Removed GxEPD files in favor of existing library edits manually.

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// Display Library for SPI e-paper panels from Dalian Good Display and boards from Waveshare.
// Requires HW SPI and Adafruit_GFX. Caution: the e-paper panels require 3.3V supply AND data lines!
//
// based on Demo Example from Good Display, available here: http://www.e-paper-display.com/download_detail/downloadsId=806.html
// Panel: GDEH0154D67 : http://www.e-paper-display.com/products_detail/productId=455.html
// Controller : SSD1681 : http://www.e-paper-display.com/download_detail/downloadsId=825.html
//
// Author: Jean-Marc Zingg
//
// Version: see library.properties
//
// Library: https://github.com/ZinggJM/GxEPD2
#include "GxEPD2_154_D67-B.h" // GuruSR: Changed for setDarkBorder
GxEPD2_154_D67::GxEPD2_154_D67(int8_t cs, int8_t dc, int8_t rst, int8_t busy) :
GxEPD2_EPD(cs, dc, rst, busy, HIGH, 10000000, WIDTH, HEIGHT, panel, hasColor, hasPartialUpdate, hasFastPartialUpdate)
{
}
bool IsDark; // GuruSR: Changed for setDarkBorder
void GxEPD2_154_D67::setDarkBorder(bool Dark){ // GuruSR: Changed for setDarkBorder
IsDark=Dark; // GuruSR: Changed for setDarkBorder
} // GuruSR: Changed for setDarkBorder
void GxEPD2_154_D67::clearScreen(uint8_t value)
{
writeScreenBuffer(value);
refresh(true);
writeScreenBufferAgain(value);
}
void GxEPD2_154_D67::writeScreenBuffer(uint8_t value)
{
if (!_using_partial_mode) _Init_Part();
if (_initial_write) _writeScreenBuffer(0x26, value); // set previous
_writeScreenBuffer(0x24, value); // set current
_initial_write = false; // initial full screen buffer clean done
}
void GxEPD2_154_D67::writeScreenBufferAgain(uint8_t value)
{
if (!_using_partial_mode) _Init_Part();
_writeScreenBuffer(0x24, value); // set current
}
void GxEPD2_154_D67::_writeScreenBuffer(uint8_t command, uint8_t value)
{
_writeCommand(command);
for (uint32_t i = 0; i < uint32_t(WIDTH) * uint32_t(HEIGHT) / 8; i++)
{
_writeData(value);
}
}
void GxEPD2_154_D67::writeImage(const uint8_t bitmap[], int16_t x, int16_t y, int16_t w, int16_t h, bool invert, bool mirror_y, bool pgm)
{
_writeImage(0x24, bitmap, x, y, w, h, invert, mirror_y, pgm);
}
void GxEPD2_154_D67::writeImageForFullRefresh(const uint8_t bitmap[], int16_t x, int16_t y, int16_t w, int16_t h, bool invert, bool mirror_y, bool pgm)
{
_writeImage(0x26, bitmap, x, y, w, h, invert, mirror_y, pgm);
_writeImage(0x24, bitmap, x, y, w, h, invert, mirror_y, pgm);
}
void GxEPD2_154_D67::writeImageAgain(const uint8_t bitmap[], int16_t x, int16_t y, int16_t w, int16_t h, bool invert, bool mirror_y, bool pgm)
{
_writeImage(0x24, bitmap, x, y, w, h, invert, mirror_y, pgm);
}
void GxEPD2_154_D67::_writeImage(uint8_t command, const uint8_t bitmap[], int16_t x, int16_t y, int16_t w, int16_t h, bool invert, bool mirror_y, bool pgm)
{
if (_initial_write) writeScreenBuffer(); // initial full screen buffer clean
delay(1); // yield() to avoid WDT on ESP8266 and ESP32
int16_t wb = (w + 7) / 8; // width bytes, bitmaps are padded
x -= x % 8; // byte boundary
w = wb * 8; // byte boundary
int16_t x1 = x < 0 ? 0 : x; // limit
int16_t y1 = y < 0 ? 0 : y; // limit
int16_t w1 = x + w < int16_t(WIDTH) ? w : int16_t(WIDTH) - x; // limit
int16_t h1 = y + h < int16_t(HEIGHT) ? h : int16_t(HEIGHT) - y; // limit
int16_t dx = x1 - x;
int16_t dy = y1 - y;
w1 -= dx;
h1 -= dy;
if ((w1 <= 0) || (h1 <= 0)) return;
if (!_using_partial_mode) _Init_Part();
_setPartialRamArea(x1, y1, w1, h1);
_writeCommand(command);
for (int16_t i = 0; i < h1; i++)
{
for (int16_t j = 0; j < w1 / 8; j++)
{
uint8_t data;
// use wb, h of bitmap for index!
int16_t idx = mirror_y ? j + dx / 8 + ((h - 1 - (i + dy))) * wb : j + dx / 8 + (i + dy) * wb;
if (pgm)
{
#if defined(__AVR) || defined(ESP8266) || defined(ESP32)
data = pgm_read_byte(&bitmap[idx]);
#else
data = bitmap[idx];
#endif
}
else
{
data = bitmap[idx];
}
if (invert) data = ~data;
_writeData(data);
}
}
delay(1); // yield() to avoid WDT on ESP8266 and ESP32
}
void GxEPD2_154_D67::writeImagePart(const uint8_t bitmap[], int16_t x_part, int16_t y_part, int16_t w_bitmap, int16_t h_bitmap,
int16_t x, int16_t y, int16_t w, int16_t h, bool invert, bool mirror_y, bool pgm)
{
_writeImagePart(0x24, bitmap, x_part, y_part, w_bitmap, h_bitmap, x, y, w, h, invert, mirror_y, pgm);
}
void GxEPD2_154_D67::writeImagePartAgain(const uint8_t bitmap[], int16_t x_part, int16_t y_part, int16_t w_bitmap, int16_t h_bitmap,
int16_t x, int16_t y, int16_t w, int16_t h, bool invert, bool mirror_y, bool pgm)
{
_writeImagePart(0x24, bitmap, x_part, y_part, w_bitmap, h_bitmap, x, y, w, h, invert, mirror_y, pgm);
}
void GxEPD2_154_D67::_writeImagePart(uint8_t command, const uint8_t bitmap[], int16_t x_part, int16_t y_part, int16_t w_bitmap, int16_t h_bitmap,
int16_t x, int16_t y, int16_t w, int16_t h, bool invert, bool mirror_y, bool pgm)
{
if (_initial_write) writeScreenBuffer(); // initial full screen buffer clean
delay(1); // yield() to avoid WDT on ESP8266 and ESP32
if ((w_bitmap < 0) || (h_bitmap < 0) || (w < 0) || (h < 0)) return;
if ((x_part < 0) || (x_part >= w_bitmap)) return;
if ((y_part < 0) || (y_part >= h_bitmap)) return;
int16_t wb_bitmap = (w_bitmap + 7) / 8; // width bytes, bitmaps are padded
x_part -= x_part % 8; // byte boundary
w = w_bitmap - x_part < w ? w_bitmap - x_part : w; // limit
h = h_bitmap - y_part < h ? h_bitmap - y_part : h; // limit
x -= x % 8; // byte boundary
w = 8 * ((w + 7) / 8); // byte boundary, bitmaps are padded
int16_t x1 = x < 0 ? 0 : x; // limit
int16_t y1 = y < 0 ? 0 : y; // limit
int16_t w1 = x + w < int16_t(WIDTH) ? w : int16_t(WIDTH) - x; // limit
int16_t h1 = y + h < int16_t(HEIGHT) ? h : int16_t(HEIGHT) - y; // limit
int16_t dx = x1 - x;
int16_t dy = y1 - y;
w1 -= dx;
h1 -= dy;
if ((w1 <= 0) || (h1 <= 0)) return;
if (!_using_partial_mode) _Init_Part();
_setPartialRamArea(x1, y1, w1, h1);
_writeCommand(command);
for (int16_t i = 0; i < h1; i++)
{
for (int16_t j = 0; j < w1 / 8; j++)
{
uint8_t data;
// use wb_bitmap, h_bitmap of bitmap for index!
int16_t idx = mirror_y ? x_part / 8 + j + dx / 8 + ((h_bitmap - 1 - (y_part + i + dy))) * wb_bitmap : x_part / 8 + j + dx / 8 + (y_part + i + dy) * wb_bitmap;
if (pgm)
{
#if defined(__AVR) || defined(ESP8266) || defined(ESP32)
data = pgm_read_byte(&bitmap[idx]);
#else
data = bitmap[idx];
#endif
}
else
{
data = bitmap[idx];
}
if (invert) data = ~data;
_writeData(data);
}
}
delay(1); // yield() to avoid WDT on ESP8266 and ESP32
}
void GxEPD2_154_D67::writeImage(const uint8_t* black, const uint8_t* color, int16_t x, int16_t y, int16_t w, int16_t h, bool invert, bool mirror_y, bool pgm)
{
if (black)
{
writeImage(black, x, y, w, h, invert, mirror_y, pgm);
}
}
void GxEPD2_154_D67::writeImagePart(const uint8_t* black, const uint8_t* color, int16_t x_part, int16_t y_part, int16_t w_bitmap, int16_t h_bitmap,
int16_t x, int16_t y, int16_t w, int16_t h, bool invert, bool mirror_y, bool pgm)
{
if (black)
{
writeImagePart(black, x_part, y_part, w_bitmap, h_bitmap, x, y, w, h, invert, mirror_y, pgm);
}
}
void GxEPD2_154_D67::writeNative(const uint8_t* data1, const uint8_t* data2, int16_t x, int16_t y, int16_t w, int16_t h, bool invert, bool mirror_y, bool pgm)
{
if (data1)
{
writeImage(data1, x, y, w, h, invert, mirror_y, pgm);
}
}
void GxEPD2_154_D67::drawImage(const uint8_t bitmap[], int16_t x, int16_t y, int16_t w, int16_t h, bool invert, bool mirror_y, bool pgm)
{
writeImage(bitmap, x, y, w, h, invert, mirror_y, pgm);
refresh(x, y, w, h);
writeImageAgain(bitmap, x, y, w, h, invert, mirror_y, pgm);
}
void GxEPD2_154_D67::drawImagePart(const uint8_t bitmap[], int16_t x_part, int16_t y_part, int16_t w_bitmap, int16_t h_bitmap,
int16_t x, int16_t y, int16_t w, int16_t h, bool invert, bool mirror_y, bool pgm)
{
writeImagePart(bitmap, x_part, y_part, w_bitmap, h_bitmap, x, y, w, h, invert, mirror_y, pgm);
refresh(x, y, w, h);
writeImagePartAgain(bitmap, x_part, y_part, w_bitmap, h_bitmap, x, y, w, h, invert, mirror_y, pgm);
}
void GxEPD2_154_D67::drawImage(const uint8_t* black, const uint8_t* color, int16_t x, int16_t y, int16_t w, int16_t h, bool invert, bool mirror_y, bool pgm)
{
if (black)
{
drawImage(black, x, y, w, h, invert, mirror_y, pgm);
}
}
void GxEPD2_154_D67::drawImagePart(const uint8_t* black, const uint8_t* color, int16_t x_part, int16_t y_part, int16_t w_bitmap, int16_t h_bitmap,
int16_t x, int16_t y, int16_t w, int16_t h, bool invert, bool mirror_y, bool pgm)
{
if (black)
{
drawImagePart(black, x_part, y_part, w_bitmap, h_bitmap, x, y, w, h, invert, mirror_y, pgm);
}
}
void GxEPD2_154_D67::drawNative(const uint8_t* data1, const uint8_t* data2, int16_t x, int16_t y, int16_t w, int16_t h, bool invert, bool mirror_y, bool pgm)
{
if (data1)
{
drawImage(data1, x, y, w, h, invert, mirror_y, pgm);
}
}
void GxEPD2_154_D67::refresh(bool partial_update_mode)
{
if (partial_update_mode) refresh(0, 0, WIDTH, HEIGHT);
else
{
if (_using_partial_mode) _Init_Full();
_Update_Full();
_initial_refresh = false; // initial full update done
}
}
void GxEPD2_154_D67::refresh(int16_t x, int16_t y, int16_t w, int16_t h)
{
if (_initial_refresh) return refresh(false); // initial update needs be full update
x -= x % 8; // byte boundary
w -= x % 8; // byte boundary
int16_t x1 = x < 0 ? 0 : x; // limit
int16_t y1 = y < 0 ? 0 : y; // limit
int16_t w1 = x + w < int16_t(WIDTH) ? w : int16_t(WIDTH) - x; // limit
int16_t h1 = y + h < int16_t(HEIGHT) ? h : int16_t(HEIGHT) - y; // limit
w1 -= x1 - x;
h1 -= y1 - y;
if (!_using_partial_mode) _Init_Part();
_setPartialRamArea(x1, y1, w1, h1);
_Update_Part();
}
void GxEPD2_154_D67::powerOff()
{
_PowerOff();
}
void GxEPD2_154_D67::hibernate()
{
_PowerOff();
if (_rst >= 0)
{
_writeCommand(0x10); // deep sleep mode
_writeData(0x1); // enter deep sleep
_hibernating = true;
}
}
void GxEPD2_154_D67::_setPartialRamArea(uint16_t x, uint16_t y, uint16_t w, uint16_t h)
{
_writeCommand(0x11); // set ram entry mode
_writeData(0x03); // x increase, y increase : normal mode
_writeCommand(0x44);
_writeData(x / 8);
_writeData((x + w - 1) / 8);
_writeCommand(0x45);
_writeData(y % 256);
_writeData(y / 256);
_writeData((y + h - 1) % 256);
_writeData((y + h - 1) / 256);
_writeCommand(0x4e);
_writeData(x / 8);
_writeCommand(0x4f);
_writeData(y % 256);
_writeData(y / 256);
}
void GxEPD2_154_D67::_PowerOn()
{
if (!_power_is_on)
{
_writeCommand(0x22);
_writeData(0xf8);
_writeCommand(0x20);
_waitWhileBusy("_PowerOn", power_on_time);
}
_power_is_on = true;
}
void GxEPD2_154_D67::_PowerOff()
{
if (_power_is_on)
{
_writeCommand(0x22);
_writeData(0x83);
_writeCommand(0x20);
_waitWhileBusy("_PowerOff", power_off_time);
}
_power_is_on = false;
_using_partial_mode = false;
}
void GxEPD2_154_D67::_InitDisplay()
{
if (_hibernating) _reset();
delay(10); // 10ms according to specs
_writeCommand(0x12); // soft reset
delay(10); // 10ms according to specs
_writeCommand(0x01); // Driver output control
_writeData(0xC7);
_writeData(0x00);
_writeData(0x00);
_writeCommand(0x3C); // BorderWavefrom
_writeData(IsDark ? 0x02 : 0x05); // GuruSR: Changed for setDarkBorder
_writeCommand(0x18); // Read built-in temperature sensor
_writeData(0x80);
_setPartialRamArea(0, 0, WIDTH, HEIGHT);
}
void GxEPD2_154_D67::_Init_Full()
{
_InitDisplay();
_PowerOn();
_using_partial_mode = false;
}
void GxEPD2_154_D67::_Init_Part()
{
_InitDisplay();
_PowerOn();
_using_partial_mode = true;
}
void GxEPD2_154_D67::_Update_Full()
{
_writeCommand(0x22);
_writeData(0xf4);
_writeCommand(0x20);
_waitWhileBusy("_Update_Full", full_refresh_time);
}
void GxEPD2_154_D67::_Update_Part()
{
_writeCommand(0x22);
_writeData(0xfc);
_writeCommand(0x20);
_waitWhileBusy("_Update_Part", partial_refresh_time);
}