ -19,8 +19,8 @@ void setup()
pca9685.setOutputsNotInverted();
uint16_t time_min = pca9685.getTimeMin();
uint16_t time_max = pca9685.getTimeMax();
PCA9685::Time time_min = pca9685.getTimeMin();
PCA9685::Time time_max = pca9685.getTimeMax();
pca9685.setAllChannelsOnAndOffTime(time_min,time_max/4);
frequency_min = pca9685.getFrequencyMin();

12
INF/libraries/PCA9685/examples/OffTimeSweepSingleDevice/Constants.cpp
View File

@@ -3,19 +3,19 @@
//
//
// Authors:
// Peter Polidoro peterpolidoro@gmail.com
// Peter Polidoro peter@polidoro.io
// ----------------------------------------------------------------------------
#include "Constants.h"
namespace constants
{
const uint8_t device_address = 0x40;
const size_t output_enable_pin = 2;
const PCA9685::DeviceAddress device_address = 0x40;
const PCA9685::Pin output_enable_pin = 2;
const size_t loop_delay = 100;
const uint16_t frequency = 200;
const uint16_t time_increment = 100;
const PCA9685::Frequency frequency = 200;
const PCA9685::Time time_increment = 100;
const uint8_t channel = 0;
const PCA9685::Channel channel = 0;
}

13
INF/libraries/PCA9685/examples/OffTimeSweepSingleDevice/Constants.h
View File

@@ -3,22 +3,23 @@
//
//
// Authors:
// Peter Polidoro peterpolidoro@gmail.com
// Peter Polidoro peter@polidoro.io
// ----------------------------------------------------------------------------
#ifndef CONSTANTS_H
#define CONSTANTS_H
#include <Arduino.h>
#include <PCA9685.h>
namespace constants
{
extern const uint8_t device_address;
extern const size_t output_enable_pin;
extern const PCA9685::DeviceAddress device_address;
extern const PCA9685::Pin output_enable_pin;
extern const size_t loop_delay;
extern const uint16_t frequency;
extern const uint16_t time_increment;
extern const PCA9685::Frequency frequency;
extern const PCA9685::Time time_increment;
extern const uint8_t channel;
extern const PCA9685::Channel channel;
}
#endif

6
INF/libraries/PCA9685/examples/OffTimeSweepSingleDevice/OffTimeSweepSingleDevice.ino
View File

@@ -6,9 +6,9 @@
PCA9685 pca9685;
uint16_t time_min;
uint16_t time_max;
uint16_t off_time;
PCA9685::Time time_min;
PCA9685::Time time_max;
PCA9685::Time off_time;
void setup()
{

14
INF/libraries/PCA9685/examples/OnTimeSweepMultipleDevices/Constants.cpp
View File

@@ -3,26 +3,26 @@
//
//
// Authors:
// Peter Polidoro peterpolidoro@gmail.com
// Peter Polidoro peter@polidoro.io
// ----------------------------------------------------------------------------
#include "Constants.h"
namespace constants
{
const uint8_t device_addresses[DEVICE_COUNT] =
const PCA9685::DeviceAddress device_addresses[DEVICE_COUNT] =
{
0x40,
0x41,
0x42
};
const uint8_t device_index = 0;
const PCA9685::DeviceIndex = 0;
const size_t output_enable_pin = 2;
const PCA9685::Pin output_enable_pin = 2;
const size_t loop_delay = 100;
const uint16_t frequency = 200;
const uint16_t time_increment = 100;
const PCA9685::Frequency frequency = 200;
const PCA9685::Time time_increment = 100;
const uint8_t channel = 0;
const PCA9685::Channel channel = 0;
}

15
INF/libraries/PCA9685/examples/OnTimeSweepMultipleDevices/Constants.h
View File

@@ -3,25 +3,26 @@
//
//
// Authors:
// Peter Polidoro peterpolidoro@gmail.com
// Peter Polidoro peter@polidoro.io
// ----------------------------------------------------------------------------
#ifndef CONSTANTS_H
#define CONSTANTS_H
#include <Arduino.h>
#include <PCA9685.h>
namespace constants
{
enum{DEVICE_COUNT=3};
extern const uint8_t device_addresses[DEVICE_COUNT];
extern const uint8_t device_index;
extern const PCA9685::DeviceAddress device_addresses[DEVICE_COUNT];
extern const PCA9685::DeviceIndex;
extern const size_t output_enable_pin;
extern const PCA9685::Pin output_enable_pin;
extern const size_t loop_delay;
extern const uint16_t frequency;
extern const uint16_t time_increment;
extern const PCA9685::Frequency frequency;
extern const PCA9685::Time time_increment;
extern const uint8_t channel;
extern const PCA9685::Channel channel;
}
#endif

8
INF/libraries/PCA9685/examples/OnTimeSweepMultipleDevices/OnTimeSweepMultipleDevices.ino
View File

@@ -6,14 +6,14 @@
PCA9685 pca9685;
uint16_t time_min;
uint16_t time_max;
uint16_t on_time;
PCA9685::Time time_min;
PCA9685::Time time_max;
PCA9685::Time on_time;
void setup()
{
pca9685.setWire(Wire);
for (uint8_t device_index=0; device_index<constants::DEVICE_COUNT; ++device_index)
for (PCA9685::DeviceIndex=0; device_index<constants::DEVICE_COUNT; ++device_index)
{
pca9685.addDevice(constants::device_addresses[device_index]);
}

14
INF/libraries/PCA9685/examples/ServoController/Constants.cpp
View File

@@ -3,21 +3,21 @@
//
//
// Authors:
// Peter Polidoro peterpolidoro@gmail.com
// Peter Polidoro peter@polidoro.io
// ----------------------------------------------------------------------------
#include "Constants.h"
namespace constants
{
const uint8_t device_address = 0x40;
const size_t output_enable_pin = 2;
const PCA9685::DeviceAddress device_address = 0x40;
const PCA9685::Pin output_enable_pin = 2;
const size_t loop_delay = 100;
const uint8_t channel = 0;
const PCA9685::Channel channel = 0;
const uint16_t servo_pulse_duration_min = 900;
const uint16_t servo_pulse_duration_max = 2100;
const uint16_t servo_pulse_duration_increment = 100;
const PCA9685::DurationMicroseconds servo_pulse_duration_min = 900;
const PCA9685::DurationMicroseconds servo_pulse_duration_max = 2100;
const PCA9685::DurationMicroseconds servo_pulse_duration_increment = 100;
}

15
INF/libraries/PCA9685/examples/ServoController/Constants.h
View File

@@ -3,24 +3,25 @@
//
//
// Authors:
// Peter Polidoro peterpolidoro@gmail.com
// Peter Polidoro peter@polidoro.io
// ----------------------------------------------------------------------------
#ifndef CONSTANTS_H
#define CONSTANTS_H
#include <Arduino.h>
#include <PCA9685.h>
namespace constants
{
extern const uint8_t device_address;
extern const size_t output_enable_pin;
extern const PCA9685::DeviceAddress device_address;
extern const PCA9685::Pin output_enable_pin;
extern const size_t loop_delay;
extern const uint8_t channel;
extern const PCA9685::Channel channel;
extern const uint16_t servo_pulse_duration_min;
extern const uint16_t servo_pulse_duration_max;
extern const uint16_t servo_pulse_duration_increment;
extern const PCA9685::DurationMicroseconds servo_pulse_duration_min;
extern const PCA9685::DurationMicroseconds servo_pulse_duration_max;
extern const PCA9685::DurationMicroseconds servo_pulse_duration_increment;
}
#endif

2
INF/libraries/PCA9685/examples/ServoController/ServoController.ino
View File

@@ -6,7 +6,7 @@
PCA9685 pca9685;
uint16_t servo_pulse_duration;
PCA9685::DurationMicroseconds servo_pulse_duration;
void setup()
{

10
INF/libraries/PCA9685/examples/SetChannelDutyCycle/Constants.cpp
View File

@@ -3,19 +3,19 @@
//
//
// Authors:
// Peter Polidoro peterpolidoro@gmail.com
// Peter Polidoro peter@polidoro.io
// ----------------------------------------------------------------------------
#include "Constants.h"
namespace constants
{
const uint8_t device_address = 0x40;
const size_t output_enable_pin = 2;
const PCA9685::DeviceAddress device_address = 0x40;
const PCA9685::Pin output_enable_pin = 2;
const size_t loop_delay = 8000;
const uint16_t frequency = 200;
const uint8_t channel = 0;
const PCA9685::Frequency frequency = 200;
const PCA9685::Channel channel = 0;
const Example examples[EXAMPLE_COUNT] =
{

15
INF/libraries/PCA9685/examples/SetChannelDutyCycle/Constants.h
View File

@@ -3,28 +3,29 @@
//
//
// Authors:
// Peter Polidoro peterpolidoro@gmail.com
// Peter Polidoro peter@polidoro.io
// ----------------------------------------------------------------------------
#ifndef CONSTANTS_H
#define CONSTANTS_H
#include <Arduino.h>
#include <PCA9685.h>
namespace constants
{
extern const uint8_t device_address;
extern const size_t output_enable_pin;
extern const PCA9685::DeviceAddress device_address;
extern const PCA9685::Pin output_enable_pin;
extern const size_t loop_delay;
extern const uint16_t frequency;
extern const uint8_t channel;
extern const PCA9685::Frequency frequency;
extern const PCA9685::Channel channel;
enum{EXAMPLE_COUNT=4};
struct Example
{
double duty_cycle;
double percent_delay;
PCA9685::Percent duty_cycle;
PCA9685::Percent percent_delay;
};
extern const Example examples[EXAMPLE_COUNT];

10
INF/libraries/PCA9685/examples/SetChannelOnAndOffTime/Constants.cpp
View File

@@ -3,19 +3,19 @@
//
//
// Authors:
// Peter Polidoro peterpolidoro@gmail.com
// Peter Polidoro peter@polidoro.io
// ----------------------------------------------------------------------------
#include "Constants.h"
namespace constants
{
const uint8_t device_address = 0x40;
const size_t output_enable_pin = 2;
const PCA9685::DeviceAddress device_address = 0x40;
const PCA9685::Pin output_enable_pin = 2;
const size_t loop_delay = 8000;
const uint16_t frequency = 200;
const uint8_t channel = 0;
const PCA9685::Frequency frequency = 200;
const PCA9685::Channel channel = 0;
const Example examples[EXAMPLE_COUNT] =
{

15
INF/libraries/PCA9685/examples/SetChannelOnAndOffTime/Constants.h
View File

@@ -3,28 +3,29 @@
//
//
// Authors:
// Peter Polidoro peterpolidoro@gmail.com
// Peter Polidoro peter@polidoro.io
// ----------------------------------------------------------------------------
#ifndef CONSTANTS_H
#define CONSTANTS_H
#include <Arduino.h>
#include <PCA9685.h>
namespace constants
{
extern const uint8_t device_address;
extern const size_t output_enable_pin;
extern const PCA9685::DeviceAddress device_address;
extern const PCA9685::Pin output_enable_pin;
extern const size_t loop_delay;
extern const uint16_t frequency;
extern const uint8_t channel;
extern const PCA9685::Frequency frequency;
extern const PCA9685::Channel channel;
enum{EXAMPLE_COUNT=4};
struct Example
{
uint16_t on_time;
uint16_t off_time;
PCA9685::Time on_time;
PCA9685::Time off_time;
};
extern const Example examples[EXAMPLE_COUNT];

10
INF/libraries/PCA9685/examples/SetChannelPulseWidth/Constants.cpp
View File

@@ -3,19 +3,19 @@
//
//
// Authors:
// Peter Polidoro peterpolidoro@gmail.com
// Peter Polidoro peter@polidoro.io
// ----------------------------------------------------------------------------
#include "Constants.h"
namespace constants
{
const uint8_t device_address = 0x40;
const size_t output_enable_pin = 2;
const PCA9685::DeviceAddress device_address = 0x40;
const PCA9685::Pin output_enable_pin = 2;
const size_t loop_delay = 8000;
const uint16_t frequency = 200;
const uint8_t channel = 0;
const PCA9685::Frequency frequency = 200;
const PCA9685::Channel channel = 0;
const Example examples[EXAMPLE_COUNT] =
{

15
INF/libraries/PCA9685/examples/SetChannelPulseWidth/Constants.h
View File

@@ -3,28 +3,29 @@
//
//
// Authors:
// Peter Polidoro peterpolidoro@gmail.com
// Peter Polidoro peter@polidoro.io
// ----------------------------------------------------------------------------
#ifndef CONSTANTS_H
#define CONSTANTS_H
#include <Arduino.h>
#include <PCA9685.h>
namespace constants
{
extern const uint8_t device_address;
extern const size_t output_enable_pin;
extern const PCA9685::DeviceAddress device_address;
extern const PCA9685::Pin output_enable_pin;
extern const size_t loop_delay;
extern const uint16_t frequency;
extern const uint8_t channel;
extern const PCA9685::Frequency frequency;
extern const PCA9685::Channel channel;
enum{EXAMPLE_COUNT=4};
struct Example
{
uint16_t pulse_width;
uint16_t phase_shift;
PCA9685::Duration pulse_width;
PCA9685::Duration phase_shift;
};
extern const Example examples[EXAMPLE_COUNT];

12
INF/libraries/PCA9685/examples/TestSetAndGet/Constants.cpp
View File

@@ -3,20 +3,20 @@
//
//
// Authors:
// Peter Polidoro peterpolidoro@gmail.com
// Peter Polidoro peter@polidoro.io
// ----------------------------------------------------------------------------
#include "Constants.h"
namespace constants
{
const uint8_t device_address = 0x40;
const size_t output_enable_pin = 2;
const PCA9685::DeviceAddress device_address = 0x40;
const PCA9685::Pin output_enable_pin = 2;
const long baud = 115200;
const size_t loop_delay = 100;
const uint16_t frequency = 200;
const uint16_t time_increment = 400;
const double epsilon = 0.001;
const PCA9685::Frequency frequency = 200;
const PCA9685::Time time_increment = 400;
const PCA9685::Percent epsilon = 0.001;
}

13
INF/libraries/PCA9685/examples/TestSetAndGet/Constants.h
View File

@@ -3,22 +3,23 @@
//
//
// Authors:
// Peter Polidoro peterpolidoro@gmail.com
// Peter Polidoro peter@polidoro.io
// ----------------------------------------------------------------------------
#ifndef CONSTANTS_H
#define CONSTANTS_H
#include <Arduino.h>
#include <PCA9685.h>
namespace constants
{
extern const uint8_t device_address;
extern const size_t output_enable_pin;
extern const PCA9685::DeviceAddress device_address;
extern const PCA9685::Pin output_enable_pin;
extern const long baud;
extern const size_t loop_delay;
extern const uint16_t frequency;
extern const uint16_t time_increment;
extern const double epsilon;
extern const PCA9685::Frequency frequency;
extern const PCA9685::Time time_increment;
extern const PCA9685::Percent epsilon;
}
#endif

32
INF/libraries/PCA9685/examples/TestSetAndGet/TestSetAndGet.ino
View File

@@ -7,25 +7,25 @@
PCA9685 pca9685;
uint16_t time_min;
uint16_t time_max;
PCA9685::Time time_min;
PCA9685::Time time_max;
uint8_t channel;
PCA9685::Channel channel;
uint16_t on_time_set;
uint16_t off_time_set;
uint16_t on_time_get;
uint16_t off_time_get;
PCA9685::Time on_time_set;
PCA9685::Time off_time_set;
PCA9685::Time on_time_get;
PCA9685::Time off_time_get;
uint16_t pulse_width_set;
uint16_t phase_shift_set;
uint16_t pulse_width_get;
uint16_t phase_shift_get;
PCA9685::Duration pulse_width_set;
PCA9685::Duration phase_shift_set;
PCA9685::Duration pulse_width_get;
PCA9685::Duration phase_shift_get;
double duty_cycle_set;
double percent_delay_set;
double duty_cycle_get;
double percent_delay_get;
PCA9685::Percent duty_cycle_set;
PCA9685::Percent percent_delay_set;
PCA9685::Percent duty_cycle_get;
PCA9685::Percent percent_delay_get;
void setup()
{
@@ -67,7 +67,7 @@ void loop()
on_time_set = time_min;
off_time_set = time_max;
}
for (uint8_t channel=0; channel < pca9685.getChannelCount(); ++channel)
for (PCA9685::Channel channel=0; channel < pca9685.getChannelCount(); ++channel)
{
Serial << "frequency: " << pca9685.getFrequency() << "\n";
Serial << "channel: " << channel << ", on_time_set: " << on_time_set << ", off_time_set: " << off_time_set << "\n";

6
INF/libraries/PCA9685/library.properties
View File

@@ -1,7 +1,7 @@
name=PCA9685
version=2.1.4
author=Peter Polidoro <peterpolidoro@gmail.com>
maintainer=Peter Polidoro <peterpolidoro@gmail.com>
version=3.0.2
author=Peter Polidoro <peter@polidoro.io>
maintainer=Peter Polidoro <peter@polidoro.io>
sentence=PCA9685 16-channel 12-bit PWM controller.
paragraph=Like this project? Please star it on GitHub!
category=Device Control

359
INF/libraries/PCA9685/src/PCA9685.h
View File

@@ -2,7 +2,7 @@
// PCA9685.h
//
// Authors:
// Peter Polidoro peterpolidoro@gmail.com
// Peter Polidoro peter@polidoro.io
// ----------------------------------------------------------------------------
#ifndef PCA9685_H
#define PCA9685_H
@@ -15,80 +15,91 @@ class PCA9685
public:
PCA9685();
const static uint8_t CHANNELS_PER_DEVICE = 16;
typedef uint16_t Channel;
typedef uint8_t ChannelCount;
typedef uint8_t DeviceAddress;
typedef uint8_t DeviceIndex;
typedef size_t Pin;
typedef uint16_t Frequency;
typedef double Percent;
typedef uint16_t Time;
typedef uint16_t Duration;
typedef uint16_t DurationMicroseconds;
const static Channel CHANNELS_PER_DEVICE = 16;
enum {DEVICE_COUNT_MAX=55};
// Convenience method when using a single device
void setupSingleDevice(TwoWire & wire=Wire,
uint8_t device_address=0x40,
DeviceAddress device_address=0x40,
bool fast_mode_plus=false);
// Methods for using a single device or multiple devices
void setupOutputEnablePin(size_t output_enable_pin);
void enableOutputs(size_t output_enable_pin);
void disableOutputs(size_t output_enable_pin);
void setupOutputEnablePin(Pin output_enable_pin);
void enableOutputs(Pin output_enable_pin);
void disableOutputs(Pin output_enable_pin);
uint16_t getFrequencyMin();
uint16_t getFrequencyMax();
void setToFrequency(uint16_t frequency);
uint16_t getFrequency();
Frequency getFrequencyMin();
Frequency getFrequencyMax();
void setToFrequency(Frequency frequency);
Frequency getFrequency();
void setToServoFrequency();
uint16_t getServoFrequency();
Frequency getServoFrequency();
uint8_t getChannelCount();
ChannelCount getChannelCount();
double getDutyCycleMin();
double getDutyCycleMax();
double getPercentDelayMin();
double getPercentDelayMax();
void setChannelDutyCycle(uint8_t channel,
double duty_cycle,
double percent_delay=0);
void getChannelDutyCycle(uint8_t channel,
double & duty_cycle,
double & percent_delay);
void setAllChannelsDutyCycle(double duty_cycle,
double percent_delay=0);
Percent getDutyCycleMin();
Percent getDutyCycleMax();
Percent getPercentDelayMin();
Percent getPercentDelayMax();
void setChannelDutyCycle(Channel channel,
Percent duty_cycle,
Percent percent_delay=0);
void getChannelDutyCycle(Channel channel,
Percent & duty_cycle,
Percent & percent_delay);
void setAllChannelsDutyCycle(Percent duty_cycle,
Percent percent_delay=0);
uint16_t getPulseWidthMin();
uint16_t getPulseWidthMax();
uint16_t getPhaseShiftMin();
uint16_t getPhaseShiftMax();
void setChannelPulseWidth(uint8_t channel,
uint16_t pulse_width,
uint16_t phase_shift=0);
void getChannelPulseWidth(uint8_t channel,
uint16_t & pulse_width,
uint16_t & phase_shift);
void setAllChannelsPulseWidth(uint16_t pulse_width,
uint16_t phase_shift=0);
Duration getPulseWidthMin();
Duration getPulseWidthMax();
Time getPhaseShiftMin();
Time getPhaseShiftMax();
void setChannelPulseWidth(Channel channel,
Duration pulse_width,
Duration phase_shift=0);
void getChannelPulseWidth(Channel channel,
Duration & pulse_width,
Time & phase_shift);
void setAllChannelsPulseWidth(Duration pulse_width,
Duration phase_shift=0);
void setChannelServoPulseDuration(uint8_t channel,
uint16_t pulse_duration_microseconds);
void getChannelServoPulseDuration(uint8_t channel,
uint16_t & pulse_duration_microseconds);
void setAllChannelsServoPulseDuration(uint16_t pulse_duration_microseconds);
void setChannelServoPulseDuration(Channel channel,
DurationMicroseconds pulse_duration_microseconds);
void getChannelServoPulseDuration(Channel channel,
DurationMicroseconds & pulse_duration_microseconds);
void setAllChannelsServoPulseDuration(DurationMicroseconds pulse_duration_microseconds);
uint16_t getTimeMin();
uint16_t getTimeMax();
void setChannelOnAndOffTime(uint8_t channel,
uint16_t on_time,
uint16_t off_time);
void getChannelOnAndOffTime(uint8_t channel,
uint16_t & on_time,
uint16_t & off_time);
void setAllChannelsOnAndOffTime(uint16_t on_time,
uint16_t off_time);
void setChannelOnTime(uint8_t channel,
uint16_t on_time);
void getChannelOnTime(uint8_t channel,
uint16_t & on_time);
void setAllChannelsOnTime(uint16_t on_time);
void setChannelOffTime(uint8_t channel,
uint16_t off_time);
void getChannelOffTime(uint8_t channel,
uint16_t & off_time);
void setAllChannelsOffTime(uint16_t off_time);
Time getTimeMin();
Time getTimeMax();
void setChannelOnAndOffTime(Channel channel,
Time on_time,
Time off_time);
void getChannelOnAndOffTime(Channel channel,
Time & on_time,
Time & off_time);
void setAllChannelsOnAndOffTime(Time on_time,
Time off_time);
void setChannelOnTime(Channel channel,
Time on_time);
void getChannelOnTime(Channel channel,
Time & on_time);
void setAllChannelsOnTime(Time on_time);
void setChannelOffTime(Channel channel,
Time off_time);
void getChannelOffTime(Channel channel,
Time & off_time);
void setAllChannelsOffTime(Time off_time);
void setOutputsInverted();
void setOutputsNotInverted();
@@ -106,93 +117,93 @@ public:
// device_address=0x40 when all device address
// hardware select lines are low
// cannot use reserved addresses
void addDevice(uint8_t device_address);
void addDevice(DeviceAddress device_address);
void resetAllDevices();
void addDeviceToGroup0(uint8_t device_address);
void removeDeviceFromGroup0(uint8_t device_address);
void addDeviceToGroup1(uint8_t device_address);
void removeDeviceFromGroup1(uint8_t device_address);
void addDeviceToGroup2(uint8_t device_address);
void removeDeviceFromGroup2(uint8_t device_address);
void addDeviceToGroup0(DeviceAddress device_address);
void removeDeviceFromGroup0(DeviceAddress device_address);
void addDeviceToGroup1(DeviceAddress device_address);
void removeDeviceFromGroup1(DeviceAddress device_address);
void addDeviceToGroup2(DeviceAddress device_address);
void removeDeviceFromGroup2(DeviceAddress device_address);
void setSingleDeviceToFrequency(uint8_t device_address,
uint16_t frequency);
uint16_t getSingleDeviceFrequency(uint8_t device_address);
void setAllDevicesToFrequency(uint16_t frequency);
void setSingleDeviceToServoFrequency(uint8_t device_address);
uint16_t getSingleDeviceServoFrequency(uint8_t device_address);
void setSingleDeviceToFrequency(DeviceAddress device_address,
Frequency frequency);
Frequency getSingleDeviceFrequency(DeviceAddress device_address);
void setAllDevicesToFrequency(Frequency frequency);
void setSingleDeviceToServoFrequency(DeviceAddress device_address);
Frequency getSingleDeviceServoFrequency(DeviceAddress device_address);
void setAllDevicesToServoFrequency();
uint8_t getDeviceChannelCount();
ChannelCount getDeviceChannelCount();
// Use these device address to set more than one device at a time
// with the methods below
const static uint8_t DEVICE_ADDRESS_ALL = 0x70;
const static uint8_t DEVICE_ADDRESS_GROUP0 = 0x71;
const static uint8_t DEVICE_ADDRESS_GROUP1 = 0x72;
const static uint8_t DEVICE_ADDRESS_GROUP2 = 0x73;
const static DeviceAddress DEVICE_ADDRESS_ALL = 0x70;
const static DeviceAddress DEVICE_ADDRESS_GROUP0 = 0x71;
const static DeviceAddress DEVICE_ADDRESS_GROUP1 = 0x72;
const static DeviceAddress DEVICE_ADDRESS_GROUP2 = 0x73;
void setDeviceChannelDutyCycle(uint8_t device_address,
uint8_t device_channel,
double duty_cycle,
double percent_delay=0);
void setAllDeviceChannelsDutyCycle(uint8_t device_address,
double duty_cycle,
double percent_delay=0);
void setDeviceChannelDutyCycle(DeviceAddress device_address,
Channel device_channel,
Percent duty_cycle,
Percent percent_delay=0);
void setAllDeviceChannelsDutyCycle(DeviceAddress device_address,
Percent duty_cycle,
Percent percent_delay=0);
void setDeviceChannelPulseWidth(uint8_t device_address,
uint8_t device_channel,
uint16_t pulse_width,
uint16_t phase_shift=0);
void setAllDeviceChannelsPulseWidth(uint8_t device_address,
uint16_t pulse_width,
uint16_t phase_shift=0);
void setDeviceChannelPulseWidth(DeviceAddress device_address,
Channel device_channel,
Duration pulse_width,
Duration phase_shift=0);
void setAllDeviceChannelsPulseWidth(DeviceAddress device_address,
Duration pulse_width,
Duration phase_shift=0);
void setDeviceChannelServoPulseDuration(uint8_t device_address,
uint8_t device_channel,
uint16_t pulse_duration_microseconds);
void setAllDeviceChannelsServoPulseDuration(uint8_t device_address,
uint16_t pulse_duration_microseconds);
void setDeviceChannelServoPulseDuration(DeviceAddress device_address,
Channel device_channel,
DurationMicroseconds pulse_duration_microseconds);
void setAllDeviceChannelsServoPulseDuration(DeviceAddress device_address,
DurationMicroseconds pulse_duration_microseconds);
void setDeviceChannelOnAndOffTime(uint8_t device_address,
uint8_t device_channel,
uint16_t on_time,
uint16_t off_time);
void setAllDeviceChannelsOnAndOffTime(uint8_t device_address,
uint16_t on_time,
uint16_t off_time);
void setDeviceChannelOnTime(uint8_t device_address,
uint8_t device_channel,
uint16_t on_time);
void setAllDeviceChannelsOnTime(uint8_t device_address,
uint16_t on_time);
void setDeviceChannelOffTime(uint8_t device_address,
uint8_t device_channel,
uint16_t off_time);
void setAllDeviceChannelsOffTime(uint8_t device_address,
uint16_t off_time);
void setDeviceChannelOnAndOffTime(DeviceAddress device_address,
Channel device_channel,
Time on_time,
Time off_time);
void setAllDeviceChannelsOnAndOffTime(DeviceAddress device_address,
Time on_time,
Time off_time);
void setDeviceChannelOnTime(DeviceAddress device_address,
Channel device_channel,
Time on_time);
void setAllDeviceChannelsOnTime(DeviceAddress device_address,
Time on_time);
void setDeviceChannelOffTime(DeviceAddress device_address,
Channel device_channel,
Time off_time);
void setAllDeviceChannelsOffTime(DeviceAddress device_address,
Time off_time);
void setSingleDeviceOutputsInverted(uint8_t device_address);
void setSingleDeviceOutputsInverted(DeviceAddress device_address);
void setAllDevicesOutputsInverted();
void setSingleDeviceOutputsNotInverted(uint8_t device_address);
void setSingleDeviceOutputsNotInverted(DeviceAddress device_address);
void setAllDevicesOutputsNotInverted();
void setSingleDeviceOutputsToTotemPole(uint8_t device_address);
void setSingleDeviceOutputsToTotemPole(DeviceAddress device_address);
void setAllDevicesOutputsToTotemPole();
void setSingleDeviceOutputsToOpenDrain(uint8_t device_address);
void setSingleDeviceOutputsToOpenDrain(DeviceAddress device_address);
void setAllDevicesOutputsToOpenDrain();
void setSingleDeviceOutputsLowWhenDisabled(uint8_t device_address);
void setSingleDeviceOutputsLowWhenDisabled(DeviceAddress device_address);
void setAllDevicesOutputsLowWhenDisabled();
void setSingleDeviceOutputsHighWhenDisabled(uint8_t device_address);
void setSingleDeviceOutputsHighWhenDisabled(DeviceAddress device_address);
void setAllDevicesOutputsHighWhenDisabled();
void setSingleDeviceOutputsHighImpedanceWhenDisabled(uint8_t device_address);
void setSingleDeviceOutputsHighImpedanceWhenDisabled(DeviceAddress device_address);
void setAllDevicesOutputsHighImpedanceWhenDisabled();
private:
const static uint8_t DEVICE_ADDRESS_MIN = 0x40;
const static uint8_t DEVICE_ADDRESS_MAX = 0x7B;
const static DeviceAddress DEVICE_ADDRESS_MIN = 0x40;
const static DeviceAddress DEVICE_ADDRESS_MAX = 0x7B;
uint8_t device_count_;
uint8_t device_addresses_[DEVICE_COUNT_MAX];
DeviceAddress device_addresses_[DEVICE_COUNT_MAX];
TwoWire * wire_ptr_;
const static long FAST_MODE_PLUS_CLOCK_FREQUENCY = 1000000;
@@ -204,21 +215,21 @@ private:
const static int DEVICE_INDEX_GROUP0 = -3;
const static int DEVICE_INDEX_GROUP1 = -4;
const static int DEVICE_INDEX_GROUP2 = -5;
int deviceAddressToDeviceIndex(uint8_t device_address);
int deviceAddressToDeviceIndex(DeviceAddress device_address);
const static uint8_t GENERAL_CALL_DEVICE_ADDRESS = 0x00;
const static DeviceAddress GENERAL_CALL_DEVICE_ADDRESS = 0x00;
const static uint8_t SWRST = 0b110;
// Can write to one or more device at a time
// so use address rather than index
template<typename T>
void write(uint8_t device_address,
void write(DeviceAddress device_address,
uint8_t register_address,
T data);
// Can only read from one device at a time
// so use index rather than address
template<typename T>
void read(uint8_t device_index,
void read(DeviceIndex device_index,
uint8_t register_address,
T & data);
@@ -238,7 +249,7 @@ private:
} fields;
uint8_t data;
};
Mode1Register readMode1Register(uint8_t device_index);
Mode1Register readMode1Register(DeviceIndex device_index);
const static uint8_t MODE2_REGISTER_ADDRESS = 0x01;
union Mode2Register
@@ -253,54 +264,54 @@ private:
} fields;
uint8_t data;
};
Mode2Register readMode2Register(uint8_t device_index);
Mode2Register readMode2Register(DeviceIndex device_index);
void sleep(uint8_t device_index);
void wake(uint8_t device_index);
void sleep(DeviceIndex device_index);
void wake(DeviceIndex device_index);
void wakeAll();
void setPrescale(uint8_t device_index,
void setPrescale(DeviceIndex device_index,
uint8_t prescale);
void getPrescale(uint8_t device_index,
void getPrescale(DeviceIndex device_index,
uint8_t & prescale);
uint8_t frequencyToPrescale(uint16_t frequency);
uint16_t prescaleToFrequency(uint8_t prescale);
uint8_t frequencyToPrescale(Frequency frequency);
Frequency prescaleToFrequency(uint8_t prescale);
uint8_t channelToDeviceIndex(uint8_t channel);
uint8_t channelToDeviceChannel(uint8_t channel);
uint8_t channelToDeviceIndex(Channel channel);
Channel channelToDeviceChannel(Channel channel);
void dutyCycleAndPercentDelayToPulseWidthAndPhaseShift(double duty_cycle,
double percent_delay,
uint16_t & pulse_width,
uint16_t & phase_shift);
void pulseWidthAndPhaseShiftToDutyCycleAndPercentDelay(uint16_t pulse_width,
uint16_t phase_shift,
double & duty_cycle,
double & percent_delay);
void dutyCycleAndPercentDelayToPulseWidthAndPhaseShift(Percent duty_cycle,
Percent percent_delay,
Duration & pulse_width,
Time & phase_shift);
void pulseWidthAndPhaseShiftToDutyCycleAndPercentDelay(Duration pulse_width,
Duration phase_shift,
Percent & duty_cycle,
Percent & percent_delay);
void pulseWidthAndPhaseShiftToOnTimeAndOffTime(uint16_t pulse_width,
uint16_t phase_shift,
uint16_t & on_time,
uint16_t & off_time);
void onTimeAndOffTimeToPulseWidthAndPhaseShift(uint16_t on_time,
uint16_t off_time,
uint16_t & pulse_width,
uint16_t & phase_shift);
void pulseWidthAndPhaseShiftToOnTimeAndOffTime(Duration pulse_width,
Duration phase_shift,
Time & on_time,
Time & off_time);
void onTimeAndOffTimeToPulseWidthAndPhaseShift(Time on_time,
Time off_time,
Duration & pulse_width,
Time & phase_shift);
void servoPulseDurationToPulseWidthAndPhaseShift(uint16_t pulse_duration_microseconds,
uint16_t & pulse_width,
uint16_t & phase_shift);
void pulseWidthAndPhaseShiftToServoPulseDuration(uint16_t pulse_width,
uint16_t phase_shift,
uint16_t & pulse_duration_microseconds);
void servoPulseDurationToPulseWidthAndPhaseShift(DurationMicroseconds pulse_duration_microseconds,
Duration & pulse_width,
Time & phase_shift);
void pulseWidthAndPhaseShiftToServoPulseDuration(Duration pulse_width,
Duration phase_shift,
DurationMicroseconds & pulse_duration_microseconds);
void setOutputsInverted(uint8_t device_index);
void setOutputsNotInverted(uint8_t device_index);
void setOutputsToTotemPole(uint8_t device_index);
void setOutputsToOpenDrain(uint8_t device_index);
void setOutputsLowWhenDisabled(uint8_t device_index);
void setOutputsHighWhenDisabled(uint8_t device_index);
void setOutputsHighImpedanceWhenDisabled(uint8_t device_index);
void setOutputsInverted(DeviceIndex device_index);
void setOutputsNotInverted(DeviceIndex device_index);
void setOutputsToTotemPole(DeviceIndex device_index);
void setOutputsToOpenDrain(DeviceIndex device_index);
void setOutputsLowWhenDisabled(DeviceIndex device_index);
void setOutputsHighWhenDisabled(DeviceIndex device_index);
void setOutputsHighImpedanceWhenDisabled(DeviceIndex device_index);
const static uint8_t DOES_NOT_RESPOND = 0;
const static uint8_t DOES_RESPOND = 1;
@@ -325,10 +336,10 @@ private:
// Use period instead of frequency to calculate prescale since it is linear
// Measured 1620 Hz at prescale value 0x03, 1E6/1620=617
// Datasheet says it should be 1526 Hz, 1E6/1526=655
const static uint16_t PWM_PERIOD_MIN_US = 617;
const static DurationMicroseconds PWM_PERIOD_MIN_US = 617;
// Measured 25.3 Hz at prescale value 0xFF, 1E6/25.3=39525
// Datasheet says it should be 24 Hz, 1E6/24=41666
const static uint16_t PWM_PERIOD_MAX_US = 39525;
const static DurationMicroseconds PWM_PERIOD_MAX_US = 39525;
const static uint32_t MICROSECONDS_PER_SECOND = 1000000;
const static uint8_t OUTPUTS_INVERTED = 1;
@@ -347,14 +358,14 @@ private:
const static uint8_t RESTART_DISABLED = 0;
const static uint8_t RESTART_CLEAR = 1;
const static uint16_t TIME_MIN = 0;
const static uint16_t TIME_MAX = 4096;
const static Time TIME_MIN = 0;
const static Time TIME_MAX = 4096;
const static uint8_t PERCENT_MIN = 0;
const static uint8_t PERCENT_MAX = 100;
const static uint16_t SERVO_FREQUENCY = 50;
const static uint16_t SERVO_PERIOD_MICROSECONDS = 20000;
const static Frequency SERVO_FREQUENCY = 50;
const static DurationMicroseconds SERVO_PERIOD_MICROSECONDS = 20000;
};

416
INF/libraries/PCA9685/src/PCA9685/PCA9685.cpp
View File

@@ -2,7 +2,7 @@
// PCA9685.cpp
//
// Authors:
// Peter Polidoro peterpolidoro@gmail.com
// Peter Polidoro peter@polidoro.io
// ----------------------------------------------------------------------------
#include "PCA9685.h"
@@ -10,14 +10,14 @@
PCA9685::PCA9685()
{
device_count_ = 0;
for (uint8_t device_index=0; device_index<DEVICE_COUNT_MAX; ++device_index)
for (DeviceIndex device_index=0; device_index<DEVICE_COUNT_MAX; ++device_index)
{
device_addresses_[device_index] = GENERAL_CALL_DEVICE_ADDRESS;
}
}
void PCA9685::setupSingleDevice(TwoWire & wire,
uint8_t device_address,
DeviceAddress device_address,
bool fast_mode_plus)
{
setWire(Wire,fast_mode_plus);
@@ -25,40 +25,40 @@ void PCA9685::setupSingleDevice(TwoWire & wire,
resetAllDevices();
}
void PCA9685::setupOutputEnablePin(size_t output_enable_pin)
void PCA9685::setupOutputEnablePin(Pin output_enable_pin)
{
pinMode(output_enable_pin,OUTPUT);
digitalWrite(output_enable_pin,HIGH);
}
void PCA9685::enableOutputs(size_t output_enable_pin)
void PCA9685::enableOutputs(Pin output_enable_pin)
{
digitalWrite(output_enable_pin,LOW);
}
void PCA9685::disableOutputs(size_t output_enable_pin)
void PCA9685::disableOutputs(Pin output_enable_pin)
{
digitalWrite(output_enable_pin,HIGH);
}
uint16_t PCA9685::getFrequencyMin()
PCA9685::Frequency PCA9685::getFrequencyMin()
{
return MICROSECONDS_PER_SECOND / PWM_PERIOD_MAX_US;
}
uint16_t PCA9685::getFrequencyMax()
PCA9685::Frequency PCA9685::getFrequencyMax()
{
return MICROSECONDS_PER_SECOND / PWM_PERIOD_MIN_US;
}
void PCA9685::setToFrequency(uint16_t frequency)
void PCA9685::setToFrequency(Frequency frequency)
{
setAllDevicesToFrequency(frequency);
}
uint16_t PCA9685::getFrequency()
PCA9685::Frequency PCA9685::getFrequency()
{
uint16_t frequency = 0;
Frequency frequency = 0;
if (device_count_ > 0)
{
frequency = getSingleDeviceFrequency(device_addresses_[0]);
@@ -71,166 +71,166 @@ void PCA9685::setToServoFrequency()
setAllDevicesToServoFrequency();
}
uint16_t PCA9685::getServoFrequency()
PCA9685::Frequency PCA9685::getServoFrequency()
{
return SERVO_FREQUENCY;
}
uint8_t PCA9685::getChannelCount()
PCA9685::ChannelCount PCA9685::getChannelCount()
{
return CHANNELS_PER_DEVICE * device_count_;
}
double PCA9685::getDutyCycleMin()
PCA9685::Percent PCA9685::getDutyCycleMin()
{
return PERCENT_MIN;
}
double PCA9685::getDutyCycleMax()
PCA9685::Percent PCA9685::getDutyCycleMax()
{
return PERCENT_MAX;
}
double PCA9685::getPercentDelayMin()
PCA9685::Percent PCA9685::getPercentDelayMin()
{
return PERCENT_MIN;
}
double PCA9685::getPercentDelayMax()
PCA9685::Percent PCA9685::getPercentDelayMax()
{
return PERCENT_MAX;
}
void PCA9685::setChannelDutyCycle(uint8_t channel,
double duty_cycle,
double percent_delay)
void PCA9685::setChannelDutyCycle(Channel channel,
Percent duty_cycle,
Percent percent_delay)
{
uint16_t pulse_width;
uint16_t phase_shift;
Duration pulse_width;
Duration phase_shift;
dutyCycleAndPercentDelayToPulseWidthAndPhaseShift(duty_cycle,percent_delay,pulse_width,phase_shift);
setChannelPulseWidth(channel,pulse_width,phase_shift);
}
void PCA9685::getChannelDutyCycle(uint8_t channel,
double & duty_cycle,
double & percent_delay)
void PCA9685::getChannelDutyCycle(Channel channel,
Percent & duty_cycle,
Percent & percent_delay)
{
uint16_t pulse_width;
uint16_t phase_shift;
Duration pulse_width;
Duration phase_shift;
getChannelPulseWidth(channel,pulse_width,phase_shift);
pulseWidthAndPhaseShiftToDutyCycleAndPercentDelay(pulse_width,phase_shift,duty_cycle,percent_delay);
}
void PCA9685::setAllChannelsDutyCycle(double duty_cycle,
double percent_delay)
void PCA9685::setAllChannelsDutyCycle(Percent duty_cycle,
Percent percent_delay)
{
setAllDeviceChannelsDutyCycle(DEVICE_ADDRESS_ALL,duty_cycle,percent_delay);
}
uint16_t PCA9685::getPulseWidthMin()
PCA9685::Duration PCA9685::getPulseWidthMin()
{
return TIME_MIN;
}
uint16_t PCA9685::getPulseWidthMax()
PCA9685::Duration PCA9685::getPulseWidthMax()
{
return TIME_MAX;
}
uint16_t PCA9685::getPhaseShiftMin()
PCA9685::Duration PCA9685::getPhaseShiftMin()
{
return TIME_MIN;
}
uint16_t PCA9685::getPhaseShiftMax()
PCA9685::Duration PCA9685::getPhaseShiftMax()
{
return 0xFFFF;
}
void PCA9685::setChannelPulseWidth(uint8_t channel,
uint16_t pulse_width,
uint16_t phase_shift)
void PCA9685::setChannelPulseWidth(Channel channel,
Duration pulse_width,
Duration phase_shift)
{
uint16_t on_time;
uint16_t off_time;
Time on_time;
Time off_time;
pulseWidthAndPhaseShiftToOnTimeAndOffTime(pulse_width,phase_shift,on_time,off_time);
setChannelOnAndOffTime(channel,on_time,off_time);
}
void PCA9685::getChannelPulseWidth(uint8_t channel,
uint16_t & pulse_width,
uint16_t & phase_shift)
void PCA9685::getChannelPulseWidth(Channel channel,
Duration & pulse_width,
Duration & phase_shift)
{
uint16_t on_time = 0;
uint16_t off_time = 0;
Time on_time = 0;
Time off_time = 0;
getChannelOnAndOffTime(channel,on_time,off_time);
onTimeAndOffTimeToPulseWidthAndPhaseShift(on_time,off_time,pulse_width,phase_shift);
}
void PCA9685::setAllChannelsPulseWidth(uint16_t pulse_width,
uint16_t phase_shift)
void PCA9685::setAllChannelsPulseWidth(Duration pulse_width,
Duration phase_shift)
{
setAllDeviceChannelsPulseWidth(DEVICE_ADDRESS_ALL,pulse_width,phase_shift);
}
void PCA9685::setChannelServoPulseDuration(uint8_t channel,
uint16_t pulse_duration_microseconds)
void PCA9685::setChannelServoPulseDuration(Channel channel,
DurationMicroseconds pulse_duration_microseconds)
{
uint16_t pulse_width;
uint16_t phase_shift;
Duration pulse_width;
Duration phase_shift;
servoPulseDurationToPulseWidthAndPhaseShift(pulse_duration_microseconds,pulse_width,phase_shift);
setChannelPulseWidth(channel,pulse_width,phase_shift);
}
void PCA9685::getChannelServoPulseDuration(uint8_t channel,
uint16_t & pulse_duration_microseconds)
void PCA9685::getChannelServoPulseDuration(Channel channel,
DurationMicroseconds & pulse_duration_microseconds)
{
uint16_t pulse_width;
uint16_t phase_shift;
Duration pulse_width;
Duration phase_shift;
getChannelPulseWidth(channel,pulse_width,phase_shift);
pulseWidthAndPhaseShiftToServoPulseDuration(pulse_width,phase_shift,pulse_duration_microseconds);
}
void PCA9685::setAllChannelsServoPulseDuration(uint16_t pulse_duration_microseconds)
void PCA9685::setAllChannelsServoPulseDuration(DurationMicroseconds pulse_duration_microseconds)
{
setAllDeviceChannelsServoPulseDuration(DEVICE_ADDRESS_ALL,pulse_duration_microseconds);
}
uint16_t PCA9685::getTimeMin()
PCA9685::Time PCA9685::getTimeMin()
{
return TIME_MIN;
}
uint16_t PCA9685::getTimeMax()
PCA9685::Time PCA9685::getTimeMax()
{
return TIME_MAX;
}
void PCA9685::setChannelOnAndOffTime(uint8_t channel,
uint16_t on_time,
uint16_t off_time)
void PCA9685::setChannelOnAndOffTime(Channel channel,
Time on_time,
Time off_time)
{
if (channel >= getChannelCount())
{
return;
}
uint8_t device_index = channelToDeviceIndex(channel);
uint8_t device_channel = channelToDeviceChannel(channel);
DeviceIndex device_index = channelToDeviceIndex(channel);
Channel device_channel = channelToDeviceChannel(channel);
uint8_t register_address = LED0_ON_L_REGISTER_ADDRESS + LED_REGISTERS_SIZE * device_channel;
uint32_t data = (off_time << BITS_PER_TWO_BYTES) | on_time;
write(device_addresses_[device_index],register_address,data);
}
void PCA9685::getChannelOnAndOffTime(uint8_t channel,
uint16_t & on_time,
uint16_t & off_time)
void PCA9685::getChannelOnAndOffTime(Channel channel,
Time & on_time,
Time & off_time)
{
if (channel >= getChannelCount())
{
return;
}
uint8_t device_index = channelToDeviceIndex(channel);
uint8_t device_channel = channelToDeviceChannel(channel);
DeviceIndex device_index = channelToDeviceIndex(channel);
Channel device_channel = channelToDeviceChannel(channel);
uint8_t register_address = LED0_ON_L_REGISTER_ADDRESS + LED_REGISTERS_SIZE * device_channel;
uint32_t data;
read(device_index,register_address,data);
@@ -238,70 +238,70 @@ void PCA9685::getChannelOnAndOffTime(uint8_t channel,
off_time = (data >> BITS_PER_TWO_BYTES) & TWO_BYTE_MAX;
}
void PCA9685::setAllChannelsOnAndOffTime(uint16_t on_time,
uint16_t off_time)
void PCA9685::setAllChannelsOnAndOffTime(Time on_time,
Time off_time)
{
setAllDeviceChannelsOnAndOffTime(DEVICE_ADDRESS_ALL,on_time,off_time);
}
void PCA9685::setChannelOnTime(uint8_t channel,
uint16_t on_time)
void PCA9685::setChannelOnTime(Channel channel,
Time on_time)
{
if (channel >= getChannelCount())
{
return;
}
uint8_t device_index = channelToDeviceIndex(channel);
uint8_t device_channel = channelToDeviceChannel(channel);
DeviceIndex device_index = channelToDeviceIndex(channel);
Channel device_channel = channelToDeviceChannel(channel);
uint8_t register_address = LED0_ON_L_REGISTER_ADDRESS + LED_REGISTERS_SIZE * device_channel;
write(device_addresses_[device_index],register_address,on_time);
}
void PCA9685::getChannelOnTime(uint8_t channel,
uint16_t & on_time)
void PCA9685::getChannelOnTime(Channel channel,
Time & on_time)
{
if (channel >= getChannelCount())
{
return;
}
uint8_t device_index = channelToDeviceIndex(channel);
uint8_t device_channel = channelToDeviceChannel(channel);
DeviceIndex device_index = channelToDeviceIndex(channel);
Channel device_channel = channelToDeviceChannel(channel);
uint8_t register_address = LED0_ON_L_REGISTER_ADDRESS + LED_REGISTERS_SIZE * device_channel;
read(device_index,register_address,on_time);
}
void PCA9685::setAllChannelsOnTime(uint16_t on_time)
void PCA9685::setAllChannelsOnTime(Time on_time)
{
setAllDeviceChannelsOnTime(DEVICE_ADDRESS_ALL,on_time);
}
void PCA9685::setChannelOffTime(uint8_t channel,
uint16_t off_time)
void PCA9685::setChannelOffTime(Channel channel,
Time off_time)
{
if (channel >= getChannelCount())
{
return;
}
uint8_t device_index = channelToDeviceIndex(channel);
uint8_t device_channel = channelToDeviceChannel(channel);
DeviceIndex device_index = channelToDeviceIndex(channel);
Channel device_channel = channelToDeviceChannel(channel);
uint8_t register_address = LED0_OFF_L_REGISTER_ADDRESS + LED_REGISTERS_SIZE * device_channel;
write(device_addresses_[device_index],register_address,off_time);
}
void PCA9685::getChannelOffTime(uint8_t channel,
uint16_t & off_time)
void PCA9685::getChannelOffTime(Channel channel,
Time & off_time)
{
if (channel >= getChannelCount())
{
return;
}
uint8_t device_index = channelToDeviceIndex(channel);
uint8_t device_channel = channelToDeviceChannel(channel);
DeviceIndex device_index = channelToDeviceIndex(channel);
Channel device_channel = channelToDeviceChannel(channel);
uint8_t register_address = LED0_OFF_L_REGISTER_ADDRESS + LED_REGISTERS_SIZE * device_channel;
read(device_index,register_address,off_time);
}
void PCA9685::setAllChannelsOffTime(uint16_t off_time)
void PCA9685::setAllChannelsOffTime(Time off_time)
{
setAllDeviceChannelsOffTime(DEVICE_ADDRESS_ALL,off_time);
}
@@ -353,7 +353,7 @@ void PCA9685::setWire(TwoWire & wire,
}
void PCA9685::addDevice(uint8_t device_address)
void PCA9685::addDevice(DeviceAddress device_address)
{
if ((device_count_ >= DEVICE_COUNT_MAX) ||
(device_address < DEVICE_ADDRESS_MIN) ||
@@ -378,7 +378,7 @@ void PCA9685::resetAllDevices()
wakeAll();
}
void PCA9685::addDeviceToGroup0(uint8_t device_address)
void PCA9685::addDeviceToGroup0(DeviceAddress device_address)
{
int device_index = deviceAddressToDeviceIndex(device_address);
if (device_index < 0)
@@ -390,7 +390,7 @@ void PCA9685::addDeviceToGroup0(uint8_t device_address)
write(device_address,MODE1_REGISTER_ADDRESS,mode1_register.data);
}
void PCA9685::removeDeviceFromGroup0(uint8_t device_address)
void PCA9685::removeDeviceFromGroup0(DeviceAddress device_address)
{
int device_index = deviceAddressToDeviceIndex(device_address);
if (device_index < 0)
@@ -402,7 +402,7 @@ void PCA9685::removeDeviceFromGroup0(uint8_t device_address)
write(device_address,MODE1_REGISTER_ADDRESS,mode1_register.data);
}
void PCA9685::addDeviceToGroup1(uint8_t device_address)
void PCA9685::addDeviceToGroup1(DeviceAddress device_address)
{
int device_index = deviceAddressToDeviceIndex(device_address);
if (device_index < 0)
@@ -414,7 +414,7 @@ void PCA9685::addDeviceToGroup1(uint8_t device_address)
write(device_address,MODE1_REGISTER_ADDRESS,mode1_register.data);
}
void PCA9685::removeDeviceFromGroup1(uint8_t device_address)
void PCA9685::removeDeviceFromGroup1(DeviceAddress device_address)
{
int device_index = deviceAddressToDeviceIndex(device_address);
if (device_index < 0)
@@ -426,7 +426,7 @@ void PCA9685::removeDeviceFromGroup1(uint8_t device_address)
write(device_address,MODE1_REGISTER_ADDRESS,mode1_register.data);
}
void PCA9685::addDeviceToGroup2(uint8_t device_address)
void PCA9685::addDeviceToGroup2(DeviceAddress device_address)
{
int device_index = deviceAddressToDeviceIndex(device_address);
if (device_index < 0)
@@ -438,7 +438,7 @@ void PCA9685::addDeviceToGroup2(uint8_t device_address)
write(device_address,MODE1_REGISTER_ADDRESS,mode1_register.data);
}
void PCA9685::removeDeviceFromGroup2(uint8_t device_address)
void PCA9685::removeDeviceFromGroup2(DeviceAddress device_address)
{
int device_index = deviceAddressToDeviceIndex(device_address);
if (device_index < 0)
@@ -450,8 +450,8 @@ void PCA9685::removeDeviceFromGroup2(uint8_t device_address)
write(device_address,MODE1_REGISTER_ADDRESS,mode1_register.data);
}
void PCA9685::setSingleDeviceToFrequency(uint8_t device_address,
uint16_t frequency)
void PCA9685::setSingleDeviceToFrequency(DeviceAddress device_address,
Frequency frequency)
{
int device_index = deviceAddressToDeviceIndex(device_address);
if (device_index < 0)
@@ -462,9 +462,9 @@ void PCA9685::setSingleDeviceToFrequency(uint8_t device_address,
setPrescale(device_index,prescale);
}
uint16_t PCA9685::getSingleDeviceFrequency(uint8_t device_address)
PCA9685::Frequency PCA9685::getSingleDeviceFrequency(DeviceAddress device_address)
{
uint16_t frequency = 0;
Frequency frequency = 0;
int device_index = deviceAddressToDeviceIndex(device_address);
if (device_index >= 0)
{
@@ -475,21 +475,21 @@ uint16_t PCA9685::getSingleDeviceFrequency(uint8_t device_address)
return frequency;
}
void PCA9685::setAllDevicesToFrequency(uint16_t frequency)
void PCA9685::setAllDevicesToFrequency(Frequency frequency)
{
uint8_t prescale = frequencyToPrescale(frequency);
for (uint8_t device_index=0; device_index<device_count_; ++device_index)
for (DeviceIndex device_index=0; device_index<device_count_; ++device_index)
{
setPrescale(device_index,prescale);
}
}
void PCA9685::setSingleDeviceToServoFrequency(uint8_t device_address)
void PCA9685::setSingleDeviceToServoFrequency(DeviceAddress device_address)
{
setSingleDeviceToFrequency(device_address,SERVO_FREQUENCY);
}
uint16_t PCA9685::getSingleDeviceServoFrequency(uint8_t device_address)
PCA9685::Frequency PCA9685::getSingleDeviceServoFrequency(DeviceAddress device_address)
{
return SERVO_FREQUENCY;
}
@@ -504,71 +504,71 @@ uint8_t PCA9685::getDeviceChannelCount()
return CHANNELS_PER_DEVICE;
}
void PCA9685::setDeviceChannelDutyCycle(uint8_t device_address,
uint8_t device_channel,
double duty_cycle,
double percent_delay)
void PCA9685::setDeviceChannelDutyCycle(DeviceAddress device_address,
Channel device_channel,
Percent duty_cycle,
Percent percent_delay)
{
uint16_t pulse_width;
uint16_t phase_shift;
Duration pulse_width;
Duration phase_shift;
dutyCycleAndPercentDelayToPulseWidthAndPhaseShift(duty_cycle,percent_delay,pulse_width,phase_shift);
setDeviceChannelPulseWidth(device_address,device_channel,pulse_width,phase_shift);
}
void PCA9685::setAllDeviceChannelsDutyCycle(uint8_t device_address,
double duty_cycle,
double percent_delay)
void PCA9685::setAllDeviceChannelsDutyCycle(DeviceAddress device_address,
Percent duty_cycle,
Percent percent_delay)
{
uint16_t pulse_width;
uint16_t phase_shift;
Duration pulse_width;
Duration phase_shift;
dutyCycleAndPercentDelayToPulseWidthAndPhaseShift(duty_cycle,percent_delay,pulse_width,phase_shift);
setAllDeviceChannelsPulseWidth(device_address,pulse_width,phase_shift);
}
void PCA9685::setDeviceChannelPulseWidth(uint8_t device_address,
uint8_t device_channel,
uint16_t pulse_width,
uint16_t phase_shift)
void PCA9685::setDeviceChannelPulseWidth(DeviceAddress device_address,
Channel device_channel,
Duration pulse_width,
Duration phase_shift)
{
uint16_t on_time;
uint16_t off_time;
Time on_time;
Time off_time;
pulseWidthAndPhaseShiftToOnTimeAndOffTime(pulse_width,phase_shift,on_time,off_time);
setDeviceChannelOnAndOffTime(device_address,device_channel,on_time,off_time);
}
void PCA9685::setAllDeviceChannelsPulseWidth(uint8_t device_address,
uint16_t pulse_width,
uint16_t phase_shift)
void PCA9685::setAllDeviceChannelsPulseWidth(DeviceAddress device_address,
Duration pulse_width,
Duration phase_shift)
{
uint16_t on_time;
uint16_t off_time;
Time on_time;
Time off_time;
pulseWidthAndPhaseShiftToOnTimeAndOffTime(pulse_width,phase_shift,on_time,off_time);
setAllDeviceChannelsOnAndOffTime(device_address,on_time,off_time);
}
void PCA9685::setDeviceChannelServoPulseDuration(uint8_t device_address,
uint8_t device_channel,
uint16_t pulse_duration_microseconds)
void PCA9685::setDeviceChannelServoPulseDuration(DeviceAddress device_address,
Channel device_channel,
DurationMicroseconds pulse_duration_microseconds)
{
uint16_t pulse_width;
uint16_t phase_shift;
Duration pulse_width;
Duration phase_shift;
servoPulseDurationToPulseWidthAndPhaseShift(pulse_duration_microseconds,pulse_width,phase_shift);
setDeviceChannelPulseWidth(device_address,device_channel,pulse_width,phase_shift);
}
void PCA9685::setAllDeviceChannelsServoPulseDuration(uint8_t device_address,
uint16_t pulse_duration_microseconds)
void PCA9685::setAllDeviceChannelsServoPulseDuration(DeviceAddress device_address,
DurationMicroseconds pulse_duration_microseconds)
{
uint16_t pulse_width;
uint16_t phase_shift;
Duration pulse_width;
Duration phase_shift;
servoPulseDurationToPulseWidthAndPhaseShift(pulse_duration_microseconds,pulse_width,phase_shift);
setAllDeviceChannelsPulseWidth(device_address,pulse_width,phase_shift);
}
void PCA9685::setDeviceChannelOnAndOffTime(uint8_t device_address,
uint8_t device_channel,
uint16_t on_time,
uint16_t off_time)
void PCA9685::setDeviceChannelOnAndOffTime(DeviceAddress device_address,
Channel device_channel,
Time on_time,
Time off_time)
{
if (device_channel >= getDeviceChannelCount())
{
@@ -579,18 +579,18 @@ void PCA9685::setDeviceChannelOnAndOffTime(uint8_t device_address,
write(device_address,register_address,data);
}
void PCA9685::setAllDeviceChannelsOnAndOffTime(uint8_t device_address,
uint16_t on_time,
uint16_t off_time)
void PCA9685::setAllDeviceChannelsOnAndOffTime(DeviceAddress device_address,
Time on_time,
Time off_time)
{
uint8_t register_address = ALL_LED_ON_L_REGISTER_ADDRESS;
uint32_t data = (off_time << BITS_PER_TWO_BYTES) | on_time;
write(device_address,register_address,data);
}
void PCA9685::setDeviceChannelOnTime(uint8_t device_address,
uint8_t device_channel,
uint16_t on_time)
void PCA9685::setDeviceChannelOnTime(DeviceAddress device_address,
Channel device_channel,
Time on_time)
{
if (device_channel >= getDeviceChannelCount())
{
@@ -600,16 +600,16 @@ void PCA9685::setDeviceChannelOnTime(uint8_t device_address,
write(device_address,register_address,on_time);
}
void PCA9685::setAllDeviceChannelsOnTime(uint8_t device_address,
uint16_t on_time)
void PCA9685::setAllDeviceChannelsOnTime(DeviceAddress device_address,
Time on_time)
{
uint8_t register_address = ALL_LED_ON_L_REGISTER_ADDRESS;
write(device_address,register_address,on_time);
}
void PCA9685::setDeviceChannelOffTime(uint8_t device_address,
uint8_t device_channel,
uint16_t off_time)
void PCA9685::setDeviceChannelOffTime(DeviceAddress device_address,
Channel device_channel,
Time off_time)
{
if (device_channel >= getDeviceChannelCount())
{
@@ -619,14 +619,14 @@ void PCA9685::setDeviceChannelOffTime(uint8_t device_address,
write(device_address,register_address,off_time);
}
void PCA9685::setAllDeviceChannelsOffTime(uint8_t device_address,
uint16_t off_time)
void PCA9685::setAllDeviceChannelsOffTime(DeviceAddress device_address,
Time off_time)
{
uint8_t register_address = ALL_LED_OFF_L_REGISTER_ADDRESS;
write(device_address,register_address,off_time);
}
void PCA9685::setSingleDeviceOutputsInverted(uint8_t device_address)
void PCA9685::setSingleDeviceOutputsInverted(DeviceAddress device_address)
{
int device_index = deviceAddressToDeviceIndex(device_address);
if (device_index < 0)
@@ -638,13 +638,13 @@ void PCA9685::setSingleDeviceOutputsInverted(uint8_t device_address)
void PCA9685::setAllDevicesOutputsInverted()
{
for (uint8_t device_index=0; device_index<device_count_; ++device_index)
for (DeviceIndex device_index=0; device_index<device_count_; ++device_index)
{
setOutputsInverted(device_index);
}
}
void PCA9685::setSingleDeviceOutputsNotInverted(uint8_t device_address)
void PCA9685::setSingleDeviceOutputsNotInverted(DeviceAddress device_address)
{
int device_index = deviceAddressToDeviceIndex(device_address);
if (device_index < 0)
@@ -656,13 +656,13 @@ void PCA9685::setSingleDeviceOutputsNotInverted(uint8_t device_address)
void PCA9685::setAllDevicesOutputsNotInverted()
{
for (uint8_t device_index=0; device_index<device_count_; ++device_index)
for (DeviceIndex device_index=0; device_index<device_count_; ++device_index)
{
setOutputsNotInverted(device_index);
}
}
void PCA9685::setSingleDeviceOutputsToTotemPole(uint8_t device_address)
void PCA9685::setSingleDeviceOutputsToTotemPole(DeviceAddress device_address)
{
int device_index = deviceAddressToDeviceIndex(device_address);
if (device_index < 0)
@@ -674,13 +674,13 @@ void PCA9685::setSingleDeviceOutputsToTotemPole(uint8_t device_address)
void PCA9685::setAllDevicesOutputsToTotemPole()
{
for (uint8_t device_index=0; device_index<device_count_; ++device_index)
for (DeviceIndex device_index=0; device_index<device_count_; ++device_index)
{
setOutputsToTotemPole(device_index);
}
}
void PCA9685::setSingleDeviceOutputsToOpenDrain(uint8_t device_address)
void PCA9685::setSingleDeviceOutputsToOpenDrain(DeviceAddress device_address)
{
int device_index = deviceAddressToDeviceIndex(device_address);
if (device_index < 0)
@@ -692,13 +692,13 @@ void PCA9685::setSingleDeviceOutputsToOpenDrain(uint8_t device_address)
void PCA9685::setAllDevicesOutputsToOpenDrain()
{
for (uint8_t device_index=0; device_index<device_count_; ++device_index)
for (DeviceIndex device_index=0; device_index<device_count_; ++device_index)
{
setOutputsToOpenDrain(device_index);
}
}
void PCA9685::setSingleDeviceOutputsLowWhenDisabled(uint8_t device_address)
void PCA9685::setSingleDeviceOutputsLowWhenDisabled(DeviceAddress device_address)
{
int device_index = deviceAddressToDeviceIndex(device_address);
if (device_index < 0)
@@ -710,13 +710,13 @@ void PCA9685::setSingleDeviceOutputsLowWhenDisabled(uint8_t device_address)
void PCA9685::setAllDevicesOutputsLowWhenDisabled()
{
for (uint8_t device_index=0; device_index<device_count_; ++device_index)
for (DeviceIndex device_index=0; device_index<device_count_; ++device_index)
{
setOutputsLowWhenDisabled(device_index);
}
}
void PCA9685::setSingleDeviceOutputsHighWhenDisabled(uint8_t device_address)
void PCA9685::setSingleDeviceOutputsHighWhenDisabled(DeviceAddress device_address)
{
int device_index = deviceAddressToDeviceIndex(device_address);
if (device_index < 0)
@@ -728,13 +728,13 @@ void PCA9685::setSingleDeviceOutputsHighWhenDisabled(uint8_t device_address)
void PCA9685::setAllDevicesOutputsHighWhenDisabled()
{
for (uint8_t device_index=0; device_index<device_count_; ++device_index)
for (DeviceIndex device_index=0; device_index<device_count_; ++device_index)
{
setOutputsHighWhenDisabled(device_index);
}
}
void PCA9685::setSingleDeviceOutputsHighImpedanceWhenDisabled(uint8_t device_address)
void PCA9685::setSingleDeviceOutputsHighImpedanceWhenDisabled(DeviceAddress device_address)
{
int device_index = deviceAddressToDeviceIndex(device_address);
if (device_index < 0)
@@ -746,7 +746,7 @@ void PCA9685::setSingleDeviceOutputsHighImpedanceWhenDisabled(uint8_t device_add
void PCA9685::setAllDevicesOutputsHighImpedanceWhenDisabled()
{
for (uint8_t device_index=0; device_index<device_count_; ++device_index)
for (DeviceIndex device_index=0; device_index<device_count_; ++device_index)
{
setOutputsHighImpedanceWhenDisabled(device_index);
}
@@ -754,7 +754,7 @@ void PCA9685::setAllDevicesOutputsHighImpedanceWhenDisabled()
// private
int PCA9685::deviceAddressToDeviceIndex(uint8_t device_address)
int PCA9685::deviceAddressToDeviceIndex(DeviceAddress device_address)
{
int device_index = DEVICE_INDEX_NONE;
if (device_address == DEVICE_ADDRESS_ALL)
@@ -787,28 +787,28 @@ int PCA9685::deviceAddressToDeviceIndex(uint8_t device_address)
return device_index;
}
PCA9685::Mode1Register PCA9685::readMode1Register(uint8_t device_index)
PCA9685::Mode1Register PCA9685::readMode1Register(DeviceIndex device_index)
{
Mode1Register mode1_register;
read(device_index,MODE1_REGISTER_ADDRESS,mode1_register.data);
return mode1_register;
}
PCA9685::Mode2Register PCA9685::readMode2Register(uint8_t device_index)
PCA9685::Mode2Register PCA9685::readMode2Register(DeviceIndex device_index)
{
Mode2Register mode2_register;
read(device_index,MODE2_REGISTER_ADDRESS,mode2_register.data);
return mode2_register;
}
void PCA9685::sleep(uint8_t device_index)
void PCA9685::sleep(DeviceIndex device_index)
{
Mode1Register mode1_register = readMode1Register(device_index);
mode1_register.fields.sleep = SLEEP;
write(device_addresses_[device_index],MODE1_REGISTER_ADDRESS,mode1_register.data);
}
void PCA9685::wake(uint8_t device_index)
void PCA9685::wake(DeviceIndex device_index)
{
Mode1Register mode1_register = readMode1Register(device_index);
mode1_register.fields.sleep = WAKE;
@@ -824,13 +824,13 @@ void PCA9685::wake(uint8_t device_index)
void PCA9685::wakeAll()
{
for (uint8_t device_index=0; device_index<device_count_; ++device_index)
for (DeviceIndex device_index=0; device_index<device_count_; ++device_index)
{
wake(device_index);
}
}
void PCA9685::setPrescale(uint8_t device_index,
void PCA9685::setPrescale(DeviceIndex device_index,
uint8_t prescale)
{
sleep(device_index);
@@ -838,24 +838,24 @@ void PCA9685::setPrescale(uint8_t device_index,
wake(device_index);
}
void PCA9685::getPrescale(uint8_t device_index,
void PCA9685::getPrescale(DeviceIndex device_index,
uint8_t & prescale)
{
read(device_index,PRE_SCALE_REGISTER_ADDRESS,prescale);
}
uint8_t PCA9685::frequencyToPrescale(uint16_t frequency)
uint8_t PCA9685::frequencyToPrescale(Frequency frequency)
{
uint16_t period_us = MICROSECONDS_PER_SECOND / frequency;
DurationMicroseconds period_us = MICROSECONDS_PER_SECOND / frequency;
period_us = constrain(period_us,PWM_PERIOD_MIN_US,PWM_PERIOD_MAX_US);
uint8_t prescale = map(period_us,PWM_PERIOD_MIN_US,PWM_PERIOD_MAX_US,PRE_SCALE_MIN,PRE_SCALE_MAX);
return prescale;
}
uint16_t PCA9685::prescaleToFrequency(uint8_t prescale)
PCA9685::Frequency PCA9685::prescaleToFrequency(uint8_t prescale)
{
uint16_t frequency = 0;
uint16_t period_us = map(prescale,PRE_SCALE_MIN,PRE_SCALE_MAX,PWM_PERIOD_MIN_US,PWM_PERIOD_MAX_US);
Frequency frequency = 0;
DurationMicroseconds period_us = map(prescale,PRE_SCALE_MIN,PRE_SCALE_MAX,PWM_PERIOD_MIN_US,PWM_PERIOD_MAX_US);
if (period_us > 0)
{
frequency = round((double)MICROSECONDS_PER_SECOND / (double)period_us);
@@ -863,38 +863,38 @@ uint16_t PCA9685::prescaleToFrequency(uint8_t prescale)
return frequency;
}
uint8_t PCA9685::channelToDeviceIndex(uint8_t channel)
uint8_t PCA9685::channelToDeviceIndex(Channel channel)
{
return channel / CHANNELS_PER_DEVICE;
}
uint8_t PCA9685::channelToDeviceChannel(uint8_t channel)
PCA9685::Channel PCA9685::channelToDeviceChannel(Channel channel)
{
return channel % CHANNELS_PER_DEVICE;
}
void PCA9685::dutyCycleAndPercentDelayToPulseWidthAndPhaseShift(double duty_cycle,
double percent_delay,
uint16_t & pulse_width,
uint16_t & phase_shift)
void PCA9685::dutyCycleAndPercentDelayToPulseWidthAndPhaseShift(Percent duty_cycle,
Percent percent_delay,
Duration & pulse_width,
Duration & phase_shift)
{
pulse_width = round(((double)TIME_MAX * duty_cycle) / (double)PERCENT_MAX);
phase_shift = round(((double)TIME_MAX * percent_delay) / (double)PERCENT_MAX);
}
void PCA9685::pulseWidthAndPhaseShiftToDutyCycleAndPercentDelay(uint16_t pulse_width,
uint16_t phase_shift,
double & duty_cycle,
double & percent_delay)
void PCA9685::pulseWidthAndPhaseShiftToDutyCycleAndPercentDelay(Duration pulse_width,
Duration phase_shift,
Percent & duty_cycle,
Percent & percent_delay)
{
duty_cycle = (double)(pulse_width * PERCENT_MAX) / (double)TIME_MAX;
percent_delay = (double)(phase_shift * PERCENT_MAX) / (double)TIME_MAX;
}
void PCA9685::pulseWidthAndPhaseShiftToOnTimeAndOffTime(uint16_t pulse_width,
uint16_t phase_shift,
uint16_t & on_time,
uint16_t & off_time)
void PCA9685::pulseWidthAndPhaseShiftToOnTimeAndOffTime(Duration pulse_width,
Duration phase_shift,
Time & on_time,
Time & off_time)
{
if (pulse_width == TIME_MIN)
{
@@ -912,10 +912,10 @@ void PCA9685::pulseWidthAndPhaseShiftToOnTimeAndOffTime(uint16_t pulse_width,
off_time = (on_time + pulse_width) % TIME_MAX;
}
void PCA9685::onTimeAndOffTimeToPulseWidthAndPhaseShift(uint16_t on_time,
uint16_t off_time,
uint16_t & pulse_width,
uint16_t & phase_shift)
void PCA9685::onTimeAndOffTimeToPulseWidthAndPhaseShift(Time on_time,
Time off_time,
Duration & pulse_width,
Duration & phase_shift)
{
if (on_time == TIME_MAX)
{
@@ -939,65 +939,65 @@ void PCA9685::onTimeAndOffTimeToPulseWidthAndPhaseShift(uint16_t on_time,
phase_shift = on_time;
}
void PCA9685::servoPulseDurationToPulseWidthAndPhaseShift(uint16_t pulse_duration_microseconds,
uint16_t & pulse_width,
uint16_t & phase_shift)
void PCA9685::servoPulseDurationToPulseWidthAndPhaseShift(DurationMicroseconds pulse_duration_microseconds,
Duration & pulse_width,
Duration & phase_shift)
{
phase_shift = 0;
pulse_width = (pulse_duration_microseconds * TIME_MAX) / SERVO_PERIOD_MICROSECONDS;
}
void PCA9685::pulseWidthAndPhaseShiftToServoPulseDuration(uint16_t pulse_width,
uint16_t phase_shift,
uint16_t & pulse_duration_microseconds)
void PCA9685::pulseWidthAndPhaseShiftToServoPulseDuration(Duration pulse_width,
Duration phase_shift,
DurationMicroseconds & pulse_duration_microseconds)
{
uint16_t period_us = SERVO_PERIOD_MICROSECONDS;
DurationMicroseconds period_us = SERVO_PERIOD_MICROSECONDS;
pulse_duration_microseconds = (pulse_width * period_us) / TIME_MAX;
}
void PCA9685::setOutputsInverted(uint8_t device_index)
void PCA9685::setOutputsInverted(DeviceIndex device_index)
{
Mode2Register mode2_register = readMode2Register(device_index);
mode2_register.fields.invrt = OUTPUTS_INVERTED;
write(device_addresses_[device_index],MODE2_REGISTER_ADDRESS,mode2_register.data);
}
void PCA9685::setOutputsNotInverted(uint8_t device_index)
void PCA9685::setOutputsNotInverted(DeviceIndex device_index)
{
Mode2Register mode2_register = readMode2Register(device_index);
mode2_register.fields.invrt = OUTPUTS_NOT_INVERTED;
write(device_addresses_[device_index],MODE2_REGISTER_ADDRESS,mode2_register.data);
}
void PCA9685::setOutputsToTotemPole(uint8_t device_index)
void PCA9685::setOutputsToTotemPole(DeviceIndex device_index)
{
Mode2Register mode2_register = readMode2Register(device_index);
mode2_register.fields.outdrv = OUTPUTS_TOTEM_POLE;
write(device_addresses_[device_index],MODE2_REGISTER_ADDRESS,mode2_register.data);
}
void PCA9685::setOutputsToOpenDrain(uint8_t device_index)
void PCA9685::setOutputsToOpenDrain(DeviceIndex device_index)
{
Mode2Register mode2_register = readMode2Register(device_index);
mode2_register.fields.outdrv = OUTPUTS_OPEN_DRAIN;
write(device_addresses_[device_index],MODE2_REGISTER_ADDRESS,mode2_register.data);
}
void PCA9685::setOutputsLowWhenDisabled(uint8_t device_index)
void PCA9685::setOutputsLowWhenDisabled(DeviceIndex device_index)
{
Mode2Register mode2_register = readMode2Register(device_index);
mode2_register.fields.outne = OUTPUTS_LOW_WHEN_DISABLED;
write(device_addresses_[device_index],MODE2_REGISTER_ADDRESS,mode2_register.data);
}
void PCA9685::setOutputsHighWhenDisabled(uint8_t device_index)
void PCA9685::setOutputsHighWhenDisabled(DeviceIndex device_index)
{
Mode2Register mode2_register = readMode2Register(device_index);
mode2_register.fields.outne = OUTPUTS_HIGH_WHEN_DISABLED;
write(device_addresses_[device_index],MODE2_REGISTER_ADDRESS,mode2_register.data);
}
void PCA9685::setOutputsHighImpedanceWhenDisabled(uint8_t device_index)
void PCA9685::setOutputsHighImpedanceWhenDisabled(DeviceIndex device_index)
{
Mode2Register mode2_register = readMode2Register(device_index);
mode2_register.fields.outne = OUTPUTS_HIGH_IMPEDANCE_WHEN_DISABLED;

10
INF/libraries/PCA9685/src/PCA9685/PCA9685Definitions.h
View File

@@ -3,29 +3,31 @@
//
//
// Authors:
// Peter Polidoro peterpolidoro@gmail.com
// Peter Polidoro peter@polidoro.io
// ----------------------------------------------------------------------------
#ifndef PCA9685_DEFINITIONS_H
#define PCA9685_DEFINITIONS_H
template<typename T>
void PCA9685::write(uint8_t device_address,
void PCA9685::write(DeviceAddress device_address,
uint8_t register_address,
T data)
{
int byte_count = sizeof(data);
wire_ptr_->beginTransmission(device_address);
wire_ptr_->write(register_address);
uint8_t write_byte;
for (int byte_n=0; byte_n<byte_count; ++byte_n)
{
wire_ptr_->write((data >> (BITS_PER_BYTE * byte_n)) & BYTE_MAX);
write_byte = (data >> (BITS_PER_BYTE * byte_n)) & BYTE_MAX;
wire_ptr_->write(write_byte);
}
wire_ptr_->endTransmission();
}
template<typename T>
void PCA9685::read(uint8_t device_index,
void PCA9685::read(DeviceIndex device_index,
uint8_t register_address,
T & data)
{

38
INF/sketch_i2c_uebung/sketch_i2c_uebung.ino Normal file
View File

@@ -0,0 +1,38 @@
#include <Wire.h>
#define lm75_addr 0b1001000
#define led_addr 0b111010
byte data;
long cast;
void setup(){
Wire.begin();
Serial.begin(115200);
}
void loop(){
Wire.requestFrom(lm75_addr, 1);
if(Wire.available() >= 1){
data = Wire.read();
Serial.print("Temp: ");
Serial.print(data);
Serial.println(" ");
Wire.beginTransmission(led_addr);
cast = map(data, 25, 43, 1, 8);
// Geht nicht
/*switch(data){
case 25: cast = 0b01111111;
}
*/
Serial.print("cast: ");
Serial.print(cast);
Serial.println(" ");
Wire.write(cast, );
Wire.endTransmission();
delay(500);
}
}

20
INF/sketch_mar28d/sketch_mar28d.ino Normal file
View File

@@ -0,0 +1,20 @@
const int LED_gruen = 33;
const int Taster2 = 2;
void setup() {
pinMode(LED_gruen, OUTPUT);
pinMode(Taster2, INPUT_PULLUP);
attachInterrupt(digitalPinToInterrupt(Taster2), &Toggle, FALLING);
}
void loop() {
digitalWrite(LED_gruen, HIGH);
delay(250);
digitalWrite(LED_gruen, LOW);
delay(250);
}
void Toggle(){
digitalWrite(LED_gruen, !digitalRead(LED_gruen));
}

55
INF/sketch_pwm_uebung/sketch_pwm_uebung.ino Normal file
View File

@@ -0,0 +1,55 @@
enum zustaende_t {z0, z1, z2, z3} zustand;
const int taster2 = 2, taster4 = 4, led_rot = 32, led_gruen = 33;
bool taster2_g, taster4_g;
// Resoulution 10 Bits -> 2^10 -> 1024
void setup() {
Serial.begin(115200);
pinMode(taster2, INPUT_PULLUP);
pinMode(taster4, INPUT_PULLUP);
ledcAttach(led_rot, 50, 10);
ledcAttach(led_gruen, 50, 10);
zustand = z0;
ledcWrite(led_rot, 1024);
ledcWrite(led_gruen, 1024);
}
void loop() {
einlesen();
verarbeiten();
}
void einlesen(){
}
void verarbeiten(){
switch(zustand){
case z0:
if (digitalRead(taster2) == LOW) zustand = z1;
ledcWrite(led_gruen, 1024);
ledcWrite(led_rot, 1024);
Serial.println("z0");
break;
case z1:
if (digitalRead(taster4) == LOW) zustand = z2;
ledcWrite(led_gruen, 1024);
ledcWrite(led_rot, 0);
Serial.println("z1");
break;
case z2:
if (digitalRead(taster2) == LOW) zustand = z3;
ledcWrite(led_gruen, 0);
ledcWrite(led_rot, 1024);
Serial.println("z2");
break;
case z3:
if (digitalRead(taster4) == LOW) zustand = z0;
ledcWrite(led_gruen, 512);
ledcWrite(led_rot, 512);
Serial.println("z3");
break;
default:
break;
}
}

29
INF/sketch_windgesch/sketch_windgesch.ino Normal file
View File

@@ -0,0 +1,29 @@
volatile uint32_t lastTime, countWind;
uint32_t showTime;
const int windSensorPin = 2; // Pin, an dem der Windsensor angeschlossen ist
float windSpeed;
const float conversionFactor = 0.0875; // Beispiel-Umrechnungsfaktor (muss angepasst werden)
void setup() {
Serial.begin(115200);
byte intNr = digitalPinToInterrupt(windSensorPin);
attachInterrupt(intNr, windCounter, FALLING);
pinMode(windSensorPin, INPUT_PULLUP);
}
void loop() {
uint32_t currentTime = millis();
if (currentTime - showTime >= 1000) {
showTime = currentTime;
windSpeed = countWind * conversionFactor; // Windgeschwindigkeit berechnen
Serial.printf("Windgeschwindigkeit: %5.2f m/s\n", windSpeed);
countWind = 0; // Zähler zurücksetzen
}
}
void windCounter() {
if (millis() - lastTime > 10) {
countWind++;
lastTime = millis();
}
}

45
progp/25-3-26/lehrer-class.php Normal file
View File

@@ -0,0 +1,45 @@
<?php
require_once "personen-class.php";
class Lehrer extends Person{
// Attribute (Member)
private int $gehaltsstufe;#
// Klassen Arttribute
public static int $maxGehaltsstufe =16;
// spezieller (parametrisierter) Konstruktor
public function __construct(string $vn, string $nn, int $gs) {
parent::__construct($vn, $nn);
$this->setGehaltsstufe($gs);
}
// Öffentliche Zugriffsfunktionen
// Setter
public function setGehaltsstufe(int $gs): void {
$this->gehaltsstufe = $gs;
}
// Getter
public function getGehaltsstufe(): int {
return $this->gehaltsstufe;
}
// Sonstige Funktionen
public function ausgabe() { // Funktion ausgabe() der Elternklasse
// überschreibt => erweitern
parent::ausgabe();
echo "Gehaltsstufe: A$this->gehaltsstufe";
echo "</p>";
}
public function befoerdern():bool{
// self die klasse selsbst -> Klasse lehrer
// $this-> die Instanz der Klasse
if($this->gehaltsstufe < self::$maxGehaltsstufe){
$this->gehaltsstufe++;
return true;
}
return false;
}
}
?>

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progp/25-3-26/lehrer-test.php Normal file
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<!DOCTYPE html>
<html lang="en">
<head>
<meta charset="UTF-8">
<meta name="viewport" content="width=device-width, initial-scale=1.0">
<title>Document</title>
</head>
<body>
<?php
ini_set("display_errors", "on");
require_once "lehrer-class.php";
require_once "schueler-class.php";
require_once "personen-class.php";
// --------------------
// L E H R E R T E S T
// --------------------
echo "<h2>Lehrer</h2>";
$l = new Lehrer("Michael", "Staudt", 13);
$l->ausgabe();
if($l->befoerdern()){
echo "<p>Beförderung erfolgreich!</p>";
echo "Neue Stufe: ".$l->getGehaltsstufe()."</p>";
}else {
echo "<p>Beförderung nicht erfolgreich, da höchste Stufe erreicht</p>";
}
// ------------------------
// S C H U E L E R T E S T
// ------------------------
echo "<h2>Schüler</h2>";
$s = new Schueler("daniel", "vici123", "2BKI1");
$s->ausgabe();
// --------------------
// P E R S O N T E S T
// --------------------
echo "<h2>Personen</h2>";
$p = new Person("danielvici", "123");
$p->ausgabe();
?>
<br>
<p>Über mir sollte php code ausgeführt werden</p>
</body>
</html>

5
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<?php
// Hab nicht mit geschrieben...
?>

42
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<?php
class Person { // dient nur zur vererberung, kein objekt erzeugen
// Attribute (Member)
private string $vorname; // # protected, + public, - private
private string $nachname; // #
// spezieller (parametrisierter) Konstruktor
public function __construct(string $vn, string $nn) {
$this->setVorname($vn);
$this->setNachname($nn);
}
// Öffentliche Zugriffsfunktionen
// Setter
public function setVorname(string $vn): void {
$this->vorname = $vn;
}
public function setNachname(string $nn): void {
$this->nachname = $nn;
}
// Getter
public function getVorname(): string {
return $this->vorname;
}
public function getNachname(): string {
return $this->nachname;
}
// Sonstige Funktionen
public function ausgabe() {
echo "<p>";
echo "Vorname: $this->vorname<br>";
echo "Nachname: $this->nachname<br>";
}
}
?>

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progp/25-3-26/schueler-class.php Normal file
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<?php
require_once "personen-class.php";
class Schueler extends Person{
// Attribute (Member)
private string $klasse;
// spezieller (parametrisierter) Konstruktor
public function __construct(string $vn, string $nn, string $kl) {
parent::__construct($vn, $nn);
$this->setKlasse($kl);
}
// Öffentliche Zugriffsfunktionen
// Setter
public function setKlasse(string $kl): void {
$this->klasse = $kl;
}
// Getter
public function getKlasse(): string {
return $this->klasse;
}
// Sonstige Funktionen
public function ausgabe() {
parent::ausgabe();
echo "Klasse: $this->klasse";
echo "</p>";
}
public function versetzen():bool{
if($this->klasse == "2BKI1"){
$this->klasse = "2BKI2";
return true;
}
return false;
}
}
?>

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progp/25-4-2 - oop/a2_klassen.php Normal file
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<?php
ini_set("display_errors", "on");
class mitarbeiter {
public string $name;
public string $geburtsdatum;
public string $gehalt;
public function __construct(string $n, string $gb, string $g) {
$this->name = $n;
$this->geburtsdatum = $gb;
$this->gehalt = $g;
}
public function getInfo(): string {
echo "Name: $this->name";
echo "Geburtsdatum: $this->geburtsdatum";
echo" Gehalt: $this->gehalt";
}
public function getJahresgehalt(): string {
echo $this->gehalt * 12;
}
}
class vollzeit extends mitarbeiter {
public string $arbeitszeit =40;
public function __construct(string $n, string $gb, string $g) {
parent::__construct($n, $gb, $g);
$this->name = $n;
$this->geburtsdatum = $gb;
$this->gehalt = $g;
}
}
?>

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<?php
ini_set("display_errors", "on");
class teilnehmer {
public string $name;
public string $vorname;
public string $code;
public function __construct(string $n, string $vn, string $c) {
$this->name = $n;
$this->vorname = $vn;
$this->code = $c;
}
}
?>

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progp/25-4-2 - oop/testteilnehmer.php Normal file
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<!DOCTYPE html>
<html lang="en">
<head>
<meta charset="UTF-8">
<meta name="viewport" content="width=device-width, initial-scale=1.0">
<title>Document</title>
</head>
<body>
<h1>Teilnehmer</h1>
<?php
ini_set("display_errors", "on");
require_once 'teilnehmer.php';
require_once 'tnintern.php';
echo "<h2>Daniel</h2>";
$tl = new tnintern("vici123", "daniel", "2BKI1", "IT");
$tl->getDaten();
echo "<br>";
echo "<h2>Aurelion Sol</h2>";
$tl = new tnintern("sol", "aurelion", "mage", "midde");
$tl->getDaten();
?>
<br>
<p>Über mir sollte php code ausgeführt werden</p>
</body>
</html>

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progp/25-4-2 - oop/tnintern.php Normal file
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<?php
require_once 'teilnehmer.php';
ini_set("display_errors", "on");
class tnintern extends teilnehmer {
private string $abteilung;
private int $anzahl=0;
public function __construct($n, $vn, $c ,$abteilung) {
parent::__construct($vn, $n, $c);
$this->abteilung = $abteilung;
$this->anzahl= $this->anzahl+1;
}
public function getDaten() {
echo "Name: $this->name <br>";
echo "Vorname: $this->vorname <br>";
echo "Code: $this->code <br>";
echo "Abteilung: $this->abteilung <br>";
echo "Anzahl: $this->anzahl";
}
public function getAnzahl():int {
return $this->anzahl;
}
}
?>