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| /*
* ****** FORK FOR THE ******
*
* -------------- ETHERNET CLIENT TOUCH SCREEN INTERFACE PROJET -------------- *
* Arduino UNO + ILI9341 TFT screen + XPT2046 touch panel + Shield Ethernet II *
* V53 - 31/01/2021 *
* Compile with Arduino 1.8.12 *
* PLEASE READ PDF MANUAL BEFORE USE *
* www.remylucas.fr *
* --------------------------------------------------------------------------- *
*/
/*
This is a replacement "re-mix" of the Adafruit GFX library and associated hardware LCD drivers.
https://hackaday.io/project/6038-pdqgfx-optimzed-avr-lcd-graphics
It is between 2.5 and 12 times faster than the Adafruit libraries for SPI LCDs
Remy LUCAS Fork is a little bit faster, have more functions and alors takes less ROM usage.
NOTE: This file is from the Adafruit_ILI9341 library (which PDQ_IL9341 was based on). Thanks Adafruit!
This is a library for the Adafruit 2.2" SPI display.
This library works with the Adafruit 2.2" TFT Breakout w/SD card
----> http://www.adafruit.com/products/1480
Check out the links above for our tutorials and wiring diagrams.
These displays use SPI to communicate, 4 or 5 pins are required
to interface (RST is optional).
Adafruit invests time and resources providing this open source code,
please support Adafruit and open-source hardware by purchasing
products from Adafruit!
Written by Limor Fried/Ladyada for Adafruit Industries.
MIT license, all text above must be included in any redistribution
*/
#if !defined(TFT_SIZE_WIDTH)
#define TFT_SIZE_WIDTH 240
#endif
#if !defined(TFT_SIZE_HEIGHT)
#define TFT_SIZE_HEIGHT 320
#endif
// DEFINE HERE THE PIN USED -------------------
#define ILI9341_CS_PIN 0 // <= /CS pin (chip-select, LOW to get attention of ILI9341, HIGH and it ignores SPI bus)
#define ILI9341_DC_PIN 9 // <= DC pin (1=data or 0=command indicator line) also called RS
#define ILI9341_RST_PIN 8 // <= RST pin (optional)
// other pins (MISO, MOSI, CK) used are dictated by HARDWARE SPI
// --------------------------------------------
// other PDQ library options
#define ILI9341_SAVE_SPCR 0
#include "Arduino.h"
#include "Print.h"
#include <avr/pgmspace.h>
#include "RLucas_TFT_FastPin.h"
#if !defined(__AVR_ATtiny85__) && !defined(__AVR_ATtiny45__)
#define INLINE inline
#define INLINE_OPT __attribute__((always_inline))
#else
#define INLINE
#define INLINE_OPT
#endif
#ifndef pgm_read_byte
#define pgm_read_byte(addr) (*(const unsigned char *)(addr))
#endif
#ifndef pgm_read_word
#define pgm_read_word(addr) (*(const unsigned short *)(addr))
#endif
#ifndef pgm_read_dword
#define pgm_read_dword(addr) (*(const unsigned long *)(addr))
#endif
#if !defined(__INT_MAX__) || (__INT_MAX__ > 0xFFFFL)
#define pgm_read_pointer(addr) ((void *)pgm_read_dword(addr))
#else
#define pgm_read_pointer(addr) ((void *)pgm_read_word(addr))
#endif
int GLOBAL_X1; // X or X1
int GLOBAL_Y1; // Y or Y1
int GLOBAL_X2; // X2 or W
int GLOBAL_Y2; // Y2 or H
int GLOBAL_X3; // X3 or L or R
int GLOBAL_Y3; // Y3
unsigned int GLOBAL_Colour; // Draw Colour
unsigned int GLOBAL_ColourBG; // Background colour (usefull for bitmaps, texts)
uint8_t GLOBAL_Button_Offset;
bool RainbowFunc_UseBG; // used to swith from Rainbow_BG_Colour to Rainbow_Colour
bool RainbowFunc_Mode; // used to swith from Rainbow_BG_Colour to Rainbow_Colour
bool RainbowFunc_X_Direction; // used to swith from Rainbow_BG_Colour to Rainbow_Colour
uint8_t Rainbow_R; // R value when X or Y = Rainbow_XY_min
uint8_t Rainbow_G;
uint8_t Rainbow_B;
int Rainbow_DR; // R value when X or Y = Rainbow_XY_min + Rainbow_XY_delta is Rainbow_R + Rainbow_DR
int Rainbow_DG;
int Rainbow_DB;
bool Rainbow_Mode;
bool Rainbow_X_Direction;
int Rainbow_XY_min;
int Rainbow_XY_delta;
bool Rainbow_Swap;
int Rainbow_WH;
uint8_t Rainbow_BG_R;
uint8_t Rainbow_BG_G;
uint8_t Rainbow_BG_B;
int Rainbow_BG_DR;
int Rainbow_BG_DG;
int Rainbow_BG_DB;
bool Rainbow_BG_Mode;
bool Rainbow_BG_X_Direction;
int Rainbow_BG_XY_min;
int Rainbow_BG_XY_delta;
bool Rainbow_BG_Swap;
int Rainbow_BG_WH;
byte BG_Coul_Index;
unsigned int Colour[14] = {0,63488,2016,31,63519,65504,65535,33808,64512,1024,32768,65535,16904,33808}; // couleurs par défaut
#define Index_Colour_Black 0 // 0
#define Index_Colour_Red 1 // 63488
#define Index_Colour_Green 2 // 2016
#define Index_Colour_Blue 3 // 31
#define Index_Colour_Purple 4 // 63519
#define Index_Colour_Yellow 5 // 65504
#define Index_Colour_White 6 // 65535
#define Index_Colour_Gray 7 // 33808
#define Index_Colour_Orange 8 // 64512
#define Index_Colour_DarkGreen 9 // 1024
#define Index_Colour_Brown 10 // 32768
#define Index_Colour_ButtonTopLeft 11 // 65535
#define Index_Colour_ButtonBottomRightInt 12 // 16904
#define Index_Colour_ButtonBottomRightExt 13 // 33808
// swap any type
template<typename T>
static inline void swapValue(T& x, T& y) {
T tmp = x;
x = y;
y = tmp;
}
typedef int coord_t;
class PDQ_ILI9341 : public Print {
public:
// ILI9341 commands - For datasheet see https://www.adafruit.com/products/1480
enum {
ILI9341_NOP = 0x00,
ILI9341_SWRESET = 0x01,
ILI9341_RDDID = 0x04,
ILI9341_RDDST = 0x09,
ILI9341_SLPIN = 0x10,
ILI9341_SLPOUT = 0x11,
ILI9341_PTLON = 0x12,
ILI9341_NORON = 0x13,
ILI9341_RDMODE = 0x0A,
ILI9341_RDMADCTL = 0x0B,
ILI9341_RDPIXFMT = 0x0C,
ILI9341_RDIMGFMT = 0x0A,
ILI9341_RDSELFDIAG = 0x0F,
ILI9341_INVOFF = 0x20,
ILI9341_INVON = 0x21,
ILI9341_GAMMASET = 0x26,
ILI9341_DISPOFF = 0x28,
ILI9341_DISPON = 0x29,
ILI9341_CASET = 0x2A,
ILI9341_PASET = 0x2B,
ILI9341_RAMWR = 0x2C,
ILI9341_RAMRD = 0x2E,
ILI9341_PTLAR = 0x30,
ILI9341_MADCTL = 0x36,
ILI9341_PIXFMT = 0x3A,
ILI9341_FRMCTR1 = 0xB1,
ILI9341_FRMCTR2 = 0xB2,
ILI9341_FRMCTR3 = 0xB3,
ILI9341_INVCTR = 0xB4,
ILI9341_DFUNCTR = 0xB6,
ILI9341_PWCTR1 = 0xC0,
ILI9341_PWCTR2 = 0xC1,
ILI9341_PWCTR3 = 0xC2,
ILI9341_PWCTR4 = 0xC3,
ILI9341_PWCTR5 = 0xC4,
ILI9341_VMCTR1 = 0xC5,
ILI9341_VMCTR2 = 0xC7,
ILI9341_RDID1 = 0xDA,
ILI9341_RDID2 = 0xDB,
ILI9341_RDID3 = 0xDC,
ILI9341_RDID4 = 0xDD,
ILI9341_GMCTRP1 = 0xE0,
ILI9341_GMCTRN1 = 0xE1,
// ILI9341_PWCTR6 = 0xFC,
};
// some other misc. constants
enum {
// screen dimensions
//ILI9341_TFTWIDTH = 240,
//ILI9341_TFTHEIGHT = 320,
// MADCTL bits
ILI9341_MADCTL_MH = 0x04, // bit 2 = 0 for refresh left -> right, 1 for refresh right -> left
ILI9341_MADCTL_RGB = 0x00, // bit 3 = 0 for RGB color order
ILI9341_MADCTL_BGR = 0x08, // bit 3 = 1 for BGR color order
ILI9341_MADCTL_ML = 0x10, // bit 4 = 0 for refresh top -> bottom, 1 for bottom -> top
ILI9341_MADCTL_MV = 0x20, // bit 5 = 0 for column, row order (portrait), 1 for row, column order (landscape)
ILI9341_MADCTL_MX = 0x40, // bit 6 = 0 for left -> right, 1 for right -> left order
ILI9341_MADCTL_MY = 0x80, // bit 7 = 0 for top -> bottom, 1 for bottom -> top
// delay indicator bit for commandList()
DELAY = 0x80
};
// === lower-level internal routines =========
static void commandList(const uint8_t *addr);
// NOTE: Make sure each spi_begin() is matched with a single spi_end() (and don't call either twice)
// set CS back to low (LCD selected)
static inline void spi_begin() __attribute__((always_inline)) {
#if ILI9341_SAVE_SPCR && defined(AVR_HARDWARE_SPI)
swapValue(save_SPCR, SPCR); // swap initial/current SPCR settings
#endif
FastPin<ILI9341_CS_PIN>::lo(); // CS <= LOW (selected)
}
// NOTE: Make sure each spi_begin() is matched with a single spi_end() (and don't call either twice)
// reset CS back to high (LCD unselected)
static inline void spi_end() __attribute__((always_inline)) {
FastPin<ILI9341_CS_PIN>::hi(); // CS <= HIGH (deselected)
#if ILI9341_SAVE_SPCR && defined(AVR_HARDWARE_SPI)
swapValue(SPCR, save_SPCR); // swap current/initial SPCR settings
#endif
}
#if defined(AVR_HARDWARE_SPI)
// 10 cycle delay (including "call")
static void delay10() __attribute__((noinline)) __attribute__((naked)) {
__asm__ __volatile__
(
// +4 (call to get here)
#if !defined(__AVR_HAVE_RAMPD__)
" adiw r24,0\n" // +2 (2-cycle NOP)
#else
" nop\n" // +1 (1-cycle NOP)
#endif
" ret\n" // +4 (or +5 on >64KB AVR with RAMPD reg)
// = 10 cycles
: : :
);
}
// 13 cycle delay (including "call")
static void delay13() __attribute__((noinline)) __attribute__((naked)) {
__asm__ __volatile__
(
// +4 (call to get here)
" adiw r24,0\n" // +2 (2-cycle NOP)
" adiw r24,0\n" // +2 (2-cycle NOP)
#if !defined(__AVR_HAVE_RAMPD__)
" nop\n" // +1 (1-cycle NOP)
#endif
" ret\n" // +4 (or +5 on >64KB AVR with RAMPD reg)
// = 13 cycles
: : :
);
}
// 15 cycle delay (including "call")
static void delay15() __attribute__((noinline)) __attribute__((naked)) {
__asm__ __volatile__
(
// +4 (call to get here)
" adiw r24,0\n" // +2 (2-cycle NOP)
" adiw r24,0\n" // +2 (2-cycle NOP)
" adiw r24,0\n" // +2 (2-cycle NOP)
#if !defined(__AVR_HAVE_RAMPD__)
" nop\n" // +1 (1-cycle NOP)
#endif
" ret\n" // +4 (or +5 on >64KB AVR with RAMPD reg)
// = 15 cycles
: : :
);
}
// 17 cycle delay (including "call")
static void delay17() __attribute__((noinline)) __attribute__((naked)) {
__asm__ __volatile__
(
// +4 (call to get here)
" adiw r24,0\n" // +2 (2-cycle NOP)
" adiw r24,0\n" // +2 (2-cycle NOP)
" adiw r24,0\n" // +2 (2-cycle NOP)
" adiw r24,0\n" // +2 (2-cycle NOP)
#if !defined(__AVR_HAVE_RAMPD__)
" nop\n" // +1 (2-cycle NOP)
#endif
" ret\n" // +4 (or +5 on >64KB AVR with RAMPD reg)
// = 17 cycles
: : :
);
}
// normal SPI write with minimal hand-tuned delay (assuming max DIV2 SPI rate)
static INLINE void spiWrite(uint8_t data) INLINE_OPT {
SPDR = data;
__asm__ __volatile__
(
" call _ZN11PDQ_ILI93417delay17Ev\n" // call mangled delay17 (compiler would needlessly save/restore regs)
: : :
);
}
// special SPI write with minimal hand-tuned delay (assuming max DIV2 SPI rate) - minus 2 cycles for RS (etc.) change
static INLINE void spiWrite_preCmd(uint8_t data) INLINE_OPT {
SPDR = data;
__asm__ __volatile__
(
" call _ZN11PDQ_ILI93417delay15Ev\n" // call mangled delay15 (compiler would needlessly save/restore regs)
: : :
);
}
// SPI 16-bit write with minimal hand-tuned delay (assuming max DIV2 SPI rate)
static INLINE void spiWrite16(uint16_t data) INLINE_OPT {
uint8_t temp;
__asm__ __volatile__
(
" out %[spi],%[hi]\n" // write SPI data (18 cycles until next write)
" call _ZN11PDQ_ILI93417delay17Ev\n" // call mangled delay17 (compiler would needlessly save/restore regs)
" out %[spi],%[lo]\n" // write SPI data (18 cycles until next write)
" call _ZN11PDQ_ILI93417delay17Ev\n" // call mangled delay17 (compiler would needlessly save/restore regs)
: [temp] "=d" (temp)
: [spi] "i" (_SFR_IO_ADDR(SPDR)), [lo] "r" ((uint8_t)data), [hi] "r" ((uint8_t)(data>>8))
:
);
}
// SPI 16-bit write with minimal hand-tuned delay (assuming max DIV2 SPI rate) minus 2 cycles
static INLINE void spiWrite16_preCmd(uint16_t data) INLINE_OPT {
uint8_t temp;
__asm__ __volatile__
(
" out %[spi],%[hi]\n" // write SPI data (18 cycles until next write)
" call _ZN11PDQ_ILI93417delay17Ev\n" // call mangled delay17 (compiler would needlessly save/restore regs)
" out %[spi],%[lo]\n" // write SPI data (18 cycles until next write)
" call _ZN11PDQ_ILI93417delay15Ev\n" // call mangled delay15 (compiler would needlessly save/restore regs)
: [temp] "=d" (temp)
: [spi] "i" (_SFR_IO_ADDR(SPDR)), [lo] "r" ((uint8_t)data), [hi] "r" ((uint8_t)(data>>8))
:
);
}
// SPI 16-bit write with minimal hand-tuned delay (assuming max DIV2 SPI rate) minus 4 cycles
static INLINE void spiWrite16_lineDraw(uint16_t data) INLINE_OPT {
uint8_t temp;
__asm__ __volatile__
(
" out %[spi],%[hi]\n" // write SPI data (18 cycles until next write)
" call _ZN11PDQ_ILI93417delay17Ev\n" // call mangled delay17 (compiler would needlessly save/restore regs)
" out %[spi],%[lo]\n" // write SPI data (18 cycles until next write)
: [temp] "=d" (temp)
: [spi] "i" (_SFR_IO_ADDR(SPDR)), [lo] "r" ((uint8_t)data), [hi] "r" ((uint8_t)(data>>8))
:
);
}
// normal SPI write with minimal hand-tuned delay (assuming max DIV2 SPI rate)
static INLINE void spiWrite16(uint16_t data, int count) INLINE_OPT {
uint8_t temp;
__asm__ __volatile__
(
" sbiw %[count],0\n" // test count
" brmi 4f\n" // if < 0 then done
" breq 4f\n" // if == 0 then done
"1: out %[spi],%[hi]\n" // write SPI data (18 cycles until next write)
" call _ZN11PDQ_ILI93417delay17Ev\n" // call mangled delay17 (compiler would needlessly save/restore regs)
" out %[spi],%[lo]\n" // write SPI data (18 cycles until next write)
" call _ZN11PDQ_ILI93417delay13Ev\n" // call mangled delay13 (compiler would needlessly save/restore regs)
" sbiw %[count],1\n" // +2 decrement count
" brne 1b\n" // +2/1 if != 0 then loop
// = 13 + 2 + 2 (17 cycles)
"4:\n"
: [temp] "=d" (temp), [count] "+w" (count)
: [spi] "i" (_SFR_IO_ADDR(SPDR)), [lo] "r" ((uint8_t)data), [hi] "r" ((uint8_t)(data>>8))
:
);
}
#else // bit-bang
#if defined(__AVR_ATtiny85__) || defined(__AVR_ATtiny45__)
// USI hardware assisted
static void spiWrite(uint8_t data) __attribute__((noinline)) {
USIDR = data;
__asm__ __volatile__
(
" out %[spi],%[clkp0]\n" // MSB
" out %[spi],%[clkp1]\n"
" out %[spi],%[clkp0]\n"
" out %[spi],%[clkp1]\n"
" out %[spi],%[clkp0]\n"
" out %[spi],%[clkp1]\n"
" out %[spi],%[clkp0]\n"
" out %[spi],%[clkp1]\n"
" out %[spi],%[clkp0]\n"
" out %[spi],%[clkp1]\n"
" out %[spi],%[clkp0]\n"
" out %[spi],%[clkp1]\n"
" out %[spi],%[clkp0]\n"
" out %[spi],%[clkp1]\n"
" out %[spi],%[clkp0]\n" // LSB
" out %[spi],%[clkp1]\n"
:
: [spi] "i" (_SFR_IO_ADDR(USICR)), [clkp0] "a" ((uint8_t)((1<<USIWM0)|(0<<USICS0)|(1<<USITC))), [clkp1] "a" ((uint8_t)((1<<USIWM0)|(0<<USICS0)|(1<<USITC)|(1<<USICLK)))
:
);
}
static void spiWrite16(uint16_t data) __attribute__((noinline)) {
USIDR = data>>8;
__asm__ __volatile__
(
" out %[spi],%[clkp0]\n" // MSB
" out %[spi],%[clkp1]\n"
" out %[spi],%[clkp0]\n"
" out %[spi],%[clkp1]\n"
" out %[spi],%[clkp0]\n"
" out %[spi],%[clkp1]\n"
" out %[spi],%[clkp0]\n"
" out %[spi],%[clkp1]\n"
" out %[spi],%[clkp0]\n"
" out %[spi],%[clkp1]\n"
" out %[spi],%[clkp0]\n"
" out %[spi],%[clkp1]\n"
" out %[spi],%[clkp0]\n"
" out %[spi],%[clkp1]\n"
" out %[spi],%[clkp0]\n" // LSB
" out %[spi],%[clkp1]\n"
:
: [spi] "i" (_SFR_IO_ADDR(USICR)), [clkp0] "a" ((uint8_t)((1<<USIWM0)|(0<<USICS0)|(1<<USITC))), [clkp1] "a" ((uint8_t)((1<<USIWM0)|(0<<USICS0)|(1<<USITC)|(1<<USICLK)))
:
);
USIDR = data&0xff;
__asm__ __volatile__
(
" out %[spi],%[clkp0]\n" // MSB
" out %[spi],%[clkp1]\n"
" out %[spi],%[clkp0]\n"
" out %[spi],%[clkp1]\n"
" out %[spi],%[clkp0]\n"
" out %[spi],%[clkp1]\n"
" out %[spi],%[clkp0]\n"
" out %[spi],%[clkp1]\n"
" out %[spi],%[clkp0]\n"
" out %[spi],%[clkp1]\n"
" out %[spi],%[clkp0]\n"
" out %[spi],%[clkp1]\n"
" out %[spi],%[clkp0]\n"
" out %[spi],%[clkp1]\n"
" out %[spi],%[clkp0]\n" // LSB
" out %[spi],%[clkp1]\n"
:
: [spi] "i" (_SFR_IO_ADDR(USICR)), [clkp0] "a" ((uint8_t)((1<<USIWM0)|(0<<USICS0)|(1<<USITC))), [clkp1] "a" ((uint8_t)((1<<USIWM0)|(0<<USICS0)|(1<<USITC)|(1<<USICLK)))
:
);
}
#else
static void spiWrite(uint8_t data) __attribute__((noinline)) {
// Fast SPI bitbang swiped from LPD8806 library
for(uint8_t bit = 0x80; bit; bit >>= 1) {
if (data & bit)
FastPin<ILI9341_MOSI_PIN>::hi();
else
FastPin<ILI9341_MOSI_PIN>::lo();
FastPin<ILI9341_SCLK_PIN>::hi();
FastPin<ILI9341_SCLK_PIN>::lo();
}
}
static void spiWrite16(uint16_t data) __attribute__((noinline)) {
spiWrite(data >> 8);
spiWrite(data & 0xff);
}
#endif
static INLINE void spiWrite_preCmd(uint8_t data) INLINE_OPT {
spiWrite(data);
}
static INLINE void spiWrite16_preCmd(uint16_t data) INLINE_OPT {
spiWrite16(data);
}
static INLINE void spiWrite16_lineDraw(uint16_t data) INLINE_OPT {
spiWrite16(data);
}
static INLINE void spiWrite16(uint16_t data, int count) INLINE_OPT {
while (count-- > 0)
spiWrite16(data);
}
static inline void delay10() { }
static inline void delay13() { }
static inline void delay15() { }
static inline void delay17() { }
#endif
// write SPI byte with RS (aka D/C) pin set low to indicate a command byte (and then reset back to high when done)
static INLINE void writeCommand(uint8_t data) INLINE_OPT {
FastPin<ILI9341_DC_PIN>::lo(); // RS <= LOW indicate command byte
spiWrite_preCmd(data);
FastPin<ILI9341_DC_PIN>::hi(); // RS <= HIGH indicate data byte (always assumed left in data mode)
}
// write SPI byte with RS assumed low indicating a data byte
static inline void writeData(uint8_t data) __attribute__((always_inline)) {
spiWrite(data);
}
// internal version that does not spi_begin()/spi_end()
static INLINE void setAddrWindow_(uint16_t x0, uint16_t y0, uint16_t x1, uint16_t y1) INLINE_OPT {
writeCommand(ILI9341_CASET); // column address set
spiWrite16(x0); // XSTART
spiWrite16_preCmd(x1); // XEND
writeCommand(ILI9341_PASET); // row address set
spiWrite16(y0); // YSTART
spiWrite16_preCmd(y1); // YEND
writeCommand(ILI9341_RAMWR); // write to RAM
}
#if ILI9341_SAVE_SPCR && defined(AVR_HARDWARE_SPI)
static volatile uint8_t save_SPCR; // initial SPCR value/saved SPCR value (swapped in spi_begin/spi_end)
#endif
PDQ_ILI9341();
static void inline begin(void);
static void drawPixel(int x, int y);
static void drawFastVLine(int x, int y, int h);
static void drawFastHLine(int x, int y, int w);
static void setRotation(uint8_t r);
static void drawFastBitmap(uint8_t *bitmap, uint8_t angleFM);
static void drawFastChar(coord_t x, coord_t y, unsigned char c);
static void fillScreen();
static void drawLine(int x0, int y0, int x1, int y1);
static void fillRect(int x, int y, int w, int h);
static void DrawButtonFrame(byte mode);
static void setFont(byte params, byte textSize);
static void drawRect();
static int getButtonCornerX();
static int getButtonCornerY();
static void drawCircle();
static void drawCircleHelper(coord_t x0, coord_t y0, coord_t r, uint8_t cornername);
static void fillCircle();
static void fillCircleHelper(coord_t x0, coord_t y0, coord_t r, uint8_t cornername, coord_t delta);
static void drawTriangle();
static void fillTriangle();
static void drawRoundRect();
static void fillRoundRect();
virtual size_t write(uint8_t); // Called by Arduino "Print.h"
static coord_t cursor_x, cursor_y;
static boolean wrap; // If set, 'wrap' text at right edge of display
static uint8_t rotation;
protected:
static coord_t WIDTH, HEIGHT; // This is the 'raw' display w/h - never changes
static coord_t _width, _height; // Display w/h as modified by current rotation
static uint8_t GLOBAL_FontSizeX; // Taille de la police
static uint8_t GLOBAL_FontSizeY; // Taille de la police
static int16_t GLOBAL_FontBits; // Nombre de bits par caractère
static uint8_t GLOBAL_CarSpace; // Nombre de pixels entre chaque caractère
static uint8_t GLOBAL_LineSpace; // Nombre de pixels entre chaque ligne
static uint8_t GLOBAL_MinAscii; // Code ASCII le plus petit affichable
static uint8_t GLOBAL_MaxAscii; // Code ASCII le plus grand affichable
static char* GLOBAL_FontAdrr; // Adresse de la police
static uint8_t GLOBAL_TextSize;
static uint8_t carWidth;
static uint8_t carHeight;
static uint8_t flagTabXY;
};
#if ILI9341_SAVE_SPCR && defined(AVR_HARDWARE_SPI)
// static data needed by base class
volatile uint8_t PDQ_ILI9341::save_SPCR;
#endif
int16_t PDQ_ILI9341::WIDTH; // This is the 'raw' display w/h - never changes
int16_t PDQ_ILI9341::HEIGHT;
int16_t PDQ_ILI9341::_width; // Display w/h as modified by current rotation
int16_t PDQ_ILI9341::_height;
int16_t PDQ_ILI9341::cursor_x;
int16_t PDQ_ILI9341::cursor_y;
uint8_t PDQ_ILI9341::rotation;
boolean PDQ_ILI9341::wrap; // If set, 'wrap' text at right edge of display
uint8_t PDQ_ILI9341::GLOBAL_FontSizeX;
uint8_t PDQ_ILI9341::GLOBAL_FontSizeY;
int16_t PDQ_ILI9341::GLOBAL_FontBits;
uint8_t PDQ_ILI9341::GLOBAL_CarSpace;
uint8_t PDQ_ILI9341::GLOBAL_LineSpace;
uint8_t PDQ_ILI9341::GLOBAL_MinAscii;
uint8_t PDQ_ILI9341::GLOBAL_MaxAscii;
char* PDQ_ILI9341::GLOBAL_FontAdrr;
uint8_t PDQ_ILI9341::GLOBAL_TextSize;
uint8_t PDQ_ILI9341::carWidth;
uint8_t PDQ_ILI9341::carHeight;
uint8_t PDQ_ILI9341::flagTabXY;
PDQ_ILI9341::PDQ_ILI9341() {
WIDTH = (int16_t)TFT_SIZE_WIDTH;
HEIGHT = (int16_t)TFT_SIZE_HEIGHT;
_width = (int16_t)TFT_SIZE_WIDTH;
_height = (int16_t)TFT_SIZE_HEIGHT;
rotation = 1; // Needed to force SetRotation() to send data to TFT screen in Begin()
wrap = true;
flagTabXY = 0;
#if defined(AVR_HARDWARE_SPI)
// must reference these functions from C++ or they will be stripped by linker (called from inline asm)
delay10();
delay13();
delay15();
delay17();
#endif
}
// Companion code to the above tables. Reads and issues a series of LCD commands stored in PROGMEM byte array.
void PDQ_ILI9341::commandList(const uint8_t *addr) {
uint8_t numCommands, numArgs;
uint16_t ms;
numCommands = pgm_read_byte(addr++); // Number of commands to follow
while (numCommands--) { // For each command...
writeCommand(pgm_read_byte(addr++)); // Read, issue command
numArgs = pgm_read_byte(addr++); // Number of args to follow
ms = numArgs & DELAY; // If hibit set, delay follows args
numArgs &= ~DELAY; // Mask out delay bit
while (numArgs--) { // For each argument...
writeData(pgm_read_byte(addr++)); // Read, issue argument
}
if (ms) {
ms = pgm_read_byte(addr++); // Read post-command delay time (ms)
if(ms == 255)
ms = 500; // If 255, delay for 500 ms
delay(ms);
}
}
}
void PDQ_ILI9341::begin(void) {
// set CS and RS pin directions to output
FastPin<ILI9341_CS_PIN>::setOutput();
FastPin<ILI9341_DC_PIN>::setOutput();
#if !defined(AVR_HARDWARE_SPI)
#if defined(__AVR_ATtiny45__) || defined(__AVR_ATtiny85__)
USICR = (0<<USISIE)|(0<<USIOIE)|(0<<USIWM1)|(1<<USIWM0)|(0<<USICS1)|(1<<USICS0)|(1<<USICLK)|(0<<USITC);
#endif
#if defined (ILI9341_MISO_PIN)
FastPin<ILI9341_MISO_PIN>::setInput();
#endif
FastPin<ILI9341_MOSI_PIN>::setOutput();
FastPin<ILI9341_SCLK_PIN>::setOutput();
FastPin<ILI9341_MOSI_PIN>::lo();
FastPin<ILI9341_SCLK_PIN>::lo();
#endif
FastPin<ILI9341_CS_PIN>::hi(); // CS <= HIGH (deselected, so no spurious data)
FastPin<ILI9341_DC_PIN>::hi(); // RS <= HIGH (default data byte)
#if defined(AVR_HARDWARE_SPI)
#if ILI9341_SAVE_SPCR
uint8_t oldSPCR = SPCR; // save initial SPCR settings
#endif
SPI.begin();
SPI.setBitOrder(MSBFIRST);
SPI.setDataMode(SPI_MODE0);
SPI.setClockDivider(SPI_CLOCK_DIV2); // 8 MHz (full! speed!) [1 byte every 18 cycles]
#endif
#if ILI9341_SAVE_SPCR && defined(AVR_HARDWARE_SPI)
save_SPCR = SPCR; // save SPCR settings
SPCR = oldSPCR; // restore previous SPCR settings (spi_begin/spi_end will switch between the two)
#endif
spi_begin();
// Initialization commands for ILI9341 screens
static const uint8_t ILI9341_cmds[] PROGMEM = {
22,
ILI9341_SWRESET, DELAY, // 1
5,
0xEF, 3, // 2
0x03, 0x80, 0x02,
0xCF, 3, // 3
0x00, 0xC1, 0x30,
0xED, 4, // 4
0x64, 0x03, 0x12, 0x81,
0xE8, 3, // 5
0x85, 0x00, 0x78,
0xCB, 5, // 6
0x39, 0x2C, 0x00, 0x34, 0x02,
0xF7, 1, // 7
0x20,
0xEA, 2, // 8
0x00, 0x00,
ILI9341_PWCTR1, 1, // 9 power control
0x23, // VRH[5:0]
ILI9341_PWCTR2, 1, // 10 power control
0x10, // SAP[2:0];BT[3:0]
ILI9341_VMCTR1, 2, // 11 VCM control
0x3e, 0x28,
ILI9341_VMCTR2, 1, // 12 VCM control2
0x86, // --
ILI9341_MADCTL, 1, // 13
(ILI9341_MADCTL_MX | ILI9341_MADCTL_BGR),
ILI9341_PIXFMT, 1, // 14
0x55,
ILI9341_FRMCTR1, 2, // 15
0x00, 0x18,
ILI9341_DFUNCTR, 3, // 16
0x08, 0x82, 0x27,
0xF2, 1, // 17 3Gamma Function Disable
0x00,
ILI9341_GAMMASET, 1, // 18 Gamma curve selected
0x01,
ILI9341_GMCTRP1, 15, // 19 Set Gamma
0x0F, 0x31, 0x2B, 0x0C, 0x0E, 0x08, 0x4E, 0xF1, 0x37, 0x07, 0x10, 0x03, 0x0E, 0x09, 0x00,
ILI9341_GMCTRN1, 15, // 20
0x00, 0x0E, 0x14, 0x03, 0x11, 0x07, 0x31, 0xC1, 0x48, 0x08, 0x0F, 0x0C, 0x31, 0x36, 0x0F,
ILI9341_SLPOUT, DELAY, // 21
120,
ILI9341_DISPON, 0, // 22
};
commandList(ILI9341_cmds);
spi_end();
setRotation(0);
}
// === FONT MANAGEMENT ==========================================================================================
//
// You can change, remove or add fonts here
//
// WARNING ! RLucas_glcdfont_compact2.h IS USED BY SETUP MENU - PLEASE READ COMMENTS IN .INO FILE AT LINE 348
//
#include "RLucas_glcdfont_compact.h" // Include here the .h file for font n°0
#include "RLucas_glcdfont_compact2.h" // Include here the .h file for font n°1
#include "RLucas_glcdfont_compact3.h" // Include here the .h file for font n°2
//#include "RLucas_glcdfont_compact4.h" // Include here the .h file for font n°3
void PDQ_ILI9341::setFont(byte params, byte textSize) {
// params = LineSpace * 32 + CarSpace * 4 + FontIndex
GLOBAL_TextSize = textSize;
GLOBAL_LineSpace = (params & 0b11100000) >> 5;
GLOBAL_CarSpace = (params & 0b00011100) >> 2;
switch (params & 0b00000011) {
case 0:
GLOBAL_FontAdrr = RLucas_glcdfont_compact; // Type here PROGMEM name of font n°0
break;
case 1:
GLOBAL_FontAdrr = RLucas_glcdfont_compact2; // Type here PROGMEM name of font n°1
break;
case 2:
GLOBAL_FontAdrr = RLucas_glcdfont_compact3; // Type here PROGMEM name of font n°2
break;
case 3:
//GLOBAL_FontAdrr = RLucas_glcdfont_compact4; // Type here PROGMEM name of font n°3
break;
}
GLOBAL_FontSizeX = pgm_read_byte(GLOBAL_FontAdrr);
GLOBAL_FontSizeY = pgm_read_byte(GLOBAL_FontAdrr+1);
GLOBAL_MinAscii = pgm_read_byte(GLOBAL_FontAdrr+2);
GLOBAL_MaxAscii = pgm_read_byte(GLOBAL_FontAdrr+3);
GLOBAL_FontAdrr +=4 ;
GLOBAL_FontBits = GLOBAL_FontSizeX * GLOBAL_FontSizeY;
carWidth = GLOBAL_FontSizeX * GLOBAL_TextSize + GLOBAL_CarSpace;
carHeight = GLOBAL_FontSizeY * GLOBAL_TextSize + GLOBAL_LineSpace;
}
// ==============================================================================================================
void Rainbow_Colour(int xy) {
byte R;
byte G;
byte B;
if (RainbowFunc_UseBG) {
R = Rainbow_BG_R;
G = Rainbow_BG_G;
B = Rainbow_BG_B;
if (Rainbow_BG_Swap) {
//xy = Rainbow_BG_WH - 1 - xy - Rainbow_BG_XY_min;
xy = Rainbow_BG_WH - xy;
} else {
xy -= Rainbow_BG_XY_min;
}
if (xy >= Rainbow_BG_XY_delta) {
R += Rainbow_BG_DR;
G += Rainbow_BG_DG;
B += Rainbow_BG_DB;
} else if (xy > 0) {
if (Rainbow_BG_DR !=0) R += Rainbow_BG_DR * xy / Rainbow_BG_XY_delta;
if (Rainbow_BG_DG !=0) G += Rainbow_BG_DG * xy / Rainbow_BG_XY_delta;
if (Rainbow_BG_DB !=0) B += Rainbow_BG_DB * xy / Rainbow_BG_XY_delta;
}
} else {
R = Rainbow_R;
G = Rainbow_G;
B = Rainbow_B;
if (Rainbow_Swap) {
//xy = Rainbow_WH - 1 - xy - Rainbow_XY_min;
xy = Rainbow_WH - xy;
} else {
xy -= Rainbow_XY_min;
}
if (xy >= Rainbow_XY_delta) {
R += Rainbow_DR;
G += Rainbow_DG;
B += Rainbow_DB;
} else if (xy > 0) {
if (Rainbow_DR !=0) R += Rainbow_DR * xy / Rainbow_XY_delta;
if (Rainbow_DG !=0) G += Rainbow_DG * xy / Rainbow_XY_delta;
if (Rainbow_DB !=0) B += Rainbow_DB * xy / Rainbow_XY_delta;
}
}
GLOBAL_Colour = (R << 11) | (G << 5) | B;
}
void Rainbow_BG_Colour(int xy) {
byte R;
byte G;
byte B;
R = Rainbow_BG_R;
G = Rainbow_BG_G;
B = Rainbow_BG_B;
if (Rainbow_BG_Swap) {
//xy = Rainbow_BG_WH - 1 - xy - Rainbow_BG_XY_min;
xy = Rainbow_BG_WH - xy;
} else {
xy -= Rainbow_BG_XY_min;
}
if (xy >= Rainbow_BG_XY_delta) {
R += Rainbow_BG_DR;
G += Rainbow_BG_DG;
B += Rainbow_BG_DB;
} else if (xy > 0) {
if (Rainbow_BG_DR !=0) R += Rainbow_BG_DR * xy / Rainbow_BG_XY_delta;
if (Rainbow_BG_DG !=0) G += Rainbow_BG_DG * xy / Rainbow_BG_XY_delta;
if (Rainbow_BG_DB !=0) B += Rainbow_BG_DB * xy / Rainbow_BG_XY_delta;
}
GLOBAL_ColourBG = (R << 11) | (G << 5) | B;
}
void RainbowSelect(byte colour_index) {
// This function allows Rainbow_Colour to use Rainbow_BG_Colour parameters
if (BG_Coul_Index == colour_index) {
RainbowFunc_UseBG = true;
RainbowFunc_Mode = Rainbow_BG_Mode;
RainbowFunc_X_Direction = Rainbow_BG_X_Direction;
} else {
RainbowFunc_UseBG = false;
RainbowFunc_Mode = Rainbow_Mode;
RainbowFunc_X_Direction = Rainbow_X_Direction;
}
}
void Rainbow_Swap_XY(int WH) {
Rainbow_Swap = !Rainbow_Swap;
Rainbow_WH = WH - 1 - Rainbow_XY_min;
}
void Rainbow_BG_Swap_XY(int WH) {
Rainbow_BG_Swap = !Rainbow_BG_Swap;
Rainbow_BG_WH = WH - 1 - Rainbow_BG_XY_min;
}
void PDQ_ILI9341::setRotation(uint8_t m) {
byte rot;
rot = (4 + m - rotation) & 3 ; // 'rot' is the rotation made by the 'rotation' to 'm' orientation change
if (rot == 0) return;
rotation = m;
spi_begin();
writeCommand(ILI9341_MADCTL);
switch (m) {
case 0:
writeData(ILI9341_MADCTL_MX | ILI9341_MADCTL_BGR);
_width = TFT_SIZE_WIDTH;
_height = TFT_SIZE_HEIGHT;
break;
case 1:
writeData(ILI9341_MADCTL_MV | ILI9341_MADCTL_BGR);
_width = TFT_SIZE_HEIGHT;
_height = TFT_SIZE_WIDTH;
break;
case 2:
writeData(ILI9341_MADCTL_MY | ILI9341_MADCTL_BGR);
_width = TFT_SIZE_WIDTH;
_height = TFT_SIZE_HEIGHT;
break;
case 3:
writeData(ILI9341_MADCTL_MV | ILI9341_MADCTL_MY | ILI9341_MADCTL_MX | ILI9341_MADCTL_BGR);
_width = TFT_SIZE_HEIGHT;
_height = TFT_SIZE_WIDTH;
break;
}
spi_end();
// WARNING ! We have to turn also RAINBOW PARAMETERS !
// => It's user friendly for Rainbows
// => It's NECESSARY for bitmaps Rainbows (bitmaps use TFT screen rotation feature)
if (rot==2) { // +180° -180°
if (Rainbow_X_Direction) {
Rainbow_Swap_XY(_width);
} else {
Rainbow_Swap_XY(_height);
}
if (Rainbow_BG_X_Direction) {
Rainbow_BG_Swap_XY(_width);
} else {
Rainbow_BG_Swap_XY(_height);
}
} else { // +90° -270° or +270° -90°
Rainbow_X_Direction = !Rainbow_X_Direction;
Rainbow_BG_X_Direction = !Rainbow_BG_X_Direction;
RainbowFunc_X_Direction = !RainbowFunc_X_Direction; // Also important !
if (rot == 1) { // +90° -270°
if (!Rainbow_X_Direction) {
Rainbow_Swap_XY(_height);
}
if (!Rainbow_BG_X_Direction) {
Rainbow_BG_Swap_XY(_height);
}
} else { //+270° -90°
if (Rainbow_X_Direction) {
Rainbow_Swap_XY(_width);
}
if (Rainbow_BG_X_Direction) {
Rainbow_BG_Swap_XY(_width);
}
}
}
}
void PDQ_ILI9341::DrawButtonFrame(byte mode=0) { // 0 = after Print ; 1 = after Bitmap ; 2 = direct DrawBouton() call
if ((GLOBAL_Button_Offset == 0) && (mode!=2)) return;
// - mode 0 : SetTextCursor previously defined GLOBAL_X1, GLOBAL_Y1
// - mode 1 : DrawBitmap previously defined GLOBAL_X1, GLOBAL_Y1 as top left corner and GLOBAL_X2, GLOBAL_Y2 as bottom right corner
// - mode 2 : GLOBAL_X1, GLOBAL_Y1, GLOBAL_X2, GLOBAL_Y2 are set up for direct use
int X,Y,W,H; // Allow compiler to use registers
X = GLOBAL_X1;
Y = GLOBAL_Y1;
if (mode==0) {
W = getButtonCornerX();
H = getButtonCornerY();
} else {
W = GLOBAL_X2;
H = GLOBAL_Y2;
}
if (mode!=2) {
W += 2 * GLOBAL_Button_Offset - GLOBAL_X1;
H += 2 * GLOBAL_Button_Offset - GLOBAL_Y1;
X -= GLOBAL_Button_Offset;
Y -= GLOBAL_Button_Offset;
}
GLOBAL_Colour = Colour[Index_Colour_ButtonTopLeft]; // 11 : Top left border
drawFastHLine(X, Y, W + 1);
drawFastVLine(X, Y, H);
GLOBAL_Colour = Colour[Index_Colour_ButtonBottomRightExt]; // 13 : Bottom right ext border
drawFastHLine(X + 1, Y + H - 1, W);
drawFastVLine(X + W, Y + 1, H - 1);
GLOBAL_Colour = Colour[Index_Colour_ButtonBottomRightInt]; // 12 : Bottom right int border
drawFastHLine(X, Y + H, W + 2);
drawFastVLine(X + W + 1, Y, H + 1);
}
int PDQ_ILI9341::getButtonCornerX() {
//return cursor_x + carWidth - GLOBAL_CarSpace;
return cursor_x - GLOBAL_CarSpace; // '+carWidth' already done by write()
}
int PDQ_ILI9341::getButtonCornerY() {
return cursor_y + carHeight - GLOBAL_LineSpace;
}
void PDQ_ILI9341::drawPixel(int x, int y) {
// WARNING : It's very stupid to call this function a lot of time to draw something
// ILI9341 screen is designed to :
// - define a rectangular window
// - "fill" this window with 'pushcolor' instructions
spi_begin();
setAddrWindow_(x, y, x, y);
if (RainbowFunc_Mode) {
if (RainbowFunc_X_Direction) {
Rainbow_Colour(x);
} else {
Rainbow_Colour(y);
}
}
spiWrite16_preCmd(GLOBAL_Colour);
spi_end();
}
void PDQ_ILI9341::drawFastVLine(int x, int y, int h) {
spi_begin();
setAddrWindow_(x, y, x, _height);
if (RainbowFunc_Mode) {
if (RainbowFunc_X_Direction) {
Rainbow_Colour(x);
spiWrite16(GLOBAL_Colour, h);
} else {
for (; h > 0; h--) {
Rainbow_Colour(y);
spiWrite16(GLOBAL_Colour);
y++;
}
}
} else {
spiWrite16(GLOBAL_Colour, h);
}
spi_end();
}
void PDQ_ILI9341::drawFastHLine(int x, int y, int w) {
spi_begin();
setAddrWindow_(x, y, _width, y);
if (RainbowFunc_Mode) {
if (RainbowFunc_X_Direction) {
for (; w > 0; w--) {
Rainbow_Colour(x);
spiWrite16(GLOBAL_Colour);
x++;
}
} else {
Rainbow_Colour(y);
spiWrite16(GLOBAL_Colour, w);
}
} else {
spiWrite16(GLOBAL_Colour, w);
}
spi_end();
}
void PDQ_ILI9341::fillScreen() {
fillRect(0, 0, _width, _height);
}
void PDQ_ILI9341::fillRect(int x, int y, int w, int h) {
spi_begin();
if (RainbowFunc_Mode) {
if (RainbowFunc_X_Direction) {
for (; w > 0; w--) { // w vertical lines
setAddrWindow_(x, y, x, _height);
Rainbow_Colour(x);
spiWrite16(GLOBAL_Colour, h);
x++;
}
} else {
for (; h > 0; h--) { // h horizontal lines
setAddrWindow_(x, y, _width, y);
Rainbow_Colour(y);
spiWrite16(GLOBAL_Colour, w);
y++;
}
}
} else { // We can't use spiWrite16(GLOBAL_Colour, h*w) because h*w can be > 65535
setAddrWindow_(x, y, x+w-1, _height);
if (w > h) {
x = w;
w = h;
h = x;
}
for (; w > 0; w--) {
spiWrite16(GLOBAL_Colour, h);
}
}
spi_end();
}
void PDQ_ILI9341::drawFastBitmap(uint8_t *bitmap, uint8_t angleFM) {
coord_t x, x2, y2, x1, y1;
coord_t w, h;
byte compression;
byte tmp;
byte rotation_backup;
int nbPixToPrint;
int i;
bool colorToPrint;
bool mirror;
// Reading bitmap header :
compression = bitmap[0];
w = bitmap[1];
h = bitmap[2];
if (compression & 0b10000000) w +=256;
if (compression & 0b01000000) h +=256;
compression = compression & 0b00111111; // 0 = No compression / 1 = Compression / 2 = Compression for large bitmaps
bitmap+=3; // Bitmap data start @ bitmap[3]
// Use TFT screen rotation for bitmap rotation :
mirror = angleFM > 3;
angleFM &= 3;
switch (angleFM) {
case 0:
x1 = GLOBAL_X1;
y1 = GLOBAL_Y1;
break;
case 1:
x1 = GLOBAL_Y1;
y1 = _width - GLOBAL_X1 - h;
break;
case 2:
x1 = _width - GLOBAL_X1 - w;
y1 = _height - GLOBAL_Y1 - h;
break;
case 3:
x1 = _height - GLOBAL_Y1 - w;
y1 = GLOBAL_X1;
break;
}
if (angleFM>0) {
rotation_backup = rotation;
setRotation((rotation + angleFM) & 3);
}
// Drawing :
spi_begin();
if (GLOBAL_Button_Offset!=0) {
if (angleFM & 1) {
GLOBAL_X2 = GLOBAL_X1 + h - 1;
GLOBAL_Y2 = GLOBAL_Y1 + w;
} else {
GLOBAL_X2 = GLOBAL_X1 + w - 1;
GLOBAL_Y2 = GLOBAL_Y1 + h;
}
}
x = x1;
x2 = x + w - 1;
if (mirror) {
y2 = y1 + h;
} else {
setAddrWindow_(x1, y1, x2, _height);
y2 = y1 - 1;
}
i = 0;
nbPixToPrint = 0;
do {
if (x == x1) {
// Begin new line :
if (mirror) {
y2--;
setAddrWindow_(x1, y2, x2, _height);
} else {
y2++;
}
if (RainbowFunc_Mode && !RainbowFunc_X_Direction) Rainbow_Colour(y2);
if (Rainbow_BG_Mode && !Rainbow_BG_X_Direction) Rainbow_BG_Colour(y2);
}
// Find color and number of pixels to print:
if (compression == 0) {
// No compression - Each bit of bitmap[] is the pixel number 'i'
colorToPrint = bitmap[i >> 3] & (0b10000000 >> (i & 0b111));
i++; // For very large bitmaps, 'i' should be a LONG value... but without compression it will never appends
} else {
// Compression : bitmap[] bytes define a color and the number of pixel that use this color
if (nbPixToPrint == 0) {
// 'i' is used as bitmap[] byte index
tmp = bitmap[i];
i++;
colorToPrint = tmp & 0b10000000;
if (compression == 1) {
nbPixToPrint = tmp & 0b01111111;
} else {
nbPixToPrint = tmp & 0b00111111;
if (tmp & 0b01000000) {
nbPixToPrint = bitmap[i] + (nbPixToPrint << 8);
i++;
}
}
}
nbPixToPrint--;
}
if (colorToPrint) {
if (RainbowFunc_Mode && RainbowFunc_X_Direction) Rainbow_Colour(x);
spiWrite16(GLOBAL_Colour);
} else {
if (Rainbow_BG_Mode && Rainbow_BG_X_Direction) Rainbow_BG_Colour(x);
spiWrite16(GLOBAL_ColourBG);
}
// Update coordinates:
x++;
if (x > x2) {
x = x1;
h--;
}
} while (h>0);
spi_end();
if (angleFM>0) setRotation(rotation_backup);
}
// Very fast text writing, that use custom fonts stored without dummy bits
// Space and tabs are printed faster, and fonts don't have to include space or tabs chars (it saves memory)
// Moreover, this function allows 'in-text' instructions with non printable ASCII codes
// It's a very goog feature that save memory usage and allows easier display update with texts stored in Buffer_RAM[]
// This function is called by .print()... and .print() use \0 char for end of text... so 'c' can't be equal to zero !
// So we have to deal with this for 'in-text' instructions parameters :
// - if X param has to be between 0 and 254, then c = X + 1
// - if X param has to be between 255 and 509, then c = X - 254
size_t PDQ_ILI9341::write(uint8_t c) {
int8_t i;
int8_t j;
int8_t k;
int8_t u;
unsigned int numPix;
if (flagTabXY!=0) {
// Here, 'c' is values used to change text cursor :
// flagTabXY = 1 Set Text Cursor X < 254
// flagTabXY = 2 Set Text Cursor X < 254 Y < 254
// flagTabXY = 3 Set Text Cursor X < 254 Y > 254
// flagTabXY = 4 Set Text Cursor X > 254
// flagTabXY = 5 Set Text Cursor X > 254 Y < 254
// flagTabXY = 6 Set Text Cursor X > 254 Y > 254
// flagTabXY = 7 Set Text Cursor Y < 254
// flagTabXY = 8 Set Text Cursor Y > 254
i = 0;
j = flagTabXY;
c--; // needed because c can be equal to zero
if (j>6) { // 7 8
cursor_y = c;
if (j==8) {
cursor_y += 254 ;
}
} else { // 1 2 3 4 5 6
cursor_x = c;
if (j>3) { // 4 5 6
cursor_x += 254 ;
j -= 3; // 4->1 5->2 6->3
}
if (j>1) { // 2 3 5 6
i = j+5; // 7 8 7 8
}
}
flagTabXY = i;
if (i==0) {
// Here, 'Set Text Cursor' in-text instruction is ended.
// We have to store Text Cursor value, needed if we have to draw buttons
GLOBAL_X1 = cursor_x;
GLOBAL_Y1 = cursor_y;
}
return 1;
}
if (c == '\n') {
// Line feed :
cursor_x = 0;
cursor_y += carHeight;
} else if (c <GLOBAL_MinAscii) {
// ASCII codes < 33 are 'in-text' instructions :
if ((c>17)&&(c<32)) {
// Color change
c -= 18;
// c is the new color index :
RainbowSelect(c);
GLOBAL_Colour = Colour[c];
} else if (c!=13) {
if (c<9) {
// Set Text Cursor, followed by X and/or Y cursor values
flagTabXY = c;
if (GLOBAL_Button_Offset != 0) {
// Here, we have finished to print a text, so we have to draw a button frame arround :
// WARNING ! There is a problem if a text begin by a "Set cursor" in-text instruction
// so when GLOBAL_Button_Offset>0 a text CANNOT begin by a "Set cursor" in-text instruction
unsigned int colourBackup;
colourBackup = GLOBAL_Colour;
DrawButtonFrame();
GLOBAL_Colour = colourBackup;
}
} else {
// Tabs in text
// c value: 9, 11, 12, 14, 15, 16, 17, ou 32
// tabs (spaces): 2, 3, 4, 5, 6, 7, 8, 1
if (c<14) c++;
if (c==10) c++;
if (c==32) c=10;
c -= 9;
spi_begin();
if (Rainbow_BG_Mode) {
if (Rainbow_BG_X_Direction) {
// Write tab as several vertical lines
for (i=0;i<carWidth*c;i++) {
setAddrWindow_(cursor_x+i, cursor_y, cursor_x+i, _height);
Rainbow_BG_Colour(cursor_x + i);
spiWrite16(GLOBAL_ColourBG, carHeight);
}
} else {
setAddrWindow_(cursor_x, cursor_y, cursor_x + carWidth * c - 1, _height);
// Write tab as several horizontal lines
for (j=0;j<carHeight;j++) {
Rainbow_BG_Colour(cursor_y + j);
spiWrite16(GLOBAL_ColourBG, carWidth * c);
}
}
} else {
// Write tab as fill rectangle
setAddrWindow_(cursor_x, cursor_y, cursor_x + carWidth * c - 1, _height);
spiWrite16(GLOBAL_ColourBG, carWidth * carHeight * c);
}
spi_end();
cursor_x += carWidth * c ;
}
}
} else {
if (cursor_x > (_width - carWidth)) { // X : Clipping or wrapping
if (wrap) {
cursor_x = 0;
cursor_y += carHeight;
} else {
return 1;
}
}
if (cursor_y >= _height) return 1; // Y : Clipping
if (c <= GLOBAL_MaxAscii) {
numPix = (c - GLOBAL_MinAscii) * GLOBAL_FontBits;
spi_begin();
setAddrWindow_(cursor_x, cursor_y, cursor_x + carWidth - 1, _height);
// If GLOBAL_TextSize = 3 then each pixel of each char is a SQUARE of 3 x 3 pixels
// Keep in mind that: in computer graphics, a pixel is a SQUARE, not a DOT
for (j=0; j<GLOBAL_FontSizeY; j++) {
for (k = 0; k<GLOBAL_TextSize ; k++) {
if (k!=0) numPix -= GLOBAL_FontSizeX;
if (RainbowFunc_Mode && !RainbowFunc_X_Direction) {
Rainbow_Colour(cursor_y + j * GLOBAL_TextSize + k);
}
if (Rainbow_BG_Mode && !Rainbow_BG_X_Direction) {
Rainbow_BG_Colour(cursor_y + j * GLOBAL_TextSize + k);
}
for (i=0; i<GLOBAL_FontSizeX; i++) {
if (pgm_read_byte(GLOBAL_FontAdrr+(numPix>>3)) & (0b00000001 << (numPix & 0b111))) {
// Pixel de coordonnées
// X = i + cursor_x
// Y = j * GLOBAL_TextSize + k + cursor_y
if (RainbowFunc_Mode && RainbowFunc_X_Direction) {
for (u=0; u<GLOBAL_TextSize; u++) {
Rainbow_Colour(cursor_x + i * GLOBAL_TextSize + u);
spiWrite16(GLOBAL_Colour);
}
} else {
spiWrite16(GLOBAL_Colour, GLOBAL_TextSize);
}
} else {
if (Rainbow_BG_Mode && Rainbow_BG_X_Direction) {
for (u=0; u<GLOBAL_TextSize; u++) {
Rainbow_BG_Colour(cursor_x + i * GLOBAL_TextSize + u);
spiWrite16(GLOBAL_ColourBG);
}
} else {
spiWrite16(GLOBAL_ColourBG, GLOBAL_TextSize);
}
}
numPix++;
}
if (Rainbow_BG_Mode && Rainbow_BG_X_Direction) {
for (u=0; u<GLOBAL_CarSpace; u++) {
Rainbow_BG_Colour(cursor_x + GLOBAL_FontSizeX * GLOBAL_TextSize + u);
spiWrite16(GLOBAL_ColourBG); // Space between chars
}
} else {
spiWrite16(GLOBAL_ColourBG, GLOBAL_CarSpace); // Space between chars
}
}
}
if (Rainbow_BG_Mode) {
// Rectangle : GLOBAL_LineSpace * carWidth
if (Rainbow_BG_X_Direction) {
for (j=0; j<GLOBAL_LineSpace; j++) {
for (i=0; i<carWidth; i++) {
Rainbow_BG_Colour(cursor_x + i);
spiWrite16(GLOBAL_ColourBG); // Space between lines
}
}
} else {
for (j=0; j<GLOBAL_LineSpace; j++) {
Rainbow_BG_Colour(cursor_y + GLOBAL_FontSizeY * GLOBAL_TextSize + j);
spiWrite16(GLOBAL_ColourBG, carWidth); // Space between lines
}
}
} else {
spiWrite16(GLOBAL_ColourBG, GLOBAL_LineSpace * carWidth ); // Space between lines
}
spi_end();
}
// Even if chars with ASCII code > GLOBAL_MaxAscii are not printed, we print a space. It's better.
cursor_x += carWidth;
}
return 1;
}
// Bresenham's algorithm - thx Wikipedia
void PDQ_ILI9341::drawLine(int x0, int y0, int x1, int y1) {
int8_t steep = abs(y1 - y0) > abs(x1 - x0);
if (steep) {
swapValue(x0, y0);
swapValue(x1, y1);
}
if (x0 > x1) {
swapValue(x0, x1);
swapValue(y0, y1);
}
if (x1 < 0)
return;
int dx, dy;
dx = x1 - x0;
dy = abs(y1 - y0);
int err = dx / 2;
int8_t ystep;
if (y0 < y1) {
ystep = 1;
} else {
ystep = -1;
}
uint8_t setaddr = 1;
if (steep) { // y increments every iteration (y0 is x-axis, and x0 is y-axis)
if (x1 >= _height)
x1 = _height - 1;
for (; x0 <= x1; x0++) {
if ((x0 >= 0) && (y0 >= 0) && (y0 < _width))
break;
err -= dy;
if (err < 0) {
err += dx;
y0 += ystep;
}
}
if (x0 > x1)
return;
spi_begin();
for (; x0 <= x1; x0++) {
if (setaddr) {
setAddrWindow_(y0, x0, y0, _height);
setaddr = 0;
}
if (RainbowFunc_Mode) {
if (RainbowFunc_X_Direction) {
Rainbow_Colour(y0);
} else {
Rainbow_Colour(x0);
}
}
spiWrite16_lineDraw(GLOBAL_Colour);
err -= dy;
if (err < 0) {
y0 += ystep;
if ((y0 < 0) || (y0 >= _width))
break;
err += dx;
setaddr = 1;
}
#if defined(AVR_HARDWARE_SPI)
else{
__asm__ __volatile__
(
" call _ZN11PDQ_ILI93417delay10Ev\n"
: : :
);
}
#endif
}
} else { // x increments every iteration (x0 is x-axis, and y0 is y-axis)
if (x1 >= _width)
x1 = _width - 1;
for (; x0 <= x1; x0++) {
if ((x0 >= 0) && (y0 >= 0) && (y0 < _height))
break;
err -= dy;
if (err < 0){
err += dx;
y0 += ystep;
}
}
if (x0 > x1)
return;
spi_begin();
for (; x0 <= x1; x0++) {
if (setaddr){
setAddrWindow_(x0, y0, _width, y0);
setaddr = 0;
}
if (RainbowFunc_Mode) {
if (RainbowFunc_X_Direction) {
Rainbow_Colour(x0);
} else {
Rainbow_Colour(y0);
}
}
spiWrite16_lineDraw(GLOBAL_Colour);
err -= dy;
if (err < 0){
y0 += ystep;
if ((y0 < 0) || (y0 >= _height))
break;
err += dx;
setaddr = 1;
}
#if defined(AVR_HARDWARE_SPI)
else{
__asm__ __volatile__
(
" call _ZN11PDQ_ILI93417delay10Ev\n"
: : :
);
}
#endif
}
}
spi_end();
}
void PDQ_ILI9341::drawRect() {
drawFastHLine(GLOBAL_X1 , GLOBAL_Y1 , GLOBAL_X2);
drawFastHLine(GLOBAL_X1 , GLOBAL_Y1+GLOBAL_Y2-1, GLOBAL_X2);
drawFastVLine(GLOBAL_X1 , GLOBAL_Y1 , GLOBAL_Y2);
drawFastVLine(GLOBAL_X1+GLOBAL_X2-1, GLOBAL_Y1 , GLOBAL_Y2);
}
void PDQ_ILI9341::drawCircle() {
coord_t f = 1 - GLOBAL_X3;
coord_t ddF_x = 1;
coord_t ddF_y = -2 * GLOBAL_X3;
coord_t x = 0;
coord_t y = GLOBAL_X3;
drawPixel(GLOBAL_X1 , GLOBAL_Y1+GLOBAL_X3);
drawPixel(GLOBAL_X1 , GLOBAL_Y1-GLOBAL_X3);
drawPixel(GLOBAL_X1+GLOBAL_X3, GLOBAL_Y1 );
drawPixel(GLOBAL_X1-GLOBAL_X3, GLOBAL_Y1 );
while (x < y) {
if (f >= 0) {
y--;
ddF_y += 2;
f += ddF_y;
}
x++;
ddF_x += 2;
f += ddF_x;
drawPixel(GLOBAL_X1 + x, GLOBAL_Y1 + y);
drawPixel(GLOBAL_X1 - x, GLOBAL_Y1 + y);
drawPixel(GLOBAL_X1 + x, GLOBAL_Y1 - y);
drawPixel(GLOBAL_X1 - x, GLOBAL_Y1 - y);
drawPixel(GLOBAL_X1 + y, GLOBAL_Y1 + x);
drawPixel(GLOBAL_X1 - y, GLOBAL_Y1 + x);
drawPixel(GLOBAL_X1 + y, GLOBAL_Y1 - x);
drawPixel(GLOBAL_X1 - y, GLOBAL_Y1 - x);
}
}
void PDQ_ILI9341::drawCircleHelper( coord_t x0, coord_t y0, coord_t r, uint8_t cornername) {
coord_t f = 1 - r;
coord_t ddF_x = 1;
coord_t ddF_y = -2 * r;
coord_t x = 0;
coord_t y = r;
while (x < y){
if (f >= 0) {
y--;
ddF_y += 2;
f += ddF_y;
}
x++;
ddF_x += 2;
f += ddF_x;
if (cornername & 0x4) {
drawPixel(x0 + x, y0 + y);
drawPixel(x0 + y, y0 + x);
}
if (cornername & 0x2) {
drawPixel(x0 + x, y0 - y);
drawPixel(x0 + y, y0 - x);
}
if (cornername & 0x8) {
drawPixel(x0 - y, y0 + x);
drawPixel(x0 - x, y0 + y);
}
if (cornername & 0x1) {
drawPixel(x0 - y, y0 - x);
drawPixel(x0 - x, y0 - y);
}
}
}
void PDQ_ILI9341::fillCircle() {
drawFastVLine(GLOBAL_X1, GLOBAL_Y1-GLOBAL_X3, 2*GLOBAL_X3+1);
fillCircleHelper(GLOBAL_X1, GLOBAL_Y1, GLOBAL_X3, 3, 0);
}
// Used to do circles and roundrects
void PDQ_ILI9341::fillCircleHelper(coord_t x0, coord_t y0, coord_t r, uint8_t cornername, coord_t delta) {
coord_t f = 1 - r;
coord_t ddF_x = 1;
coord_t ddF_y = -2 * r;
coord_t x = 0;
coord_t y = r;
while (x < y) {
if (f >= 0) {
y--;
ddF_y += 2;
f += ddF_y;
}
x++;
ddF_x += 2;
f += ddF_x;
if (cornername & 0x1) {
drawFastVLine(x0+x, y0-y, 2*y+1+delta);
drawFastVLine(x0+y, y0-x, 2*x+1+delta);
}
if (cornername & 0x2) {
drawFastVLine(x0-x, y0-y, 2*y+1+delta);
drawFastVLine(x0-y, y0-x, 2*x+1+delta);
}
}
}
void PDQ_ILI9341::drawRoundRect() {
// smarter version
drawFastHLine(GLOBAL_X1+GLOBAL_X3 , GLOBAL_Y1 , GLOBAL_X2-2*GLOBAL_X3); // Top
drawFastHLine(GLOBAL_X1+GLOBAL_X3 , GLOBAL_Y1+GLOBAL_Y2-1, GLOBAL_X2-2*GLOBAL_X3); // Bottom
drawFastVLine(GLOBAL_X1 , GLOBAL_Y1+GLOBAL_X3 , GLOBAL_Y2-2*GLOBAL_X3); // Left
drawFastVLine(GLOBAL_X1+GLOBAL_X2-1, GLOBAL_Y1+GLOBAL_X3 , GLOBAL_Y2-2*GLOBAL_X3); // Right
// draw four corners
drawCircleHelper(GLOBAL_X1+GLOBAL_X3 , GLOBAL_Y1+GLOBAL_X3 , GLOBAL_X3, 1);
drawCircleHelper(GLOBAL_X1+GLOBAL_X2-GLOBAL_X3-1, GLOBAL_Y1+GLOBAL_X3 , GLOBAL_X3, 2);
drawCircleHelper(GLOBAL_X1+GLOBAL_X2-GLOBAL_X3-1, GLOBAL_Y1+GLOBAL_Y2-GLOBAL_X3-1, GLOBAL_X3, 4);
drawCircleHelper(GLOBAL_X1+GLOBAL_X3 , GLOBAL_Y1+GLOBAL_Y2-GLOBAL_X3-1, GLOBAL_X3, 8);
}
void PDQ_ILI9341::fillRoundRect() {
// smarter version
fillRect(GLOBAL_X1+GLOBAL_X3, GLOBAL_Y1, GLOBAL_X2-2*GLOBAL_X3, GLOBAL_Y2);
// draw four corners
fillCircleHelper(GLOBAL_X1+GLOBAL_X2-GLOBAL_X3-1, GLOBAL_Y1+GLOBAL_X3, GLOBAL_X3, 1, GLOBAL_Y2-2*GLOBAL_X3-1);
fillCircleHelper(GLOBAL_X1+GLOBAL_X3 , GLOBAL_Y1+GLOBAL_X3, GLOBAL_X3, 2, GLOBAL_Y2-2*GLOBAL_X3-1);
}
void PDQ_ILI9341::drawTriangle() {
drawLine(GLOBAL_X1, GLOBAL_Y1, GLOBAL_X2, GLOBAL_Y2);
drawLine(GLOBAL_X2, GLOBAL_Y2, GLOBAL_X3, GLOBAL_Y3);
drawLine(GLOBAL_X3, GLOBAL_Y3, GLOBAL_X1, GLOBAL_Y1);
}
void PDQ_ILI9341::fillTriangle() {
coord_t a, b, y, last;
int X1,Y1,X2,Y2,X3,Y3; // Economie de 50 octets de code - Ca vaut le coup de passer par des Var locales (compilées en registres) car il y a beaucoup de calculs
X1=GLOBAL_X1;
Y1=GLOBAL_Y1;
X2=GLOBAL_X2;
Y2=GLOBAL_Y2;
X3=GLOBAL_X3;
Y3=GLOBAL_Y3;
// Sort coordinates by Y order (Y3 >= Y2 >= Y1)
if (Y1 > Y2) {
swapValue(Y1, Y2);
swapValue(X1, X2);
}
if (Y2 > Y3) {
swapValue(Y3, Y2);
swapValue(X3, X2);
}
if (Y1 > Y2) {
swapValue(Y1, Y2);
swapValue(X1, X2);
}
// Handle awkward all-on-same-line case as its own thing
if (Y1 == Y3) {
a = b = X1;
if (X2 < a)
a = X2;
else if (X2 > b)
b = X2;
if (X3 < a)
a = X3;
else if (X3 > b)
b = X3;
drawFastHLine(a, Y1, b-a+1);
return;
}
coord_t dx01 = X2 - X1;
coord_t dy01 = Y2 - Y1;
coord_t dx02 = X3 - X1;
coord_t dy02 = Y3 - Y1;
coord_t dx12 = X3 - X2;
coord_t dy12 = Y3 - Y2;
int32_t sa = 0;
int32_t sb = 0;
// For upper part of triangle, find scanline crossings for segments 0-1 and 0-2. If Y2=Y3 (flat-bottomed triangle), the scanline Y2
// is included here (and second loop will be skipped, avoiding a /0 error there), otherwise scanline Y2 is skipped here and handled
// in the second loop...which also avoids a /0 error here if Y1=Y2 (flat-topped triangle).
if (Y2 == Y3)
last = Y2; // Include Y2 scanline
else
last = Y2-1; // Skip it
for (y = Y1; y <= last; y++) {
a = X1 + sa / dy01;
b = X1 + sb / dy02;
sa += dx01;
sb += dx02;
// longhand:
//a = X1 + (X2 - X1) * (y - Y1) / (Y2 - Y1);
//b = X1 + (X3 - X1) * (y - Y1) / (Y3 - Y1);
if (a > b)
swapValue(a, b);
drawFastHLine(a, y, b-a+1);
}
// For lower part of triangle, find scanline crossings for segments 0-2 and 1-2. This loop is skipped if Y2=Y3.
sa = dx12 * (y - Y2);
sb = dx02 * (y - Y1);
for (; y <= Y3; y++) {
a = X2 + sa / dy12;
b = X1 + sb / dy02;
sa += dx12;
sb += dx02;
// longhand:
//a = X2 + (X3 - X2) * (y - Y2) / (Y3 - Y2);
//b = X1 + (X3 - X1) * (y - Y1) / (Y3 - Y1);
if (a > b)
swapValue(a, b);
drawFastHLine(a, y, b-a+1);
}
} |
Usage du mot-clef "static"
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Envoyé par Jay M
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