RepetierMAX/Repetier/ui.cpp
johnoly99 46729d116b Initial upload
Initial uploading of firmware to seemecnc git
2013-04-17 13:36:51 -04:00

2291 lines
70 KiB
C++

/*
This file is part of Repetier-Firmware.
Repetier-Firmware is free software: you can redistribute it and/or modify
it under the terms of the GNU General Public License as published by
the Free Software Foundation, either version 3 of the License, or
(at your option) any later version.
Repetier-Firmware is distributed in the hope that it will be useful,
but WITHOUT ANY WARRANTY; without even the implied warranty of
MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
GNU General Public License for more details.
You should have received a copy of the GNU General Public License
along with Repetier-Firmware. If not, see <http://www.gnu.org/licenses/>.
*/
#define UI_MAIN
#include "Reptier.h"
#include <avr/pgmspace.h>
extern const int8_t encoder_table[16] PROGMEM ;
#include "ui.h"
#include <math.h>
#include <stdlib.h>
#include <inttypes.h>
#include <avr/io.h>
#include <avr/interrupt.h>
#include <compat/twi.h>
#include "Eeprom.h"
#include <ctype.h>
#if UI_ENCODER_SPEED==0
const int8_t encoder_table[16] PROGMEM = {0,1,-1,0,-1,0,0,1,1,0,0,-1,0,-1,1,0}; // Full speed
#elif UI_ENCODER_SPEED==1
const int8_t encoder_table[16] PROGMEM = {0,0,-1,0,0,0,0,1,1,0,0,0,0,-1,0,0}; // Half speed
#else
const int8_t encoder_table[16] PROGMEM = {0,0,0,0,0,0,0,0,1,0,0,0,0,-1,0,0}; // Quart speed
#endif
#if BEEPER_TYPE==2 && defined(UI_HAS_I2C_KEYS) && UI_I2C_KEY_ADDRESS!=BEEPER_ADDRESS
#error Beeper address and i2c key address must be identical
#else
#if BEEPER_TYPE==2
#define UI_I2C_KEY_ADDRESS BEEPER_ADDRESS
#endif
#endif
#if UI_AUTORETURN_TO_MENU_AFTER!=0
long ui_autoreturn_time=0;
#endif
void beep(byte duration,byte count)
{
#if FEATURE_BEEPER
#if BEEPER_TYPE!=0
#if BEEPER_TYPE==1
SET_OUTPUT(BEEPER_PIN);
#endif
#if BEEPER_TYPE==2
i2c_start_wait(BEEPER_ADDRESS+I2C_WRITE);
#if UI_DISPLAY_I2C_CHIPTYPE==1
i2c_write( 0x14); // Start at port a
#endif
#endif
for(byte i=0;i<count;i++){
#if BEEPER_TYPE==1
WRITE(BEEPER_PIN,HIGH);
#else
#if UI_DISPLAY_I2C_CHIPTYPE==0
#if BEEPER_ADDRESS == UI_DISPLAY_I2C_ADDRESS
i2c_write(uid.outputMask & ~BEEPER_PIN);
#else
i2c_write(~BEEPER_PIN);
#endif
#endif
#if UI_DISPLAY_I2C_CHIPTYPE==1
i2c_write((BEEPER_PIN) | uid.outputMask);
i2c_write(((BEEPER_PIN) | uid.outputMask)>>8);
#endif
#endif
delay(duration);
#if BEEPER_TYPE==1
WRITE(BEEPER_PIN,LOW);
#else
#if UI_DISPLAY_I2C_CHIPTYPE==0
#if BEEPER_ADDRESS == UI_DISPLAY_I2C_ADDRESS
i2c_write((BEEPER_PIN) | uid.outputMask);
#else
i2c_write(255);
#endif
#endif
#if UI_DISPLAY_I2C_CHIPTYPE==1
i2c_write( uid.outputMask);
i2c_write(uid.outputMask>>8);
#endif
#endif
delay(duration);
}
#if BEEPER_TYPE==2
i2c_stop();
#endif
#endif
#endif
}
//=============================================================
// I2C driver
//=============================================================
#ifdef COMPILE_I2C_DRIVER
/*************************************************************************
* Title: I2C master library using hardware TWI interface
* Author: Peter Fleury <pfleury@gmx.ch> http://jump.to/fleury
* File: $Id: twimaster.c,v 1.3 2005/07/02 11:14:21 Peter Exp $
* Software: AVR-GCC 3.4.3 / avr-libc 1.2.3
* Target: any AVR device with hardware TWI
* Usage: API compatible with I2C Software Library i2cmaster.h
**************************************************************************/
#include <inttypes.h>
#include <compat/twi.h>
/* I2C clock in Hz */
#define SCL_CLOCK UI_I2C_CLOCKSPEED
/*************************************************************************
Initialization of the I2C bus interface. Need to be called only once
*************************************************************************/
inline void i2c_init(void)
{
/* initialize TWI clock: 100 kHz clock, TWPS = 0 => prescaler = 1 */
uid.outputMask = UI_DISPLAY_I2C_OUTPUT_START_MASK;
TWSR = 0; /* no prescaler */
TWBR = ((F_CPU/SCL_CLOCK)-16)/2; /* must be > 10 for stable operation */
#if UI_DISPLAY_I2C_CHIPTYPE==0 && BEEPER_TYPE==2 && BEEPER_PIN>=0
#if BEEPER_ADDRESS == UI_DISPLAY_I2C_ADDRESS
uid.outputMask |= BEEPER_PIN
#endif
#endif
#if UI_DISPLAY_I2C_CHIPTYPE==1
// set direction of pins
i2c_start(UI_DISPLAY_I2C_ADDRESS+I2C_WRITE);
i2c_write(0); // IODIRA
i2c_write(~(UI_DISPLAY_I2C_OUTPUT_PINS & 255));
// i2c_stop();
// i2c_start(UI_DISPLAY_I2C_ADDRESS+I2C_WRITE);
// i2c_write(1); // IODIRB
i2c_write(~(UI_DISPLAY_I2C_OUTPUT_PINS >> 8));
i2c_stop();
// Set pullups according to UI_DISPLAY_I2C_PULLUP
i2c_start(UI_DISPLAY_I2C_ADDRESS+I2C_WRITE);
i2c_write(0x0C); // GPPUA
i2c_write(UI_DISPLAY_I2C_PULLUP & 255);
// i2c_stop();
// i2c_start(UI_DISPLAY_I2C_ADDRESS+I2C_WRITE);
// i2c_write(0x0D); // GPPUB
i2c_write(UI_DISPLAY_I2C_PULLUP >> 8);
i2c_stop();
#endif
}/* i2c_init */
/*************************************************************************
Issues a start condition and sends address and transfer direction.
return 0 = device accessible, 1= failed to access device
*************************************************************************/
unsigned char i2c_start(unsigned char address)
{
uint8_t twst;
// send START condition
TWCR = (1<<TWINT) | (1<<TWSTA) | (1<<TWEN);
// wait until transmission completed
while(!(TWCR & (1<<TWINT)));
// check value of TWI Status Register. Mask prescaler bits.
twst = TW_STATUS & 0xF8;
if ( (twst != TW_START) && (twst != TW_REP_START)) return 1;
// send device address
TWDR = address;
TWCR = (1<<TWINT) | (1<<TWEN);
// wail until transmission completed and ACK/NACK has been received
while(!(TWCR & (1<<TWINT)));
// check value of TWI Status Register. Mask prescaler bits.
twst = TW_STATUS & 0xF8;
if ( (twst != TW_MT_SLA_ACK) && (twst != TW_MR_SLA_ACK) ) return 1;
return 0;
}/* i2c_start */
/*************************************************************************
Issues a start condition and sends address and transfer direction.
If device is busy, use ack polling to wait until device is ready
Input: address and transfer direction of I2C device
*************************************************************************/
void i2c_start_wait(unsigned char address)
{
uint8_t twst;
while ( 1 )
{
// send START condition
TWCR = (1<<TWINT) | (1<<TWSTA) | (1<<TWEN);
// wait until transmission completed
while(!(TWCR & (1<<TWINT)));
// check value of TWI Status Register. Mask prescaler bits.
twst = TW_STATUS & 0xF8;
if ( (twst != TW_START) && (twst != TW_REP_START)) continue;
// send device address
TWDR = address;
TWCR = (1<<TWINT) | (1<<TWEN);
// wail until transmission completed
while(!(TWCR & (1<<TWINT)));
// check value of TWI Status Register. Mask prescaler bits.
twst = TW_STATUS & 0xF8;
if ( (twst == TW_MT_SLA_NACK )||(twst ==TW_MR_DATA_NACK) )
{
/* device busy, send stop condition to terminate write operation */
TWCR = (1<<TWINT) | (1<<TWEN) | (1<<TWSTO);
// wait until stop condition is executed and bus released
while(TWCR & (1<<TWSTO));
continue;
}
//if( twst != TW_MT_SLA_ACK) return 1;
break;
}
}/* i2c_start_wait */
/*************************************************************************
Terminates the data transfer and releases the I2C bus
*************************************************************************/
void i2c_stop(void)
{
/* send stop condition */
TWCR = (1<<TWINT) | (1<<TWEN) | (1<<TWSTO);
// wait until stop condition is executed and bus released
while(TWCR & (1<<TWSTO));
}/* i2c_stop */
/*************************************************************************
Send one byte to I2C device
Input: byte to be transfered
Return: 0 write successful
1 write failed
*************************************************************************/
unsigned char i2c_write( unsigned char data )
{
uint8_t twst;
// send data to the previously addressed device
TWDR = data;
TWCR = (1<<TWINT) | (1<<TWEN);
// wait until transmission completed
while(!(TWCR & (1<<TWINT)));
// check value of TWI Status Register. Mask prescaler bits
twst = TW_STATUS & 0xF8;
if( twst != TW_MT_DATA_ACK) return 1;
return 0;
}/* i2c_write */
/*************************************************************************
Read one byte from the I2C device, request more data from device
Return: byte read from I2C device
*************************************************************************/
unsigned char i2c_readAck(void)
{
TWCR = (1<<TWINT) | (1<<TWEN) | (1<<TWEA);
while(!(TWCR & (1<<TWINT)));
return TWDR;
}/* i2c_readAck */
/*************************************************************************
Read one byte from the I2C device, read is followed by a stop condition
Return: byte read from I2C device
*************************************************************************/
unsigned char i2c_readNak(void)
{
TWCR = (1<<TWINT) | (1<<TWEN);
while(!(TWCR & (1<<TWINT)));
return TWDR;
}/* i2c_readNak */
#endif
#if UI_DISPLAY_TYPE!=0
UIDisplay uid;
// Menu up sign - code 1
// ..*.. 4
// .***. 14
// *.*.* 21
// ..*.. 4
// ***.. 28
// ..... 0
// ..... 0
// ..... 0
const byte character_back[8] PROGMEM = {4,14,21,4,28,0,0,0};
// Degrees sign - code 2
// ..*.. 4
// .*.*. 10
// ..*.. 4
// ..... 0
// ..... 0
// ..... 0
// ..... 0
// ..... 0
const byte character_degree[8] PROGMEM = {4,10,4,0,0,0,0,0};
// selected - code 3
// ..... 0
// ***** 31
// ***** 31
// ***** 31
// ***** 31
// ***** 31
// ***** 31
// ..... 0
// ..... 0
const byte character_selected[8] PROGMEM = {0,31,31,31,31,31,0,0};
// unselected - code 4
// ..... 0
// ***** 31
// *...* 17
// *...* 17
// *...* 17
// *...* 17
// ***** 31
// ..... 0
// ..... 0
const byte character_unselected[8] PROGMEM = {0,31,17,17,17,31,0,0};
// unselected - code 5
// ..*.. 4
// .*.*. 10
// .*.*. 10
// .*.*. 10
// .*.*. 10
// .***. 14
// ***** 31
// ***** 31
// .***. 14
const byte character_temperature[8] PROGMEM = {4,10,10,10,14,31,31,14};
// unselected - code 6
// ..... 0
// ***.. 28
// ***** 31
// *...* 17
// *...* 17
// ***** 31
// ..... 0
// ..... 0
const byte character_folder[8] PROGMEM = {0,28,31,17,17,31,0,0};
const long baudrates[] PROGMEM = {9600,14400,19200,28800,38400,56000,57600,76800,111112,115200,128000,230400,250000,256000,0};
#define LCD_ENTRYMODE 0x04 /**< Set entrymode */
/** @name GENERAL COMMANDS */
/*@{*/
#define LCD_CLEAR 0x01 /**< Clear screen */
#define LCD_HOME 0x02 /**< Cursor move to first digit */
/*@}*/
/** @name ENTRYMODES */
/*@{*/
#define LCD_ENTRYMODE 0x04 /**< Set entrymode */
#define LCD_INCREASE LCD_ENTRYMODE | 0x02 /**< Set cursor move direction -- Increase */
#define LCD_DECREASE LCD_ENTRYMODE | 0x00 /**< Set cursor move direction -- Decrease */
#define LCD_DISPLAYSHIFTON LCD_ENTRYMODE | 0x01 /**< Display is shifted */
#define LCD_DISPLAYSHIFTOFF LCD_ENTRYMODE | 0x00 /**< Display is not shifted */
/*@}*/
/** @name DISPLAYMODES */
/*@{*/
#define LCD_DISPLAYMODE 0x08 /**< Set displaymode */
#define LCD_DISPLAYON LCD_DISPLAYMODE | 0x04 /**< Display on */
#define LCD_DISPLAYOFF LCD_DISPLAYMODE | 0x00 /**< Display off */
#define LCD_CURSORON LCD_DISPLAYMODE | 0x02 /**< Cursor on */
#define LCD_CURSOROFF LCD_DISPLAYMODE | 0x00 /**< Cursor off */
#define LCD_BLINKINGON LCD_DISPLAYMODE | 0x01 /**< Blinking on */
#define LCD_BLINKINGOFF LCD_DISPLAYMODE | 0x00 /**< Blinking off */
/*@}*/
/** @name SHIFTMODES */
/*@{*/
#define LCD_SHIFTMODE 0x10 /**< Set shiftmode */
#define LCD_DISPLAYSHIFT LCD_SHIFTMODE | 0x08 /**< Display shift */
#define LCD_CURSORMOVE LCD_SHIFTMODE | 0x00 /**< Cursor move */
#define LCD_RIGHT LCD_SHIFTMODE | 0x04 /**< Right shift */
#define LCD_LEFT LCD_SHIFTMODE | 0x00 /**< Left shift */
/*@}*/
/** @name DISPLAY_CONFIGURATION */
/*@{*/
#define LCD_CONFIGURATION 0x20 /**< Set function */
#define LCD_8BIT LCD_CONFIGURATION | 0x10 /**< 8 bits interface */
#define LCD_4BIT LCD_CONFIGURATION | 0x00 /**< 4 bits interface */
#define LCD_2LINE LCD_CONFIGURATION | 0x08 /**< 2 line display */
#define LCD_1LINE LCD_CONFIGURATION | 0x00 /**< 1 line display */
#define LCD_5X10 LCD_CONFIGURATION | 0x04 /**< 5 X 10 dots */
#define LCD_5X7 LCD_CONFIGURATION | 0x00 /**< 5 X 7 dots */
#define LCD_SETCGRAMADDR 0x40
#define lcdPutChar(value) lcdWriteByte(value,1)
#define lcdCommand(value) lcdWriteByte(value,0)
static const byte LCDLineOffsets[] PROGMEM = UI_LINE_OFFSETS;
static const char versionString[] PROGMEM = UI_VERSION_STRING;
static const char versionString2[] PROGMEM = UI_VERSION_STRING2;
#if UI_DISPLAY_TYPE==3
// ============= I2C LCD Display driver ================
inline void lcdStartWrite() {
i2c_start_wait(UI_DISPLAY_I2C_ADDRESS+I2C_WRITE);
#if UI_DISPLAY_I2C_CHIPTYPE==1
i2c_write( 0x14); // Start at port a
#endif
}
inline void lcdStopWrite() {
i2c_stop();
}
void lcdWriteNibble(byte value) {
#if UI_DISPLAY_I2C_CHIPTYPE==0
value|=uid.outputMask;
#if UI_DISPLAY_D4_PIN==1 && UI_DISPLAY_D5_PIN==2 && UI_DISPLAY_D6_PIN==4 && UI_DISPLAY_D7_PIN==8
i2c_write((value) | UI_DISPLAY_ENABLE_PIN);
i2c_write(value);
#else
byte v=(value & 1?UI_DISPLAY_D4_PIN:0)|(value & 2?UI_DISPLAY_D5_PIN:0)|(value & 4?UI_DISPLAY_D6_PIN:0)|(value & 8?UI_DISPLAY_D7_PIN:0);
i2c_write((v) | UI_DISPLAY_ENABLE_PIN);
i2c_write(v);
#endif
#endif
#if UI_DISPLAY_I2C_CHIPTYPE==1
unsigned int v=(value & 1?UI_DISPLAY_D4_PIN:0)|(value & 2?UI_DISPLAY_D5_PIN:0)|(value & 4?UI_DISPLAY_D6_PIN:0)|(value & 8?UI_DISPLAY_D7_PIN:0) | uid.outputMask;
unsigned int v2 = v | UI_DISPLAY_ENABLE_PIN;
i2c_write(v2 & 255);i2c_write(v2 >> 8);
i2c_write(v & 255);i2c_write(v >> 8);
#endif
}
void lcdWriteByte(byte c,byte rs) {
#if UI_DISPLAY_I2C_CHIPTYPE==0
byte mod = (rs?UI_DISPLAY_RS_PIN:0) | uid.outputMask; // | (UI_DISPLAY_RW_PIN);
#if UI_DISPLAY_D4_PIN==1 && UI_DISPLAY_D5_PIN==2 && UI_DISPLAY_D6_PIN==4 && UI_DISPLAY_D7_PIN==8
byte value = (c >> 4) | mod;
i2c_write((value) | UI_DISPLAY_ENABLE_PIN);
i2c_write(value);
value = (c & 15) | mod;
i2c_write((value) | UI_DISPLAY_ENABLE_PIN);
i2c_write(value);
#else
byte value = (c & 16?UI_DISPLAY_D4_PIN:0)|(c & 32?UI_DISPLAY_D5_PIN:0)|(c & 64?UI_DISPLAY_D6_PIN:0)|(c & 128?UI_DISPLAY_D7_PIN:0) | mod;
i2c_write((value) | UI_DISPLAY_ENABLE_PIN);
i2c_write(value);
value = (c & 1?UI_DISPLAY_D4_PIN:0)|(c & 2?UI_DISPLAY_D5_PIN:0)|(c & 4?UI_DISPLAY_D6_PIN:0)|(c & 8?UI_DISPLAY_D7_PIN:0) | mod;
i2c_write((value) | UI_DISPLAY_ENABLE_PIN);
i2c_write(value);
#endif
#endif
#if UI_DISPLAY_I2C_CHIPTYPE==1
unsigned int mod = (rs?UI_DISPLAY_RS_PIN:0) | uid.outputMask; // | (UI_DISPLAY_RW_PIN);
unsigned int value = (c & 16?UI_DISPLAY_D4_PIN:0)|(c & 32?UI_DISPLAY_D5_PIN:0)|(c & 64?UI_DISPLAY_D6_PIN:0)|(c & 128?UI_DISPLAY_D7_PIN:0) | mod;
unsigned int value2 = (value) | UI_DISPLAY_ENABLE_PIN;
i2c_write(value2 & 255);i2c_write(value2 >>8);
i2c_write(value & 255);i2c_write(value>>8);
value = (c & 1?UI_DISPLAY_D4_PIN:0)|(c & 2?UI_DISPLAY_D5_PIN:0)|(c & 4?UI_DISPLAY_D6_PIN:0)|(c & 8?UI_DISPLAY_D7_PIN:0) | mod;
value2 = (value) | UI_DISPLAY_ENABLE_PIN;
i2c_write(value2 & 255);i2c_write(value2 >>8);
i2c_write(value & 255);i2c_write(value>>8);
#endif
}
void initializeLCD() {
delay(135);
lcdStartWrite();
i2c_write(uid.outputMask & 255);
#if UI_DISPLAY_I2C_CHIPTYPE==1
i2c_write(uid.outputMask >> 16);
#endif
delayMicroseconds(10);
lcdWriteNibble(0x03);
delayMicroseconds(5000); // I have one LCD for which 4500 here was not long enough.
// second try
lcdWriteNibble(0x03);
delayMicroseconds(150); // wait
// third go!
lcdWriteNibble(0x03);
delayMicroseconds(150);
// finally, set to 4-bit interface
lcdWriteNibble(0x02);
delayMicroseconds(150);
// finally, set # lines, font size, etc.
lcdCommand(LCD_4BIT | LCD_2LINE | LCD_5X7);
lcdCommand(LCD_CLEAR); //- Clear Screen
delay(2); // clear is slow operation
lcdCommand(LCD_INCREASE | LCD_DISPLAYSHIFTOFF); //- Entrymode (Display Shift: off, Increment Address Counter)
lcdCommand(LCD_DISPLAYON | LCD_CURSOROFF | LCD_BLINKINGOFF); //- Display on
uid.lastSwitch = uid.lastRefresh = millis();
uid.createChar(1,character_back);
uid.createChar(2,character_degree);
uid.createChar(3,character_selected);
uid.createChar(4,character_unselected);
uid.createChar(5,character_temperature);
uid.createChar(6,character_folder);
lcdStopWrite();
}
#endif
#if UI_DISPLAY_TYPE==1 || UI_DISPLAY_TYPE==2
void lcdWriteNibble(byte value) {
WRITE(UI_DISPLAY_D4_PIN,value & 1);
WRITE(UI_DISPLAY_D5_PIN,value & 2);
WRITE(UI_DISPLAY_D6_PIN,value & 4);
WRITE(UI_DISPLAY_D7_PIN,value & 8);
WRITE(UI_DISPLAY_ENABLE_PIN, HIGH);// enable pulse must be >450ns
__asm__("nop\n\t""nop\n\t""nop\n\t""nop\n\t""nop\n\t""nop\n\t");
WRITE(UI_DISPLAY_ENABLE_PIN, LOW);
__asm__("nop\n\t""nop\n\t""nop\n\t""nop\n\t""nop\n\t""nop\n\t");
}
void lcdWriteByte(byte c,byte rs) {
#if UI_DISPLAY_RW_PIN<0
delayMicroseconds(UI_DELAYPERCHAR);
#else
SET_INPUT(UI_DISPLAY_D4_PIN);
SET_INPUT(UI_DISPLAY_D5_PIN);
SET_INPUT(UI_DISPLAY_D6_PIN);
SET_INPUT(UI_DISPLAY_D7_PIN);
WRITE(UI_DISPLAY_RW_PIN, HIGH);
WRITE(UI_DISPLAY_RS_PIN, LOW);
uint8_t busy;
do {
WRITE(UI_DISPLAY_ENABLE_PIN, HIGH);
__asm__("nop\n\t""nop\n\t""nop\n\t""nop\n\t""nop\n\t""nop\n\t");
busy = READ(UI_DISPLAY_D7_PIN);
WRITE(UI_DISPLAY_ENABLE_PIN, LOW);
__asm__("nop\n\t""nop\n\t""nop\n\t""nop\n\t""nop\n\t""nop\n\t");
WRITE(UI_DISPLAY_ENABLE_PIN, HIGH);
__asm__("nop\n\t""nop\n\t""nop\n\t""nop\n\t""nop\n\t""nop\n\t");
WRITE(UI_DISPLAY_ENABLE_PIN, LOW);
__asm__("nop\n\t""nop\n\t""nop\n\t""nop\n\t""nop\n\t""nop\n\t");
} while (busy);
SET_OUTPUT(UI_DISPLAY_D4_PIN);
SET_OUTPUT(UI_DISPLAY_D5_PIN);
SET_OUTPUT(UI_DISPLAY_D6_PIN);
SET_OUTPUT(UI_DISPLAY_D7_PIN);
WRITE(UI_DISPLAY_RW_PIN, LOW);
#endif
WRITE(UI_DISPLAY_RS_PIN, rs);
WRITE(UI_DISPLAY_D4_PIN, c & 0x10);
WRITE(UI_DISPLAY_D5_PIN, c & 0x20);
WRITE(UI_DISPLAY_D6_PIN, c & 0x40);
WRITE(UI_DISPLAY_D7_PIN, c & 0x80);
WRITE(UI_DISPLAY_ENABLE_PIN, HIGH); // enable pulse must be >450ns
__asm__("nop\n\t""nop\n\t""nop\n\t""nop\n\t""nop\n\t""nop\n\t");
WRITE(UI_DISPLAY_ENABLE_PIN, LOW);
__asm__("nop\n\t""nop\n\t""nop\n\t""nop\n\t""nop\n\t""nop\n\t");
WRITE(UI_DISPLAY_D4_PIN, c & 0x01);
WRITE(UI_DISPLAY_D5_PIN, c & 0x02);
WRITE(UI_DISPLAY_D6_PIN, c & 0x04);
WRITE(UI_DISPLAY_D7_PIN, c & 0x08);
WRITE(UI_DISPLAY_ENABLE_PIN, HIGH); // enable pulse must be >450ns
__asm__("nop\n\t""nop\n\t""nop\n\t""nop\n\t""nop\n\t""nop\n\t");
WRITE(UI_DISPLAY_ENABLE_PIN, LOW);
__asm__("nop\n\t""nop\n\t""nop\n\t""nop\n\t""nop\n\t""nop\n\t");
}
void initializeLCD() {
// SEE PAGE 45/46 FOR INITIALIZATION SPECIFICATION!
// according to datasheet, we need at least 40ms after power rises above 2.7V
// before sending commands. Arduino can turn on way before 4.5V.
// is this delay long enough for all cases??
delay(135);
SET_OUTPUT(UI_DISPLAY_D4_PIN);
SET_OUTPUT(UI_DISPLAY_D5_PIN);
SET_OUTPUT(UI_DISPLAY_D6_PIN);
SET_OUTPUT(UI_DISPLAY_D7_PIN);
SET_OUTPUT(UI_DISPLAY_RS_PIN);
#if UI_DISPLAY_RW_PIN>-1
SET_OUTPUT(UI_DISPLAY_RW_PIN);
#endif
SET_OUTPUT(UI_DISPLAY_ENABLE_PIN);
// Now we pull both RS and R/W low to begin commands
WRITE(UI_DISPLAY_RS_PIN, LOW);
WRITE(UI_DISPLAY_ENABLE_PIN, LOW);
//put the LCD into 4 bit mode
// this is according to the hitachi HD44780 datasheet
// figure 24, pg 46
// we start in 8bit mode, try to set 4 bit mode
// at this point we are in 8 bit mode but of course in this
// interface 4 pins are dangling unconnected and the values
// on them don't matter for these instructions.
WRITE(UI_DISPLAY_RS_PIN, LOW);
delayMicroseconds(10);
lcdWriteNibble(0x03);
delayMicroseconds(5000); // I have one LCD for which 4500 here was not long enough.
// second try
lcdWriteNibble(0x03);
delayMicroseconds(150); // wait
// third go!
lcdWriteNibble(0x03);
delayMicroseconds(150);
// finally, set to 4-bit interface
lcdWriteNibble(0x02);
delayMicroseconds(150);
// finally, set # lines, font size, etc.
lcdCommand(LCD_4BIT | LCD_2LINE | LCD_5X7);
lcdCommand(LCD_CLEAR); //- Clear Screen
delay(2); // clear is slow operation
lcdCommand(LCD_INCREASE | LCD_DISPLAYSHIFTOFF); //- Entrymode (Display Shift: off, Increment Address Counter)
lcdCommand(LCD_DISPLAYON | LCD_CURSOROFF | LCD_BLINKINGOFF); //- Display on
uid.lastSwitch = uid.lastRefresh = millis();
uid.createChar(1,character_back);
uid.createChar(2,character_degree);
uid.createChar(3,character_selected);
uid.createChar(4,character_unselected);
uid.createChar(5,character_temperature);
uid.createChar(6,character_folder);
}
// ----------- end direct LCD driver
#endif
#if UI_DISPLAY_TYPE==4
// Use LiquidCrystal library instead
#include <LiquidCrystal.h>
LiquidCrystal lcd(UI_DISPLAY_RS_PIN, UI_DISPLAY_RW_PIN,UI_DISPLAY_ENABLE_PIN,UI_DISPLAY_D4_PIN,UI_DISPLAY_D5_PIN,UI_DISPLAY_D6_PIN,UI_DISPLAY_D7_PIN);
void UIDisplay::createChar(byte location,const byte charmap[]) {
location &= 0x7; // we only have 8 locations 0-7
byte data[8];
for (int i=0; i<8; i++) {
data[i]=pgm_read_byte(&(charmap[i]));
}
lcd.createChar(location, data);
}
void UIDisplay::printRow(byte r,char *txt) {
byte col=0;
// Set row
if(r >= UI_ROWS) return;
lcd.setCursor(0,r);
char c;
while(col<UI_COLS && (c=*txt) != 0x00) {
txt++;
lcd.write(c);
col++;
}
while(col<UI_COLS) {
lcd.write(' ');
col++;
}
#if UI_HAS_KEYS==1
mediumAction();
#endif
}
void initializeLCD() {
lcd.begin(UI_COLS,UI_ROWS);
uid.lastSwitch = uid.lastRefresh = millis();
uid.createChar(1,character_back);
uid.createChar(2,character_degree);
uid.createChar(3,character_selected);
uid.createChar(4,character_unselected);
}
// ------------------ End LiquidCrystal library as LCD driver
#endif
char printCols[UI_COLS+1];
UIDisplay::UIDisplay() {
#ifdef COMPILE_I2C_DRIVER
i2c_init();
#endif
flags = 0;
menuLevel = 0;
menuPos[0] = 0;
lastAction = 0;
lastButtonAction = 0;
activeAction = 0;
statusMsg[0] = 0;
ui_init_keys();
#if SDSUPPORT
cwd[0]='/';cwd[1]=0;
folderLevel=0;
#endif
UI_STATUS(UI_TEXT_PRINTER_READY);
}
void UIDisplay::initialize() {
#if UI_DISPLAY_TYPE>0
initializeLCD();
uid.printRowP(0,versionString);
uid.printRowP(1,versionString2);
#endif
#if BEEPER_TYPE==2 || defined(UI_HAS_I2C_KEYS)
// Make sure the beeper is off
i2c_start_wait(UI_I2C_KEY_ADDRESS+I2C_WRITE);
i2c_write(255); // Disable beeper, enable read for other pins.
i2c_stop();
#endif
}
#if UI_DISPLAY_TYPE==1 || UI_DISPLAY_TYPE==2 || UI_DISPLAY_TYPE==3
void UIDisplay::createChar(byte location,const byte PROGMEM charmap[]) {
location &= 0x7; // we only have 8 locations 0-7
lcdCommand(LCD_SETCGRAMADDR | (location << 3));
for (int i=0; i<8; i++) {
lcdPutChar(pgm_read_byte(&(charmap[i])));
}
}
void UIDisplay::printRow(byte r,char *txt) {
byte col=0;
// Set row
if(r >= UI_ROWS) return;
#if UI_DISPLAY_TYPE==3
lcdStartWrite();
#endif
lcdWriteByte(128 + pgm_read_byte(&LCDLineOffsets[r]),0); // Position cursor
char c;
while(col<UI_COLS && (c=*txt) != 0x00) {
txt++;
lcdPutChar(c);
col++;
}
while(col<UI_COLS) {
lcdPutChar(' ');
col++;
}
#if UI_DISPLAY_TYPE==3
lcdStopWrite();
#endif
#if UI_HAS_KEYS==1 && UI_HAS_I2C_ENCODER>0
ui_check_slow_encoder();
#endif
}
#endif
void UIDisplay::printRowP(byte r,PGM_P txt) {
if(r >= UI_ROWS) return;
col=0;
addStringP(txt);
printCols[col]=0;
printRow(r,printCols);
}
void UIDisplay::addInt(int value,byte digits) {
byte dig=0,neg=0;
if(value<0) {
value = -value;
neg=1;
dig++;
}
char buf[7]; // Assumes 8-bit chars plus zero byte.
char *str = &buf[6];
buf[6]=0;
do {
unsigned int m = value;
value /= 10;
char c = m - 10 * value;
*--str = c + '0';
dig++;
} while(value);
if(neg)
printCols[col++]='-';
if(digits<6)
while(dig<digits) {
*--str = ' ';
dig++;
}
while(*str && col<UI_COLS) {
printCols[col++] = *str;
str++;
}
}
void UIDisplay::addLong(long value,char digits) {
byte dig = 0,neg=0;
if(value<0) {
neg=1;
value = -value;
dig++;
}
char buf[13]; // Assumes 8-bit chars plus zero byte.
char *str = &buf[12];
buf[12]=0;
do {
unsigned long m = value;
value /= 10;
char c = m - 10 * value;
*--str = c + '0';
dig++;
} while(value);
if(neg)
printCols[col++]='-';
if(digits<=11)
while(dig<digits) {
*--str = ' ';
dig++;
}
while(*str && col<UI_COLS) {
printCols[col++] = *str;
str++;
}
}
const float roundingTable[] PROGMEM = {0.5,0.05,0.005,0.0005};
void UIDisplay::addFloat(float number, char fixdigits,byte digits)
{
// Handle negative numbers
if (number < 0.0)
{
printCols[col++]='-';
if(col>=UI_COLS) return;
number = -number;
fixdigits--;
}
number += pgm_read_float(&roundingTable[digits]); // for correct rounding
// Extract the integer part of the number and print it
unsigned long int_part = (unsigned long)number;
float remainder = number - (float)int_part;
addLong(int_part,fixdigits);
if(col>=UI_COLS) return;
// Print the decimal point, but only if there are digits beyond
if (digits > 0) {
printCols[col++]='.';
}
// Extract digits from the remainder one at a time
while (col<UI_COLS && digits-- > 0)
{
remainder *= 10.0;
byte toPrint = byte(remainder);
printCols[col++] = '0'+toPrint;
remainder -= toPrint;
}
}
void UIDisplay::addStringP(PGM_P text) {
while(col<UI_COLS) {
byte c = pgm_read_byte(text++);
if(c==0) return;
printCols[col++]=c;
}
}
UI_STRING(ui_text_on,UI_TEXT_ON);
UI_STRING(ui_text_off,UI_TEXT_OFF);
UI_STRING(ui_text_na,UI_TEXT_NA);
UI_STRING(ui_yes,UI_TEXT_YES);
UI_STRING(ui_no,UI_TEXT_NO);
UI_STRING(ui_print_pos,UI_TEXT_PRINT_POS);
UI_STRING(ui_selected,UI_TEXT_SEL);
UI_STRING(ui_unselected,UI_TEXT_NOSEL);
UI_STRING(ui_action,UI_TEXT_STRING_ACTION);
void UIDisplay::parse(char *txt,bool ram) {
int ivalue=0;
float fvalue=0;
while(col<UI_COLS) {
char c=(ram ? *(txt++) : pgm_read_byte(txt++));
if(c==0) break; // finished
if(c!='%') {
printCols[col++]=c;
continue;
}
// dynamic parameter, parse meaning and replace
char c1=pgm_read_byte(txt++);
char c2=pgm_read_byte(txt++);
switch(c1) {
case '%':
if(c2=='%' && col<UI_COLS)
printCols[col++]='%';
break;
case 'a': // Acceleration settings
if(c2=='x') addFloat(max_acceleration_units_per_sq_second[0],5,0);
else if(c2=='y') addFloat(max_acceleration_units_per_sq_second[1],5,0);
else if(c2=='z') addFloat(max_acceleration_units_per_sq_second[2],5,0);
else if(c2=='X') addFloat(max_travel_acceleration_units_per_sq_second[0],5,0);
else if(c2=='Y') addFloat(max_travel_acceleration_units_per_sq_second[1],5,0);
else if(c2=='Z') addFloat(max_travel_acceleration_units_per_sq_second[2],5,0);
else if(c2=='j') addFloat(printer_state.maxJerk,3,1);
else if(c2=='J') addFloat(printer_state.maxZJerk,3,1);
break;
case 'd':
if(c2=='o') addStringP(DEBUG_ECHO?ui_text_on:ui_text_off);
else if(c2=='i') addStringP(DEBUG_INFO?ui_text_on:ui_text_off);
else if(c2=='e') addStringP(DEBUG_ERRORS?ui_text_on:ui_text_off);
else if(c2=='d') addStringP(DEBUG_DRYRUN?ui_text_on:ui_text_off);
break;
case 'e': // Extruder temperature
if(c2=='r') { // Extruder relative mode
addStringP(relative_mode_e?ui_yes:ui_no);
break;
}
if(printer_state.flag0 & PRINTER_FLAG0_TEMPSENSOR_DEFECT) {
addStringP(PSTR("def"));
break;
}
ivalue = UI_TEMP_PRECISION;
if(c2=='c') fvalue=current_extruder->tempControl.currentTemperatureC;
else if(c2>='0' && c2<='9') fvalue=extruder[c2-'0'].tempControl.currentTemperatureC;
else if(c2=='b') fvalue=heated_bed_get_temperature();
else if(c2=='B') {ivalue=0;fvalue=heated_bed_get_temperature();}
addFloat(fvalue,3,ivalue);
break;
case 'E': // Target extruder temperature
if(c2=='c') fvalue=current_extruder->tempControl.targetTemperatureC;
else if(c2>='0' && c2<='9') fvalue=extruder[c2-'0'].tempControl.targetTemperatureC;
#if HAVE_HEATED_BED
else if(c2=='b') fvalue=heatedBedController.targetTemperatureC;
#endif
addFloat(fvalue,3,0 /*UI_TEMP_PRECISION*/);
break;
case 'f':
if(c2=='x') addFloat(max_feedrate[0],5,0);
else if(c2=='y') addFloat(max_feedrate[1],5,0);
else if(c2=='z') addFloat(max_feedrate[2],5,0);
else if(c2=='X') addFloat(homing_feedrate[0],5,0);
else if(c2=='Y') addFloat(homing_feedrate[1],5,0);
else if(c2=='Z') addFloat(homing_feedrate[2],5,0);
break;
case 'i':
if(c2=='s') addLong(stepper_inactive_time,4);
else if(c2=='p') addLong(max_inactive_time,4);
break;
case 'O': // ops related stuff
#if USE_OPS==1
if(c2=='0') addStringP(printer_state.opsMode==0?ui_selected:ui_unselected);
else if(c2=='1') addStringP(printer_state.opsMode==1?ui_selected:ui_unselected);
else if(c2=='2') addStringP(printer_state.opsMode==2?ui_selected:ui_unselected);
else if(c2=='r') addFloat(printer_state.opsRetractDistance,2,1);
else if(c2=='b') addFloat(printer_state.opsRetractBacklash,2,1);
else if(c2=='d') addFloat(printer_state.opsMinDistance,2,1);
else if(c2=='a') {
addFloat(printer_state.opsMoveAfter,3,0);
if(col<UI_COLS)
printCols[col++]='%';
}
#endif
break;
case 'l':
if(c2=='a') addInt(lastAction,4);
break;
case 'o':
if(c2=='s') {
#if SDSUPPORT
if(sd.sdactive && sd.sdmode) {
addStringP(PSTR( UI_TEXT_PRINT_POS));
unsigned long percent;
if(sd.filesize<20000000) percent=sd.sdpos*100/sd.filesize;
else percent = (sd.sdpos>>8)*100/(sd.filesize>>8);
addInt((int)percent,3);
if(col<UI_COLS)
printCols[col++]='%';
} else
#endif
parse(statusMsg,true);
break;
}
if(c2=='c') {addLong(baudrate,6);break;}
if(c2=='e') {if(errorMsg!=0)addStringP((char PROGMEM *)errorMsg);break;}
if(c2=='B') {addInt((int)lines_count,2);break;}
if(c2=='f') {addInt(printer_state.extrudeMultiply,3);break;}
if(c2=='m') {addInt(printer_state.feedrateMultiply,3);break;}
// Extruder output level
if(c2>='0' && c2<='9') ivalue=pwm_pos[c2-'0'];
#if HAVE_HEATED_BED
else if(c2=='b') ivalue=pwm_pos[heatedBedController.pwmIndex];
#endif
else if(c2=='C') ivalue=pwm_pos[current_extruder->id];
ivalue=(ivalue*100)/255;
addInt(ivalue,3);
if(col<UI_COLS)
printCols[col++]='%';
break;
case 'x':
if(c2>='0' && c2<='3')
#if NUM_EXTRUDER>0
if(c2=='0')
fvalue = (float)(printer_state.currentPositionSteps[c2-'0']+current_extruder->xOffset)*inv_axis_steps_per_unit[c2-'0'];
else if(c2=='1')
fvalue = (float)(printer_state.currentPositionSteps[c2-'0']+current_extruder->yOffset)*inv_axis_steps_per_unit[c2-'0'];
else
fvalue = (float)printer_state.currentPositionSteps[c2-'0']*inv_axis_steps_per_unit[c2-'0'];
#else
fvalue = (float)printer_state.currentPositionSteps[c2-'0']*inv_axis_steps_per_unit[c2-'0'];
#endif
addFloat(fvalue,3,2);
break;
case 'y':
#if DRIVE_SYSTEM==3
if(c2>='0' && c2<='3') fvalue = (float)printer_state.currentDeltaPositionSteps[c2-'0']*inv_axis_steps_per_unit[c2-'0'];
addFloat(fvalue,3,2);
#endif
break;
case 'X': // Extruder related
#if NUM_EXTRUDER>0
if(c2>='0' && c2<='9') {addStringP(current_extruder->id==c2-'0'?ui_selected:ui_unselected);}
#ifdef TEMP_PID
else if(c2=='i') {addFloat(current_extruder->tempControl.pidIGain,4,2);}
else if(c2=='p') {addFloat(current_extruder->tempControl.pidPGain,4,2);}
else if(c2=='d') {addFloat(current_extruder->tempControl.pidDGain,4,2);}
else if(c2=='m') {addInt(current_extruder->tempControl.pidDriveMin,3);}
else if(c2=='M') {addInt(current_extruder->tempControl.pidDriveMax,3);}
else if(c2=='D') {addInt(current_extruder->tempControl.pidMax,3);}
#endif
else if(c2=='w') {addInt(current_extruder->watchPeriod,4);}
#if RETRACT_DURING_HEATUP
else if(c2=='T') {addInt(current_extruder->waitRetractTemperature,4);}
else if(c2=='U') {addInt(current_extruder->waitRetractUnits,2);}
#endif
else if(c2=='h') {addStringP(!current_extruder->tempControl.heatManager?PSTR(UI_TEXT_STRING_HM_BANGBANG):PSTR(UI_TEXT_STRING_HM_PID));}
#ifdef USE_ADVANCE
#ifdef ENABLE_QUADRATIC_ADVANCE
else if(c2=='a') {addFloat(current_extruder->advanceK,3,0);}
#endif
else if(c2=='l') {addFloat(current_extruder->advanceL,3,0);}
#endif
else if(c2=='x') {addFloat(current_extruder->xOffset,4,2);}
else if(c2=='y') {addFloat(current_extruder->yOffset,4,2);}
else if(c2=='f') {addFloat(current_extruder->maxStartFeedrate,5,0);}
else if(c2=='F') {addFloat(current_extruder->maxFeedrate,5,0);}
else if(c2=='A') {addFloat(current_extruder->maxAcceleration,5,0);}
#endif
break;
case 's': // Endstop positions
if(c2=='x') {
#if (X_MIN_PIN > -1) && MIN_HARDWARE_ENDSTOP_X
addStringP((READ(X_MIN_PIN)^ENDSTOP_X_MIN_INVERTING)?ui_text_on:ui_text_off);
#else
addStringP(ui_text_na);
#endif
}
if(c2=='X')
#if (X_MAX_PIN > -1) && MAX_HARDWARE_ENDSTOP_X
addStringP((READ(X_MAX_PIN)^ENDSTOP_X_MAX_INVERTING)?ui_text_on:ui_text_off);
#else
addStringP(ui_text_na);
#endif
if(c2=='y')
#if (Y_MIN_PIN > -1)&& MIN_HARDWARE_ENDSTOP_Y
addStringP((READ(Y_MIN_PIN)^ENDSTOP_Y_MIN_INVERTING)?ui_text_on:ui_text_off);
#else
addStringP(ui_text_na);
#endif
if(c2=='Y')
#if (Y_MAX_PIN > -1) && MAX_HARDWARE_ENDSTOP_Y
addStringP((READ(Y_MAX_PIN)^ENDSTOP_Y_MAX_INVERTING)?ui_text_on:ui_text_off);
#else
addStringP(ui_text_na);
#endif
if(c2=='z')
#if (Z_MIN_PIN > -1) && MIN_HARDWARE_ENDSTOP_Z
addStringP((READ(Z_MIN_PIN)^ENDSTOP_Z_MIN_INVERTING)?ui_text_on:ui_text_off);
#else
addStringP(ui_text_na);
#endif
if(c2=='Z')
#if (Z_MAX_PIN > -1) && MAX_HARDWARE_ENDSTOP_Z
addStringP((READ(Z_MAX_PIN)^ENDSTOP_Z_MAX_INVERTING)?ui_text_on:ui_text_off);
#else
addStringP(ui_text_na);
#endif
break;
case 'S':
if(c2=='x') addFloat(axis_steps_per_unit[0],3,1);
if(c2=='y') addFloat(axis_steps_per_unit[1],3,1);
if(c2=='z') addFloat(axis_steps_per_unit[2],3,1);
if(c2=='e') addFloat(current_extruder->stepsPerMM,3,1);
break;
}
}
printCols[col] = 0;
}
void UIDisplay::setStatusP(PGM_P txt) {
byte i=0;
while(i<16) {
byte c = pgm_read_byte(txt++);
if(!c) break;
statusMsg[i++] = c;
}
statusMsg[i]=0;
}
void UIDisplay::setStatus(char *txt) {
byte i=0;
while(*txt && i<16)
statusMsg[i++] = *txt++;
statusMsg[i]=0;
}
const UIMenu * const ui_pages[UI_NUM_PAGES] PROGMEM = UI_PAGES;
#if SDSUPPORT
byte nFilesOnCard;
void UIDisplay::updateSDFileCount() {
dir_t* p;
byte offset = menuTop[menuLevel];
SdBaseFile *root = sd.fat.vwd();
root->rewind();
nFilesOnCard = 0;
while ((p = root->readDirCache())) {
// done if past last used entry
if (p->name[0] == DIR_NAME_FREE) break;
// skip deleted entry and entries for . and ..
if(!sd.showFilename(p->name) && !(p->name[0]=='.' && p->name[1]=='.')) continue;
// only list subdirectories and files
if (!DIR_IS_FILE_OR_SUBDIR(p)) continue;
if(folderLevel>=SD_MAX_FOLDER_DEPTH && DIR_IS_SUBDIR(p) && !(p->name[0]=='.' && p->name[1]=='.')) continue;
nFilesOnCard++;
if(nFilesOnCard==254) return;
}
}
void getSDFilenameAt(byte filePos,char *filename) {
dir_t* p;
byte c=0;
SdBaseFile *root = sd.fat.vwd();
root->rewind();
while ((p = root->readDirCache())) {
// done if past last used entry
if (p->name[0] == DIR_NAME_FREE) break;
// skip deleted entry and entries for . and ..
if(!sd.showFilename(p->name) && !(p->name[0]=='.' && p->name[1]=='.')) continue;
// only list subdirectories and files
if (!DIR_IS_FILE_OR_SUBDIR(p)) continue;
if(uid.folderLevel>=SD_MAX_FOLDER_DEPTH && DIR_IS_SUBDIR(p) && !(p->name[0]=='.' && p->name[1]=='.')) continue;
if(filePos) {
filePos--;
continue;
}
for (uint8_t i = 0; i < 11; i++) {
if (p->name[i] == ' ')continue;
if (i == 8)
filename[c++]='.';
filename[c++]=tolower(p->name[i]);
}
if(DIR_IS_SUBDIR(p)) filename[c++]='/'; // Set marker for directory
break;
}
filename[c]=0;
}
bool UIDisplay::isDirname(char *name) {
while(*name) name++;
name--;
return *name=='/';
}
void UIDisplay::goDir(char *name) {
char *p = cwd;
while(*p)p++;
if(name[0]=='.' && name[1]=='.') {
if(folderLevel==0) return;
p--;p--;
while(*p!='/') p--;
p++;
*p = 0;
folderLevel--;
} else {
if(folderLevel>=SD_MAX_FOLDER_DEPTH) return;
while(*name) *p++ = *name++;
*p = 0;
folderLevel++;
}
sd.fat.chdir(cwd);
updateSDFileCount();
}
void UIDisplay::sdrefresh(byte &r) {
dir_t* p;
byte offset = menuTop[menuLevel];
sd.fat.chdir(cwd);
SdBaseFile *root = sd.fat.vwd();
root->rewind();
byte skip = (offset>0?offset-1:0);
while (r+offset<nFilesOnCard+1 && r<UI_ROWS && (p = root->readDirCache())) {
// done if past last used entry
if (p->name[0] == DIR_NAME_FREE) break;
// skip deleted entry and entries for . and ..
if(!sd.showFilename(p->name) && !(p->name[0]=='.' && p->name[1]=='.')) continue;
// only list subdirectories and files
if (!DIR_IS_FILE_OR_SUBDIR(p)) continue;
if(folderLevel>=SD_MAX_FOLDER_DEPTH && DIR_IS_SUBDIR(p) && !(p->name[0]=='.' && p->name[1]=='.')) continue;
if(skip>0) {skip--;continue;}
col=0;
if(r+offset==menuPos[menuLevel])
printCols[col++]='>';
else
printCols[col++]=' ';
// print file name with possible blank fill
if(DIR_IS_SUBDIR(p))
printCols[col++] = 6; // Prepend folder symbol
else
printCols[col++] = ' ';
for (byte i = 0; i < 11; i++) {
if (p->name[i] == ' ')continue;
if (i == 8)
printCols[col++]='.';
printCols[col++]=tolower(p->name[i]);
}
printCols[col]=0;
printRow(r,printCols);
r++;
}
}
#endif
// Refresh current menu page
void UIDisplay::refreshPage() {
byte r;
byte mtype;
if(menuLevel==0) {
UIMenu *men = (UIMenu*)pgm_read_word(&(ui_pages[menuPos[0]]));
byte nr = pgm_read_word_near(&(men->numEntries));
UIMenuEntry **entries = (UIMenuEntry**)pgm_read_word(&(men->entries));
for(r=0;r<nr && r<UI_ROWS;r++) {
UIMenuEntry *ent =(UIMenuEntry *)pgm_read_word(&(entries[r]));
col=0;
parse((char*)pgm_read_word(&(ent->text)),false);
printRow(r,(char*)printCols);
}
} else {
UIMenu *men = (UIMenu*)menu[menuLevel];
byte nr = pgm_read_word_near((void*)&(men->numEntries));
mtype = pgm_read_byte((void*)&(men->menuType));
byte offset = menuTop[menuLevel];
UIMenuEntry **entries = (UIMenuEntry**)pgm_read_word(&(men->entries));
for(r=0;r+offset<nr && r<UI_ROWS;r++) {
UIMenuEntry *ent =(UIMenuEntry *)pgm_read_word(&(entries[r+offset]));
unsigned char entType = pgm_read_byte(&(ent->menuType));
unsigned int entAction = pgm_read_word(&(ent->action));
col=0;
if(entType>=2 && entType<=4) {
if(r+offset==menuPos[menuLevel] && activeAction!=entAction)
printCols[col++]=CHAR_SELECTOR;
else if(activeAction==entAction)
printCols[col++]=CHAR_SELECTED;
else
printCols[col++]=' ';
}
parse((char*)pgm_read_word(&(ent->text)),false);
if(entType==2) { // Draw submenu marker at the right side
while(col<UI_COLS) printCols[col++]=' ';
printCols[UI_COLS-1]=CHAR_RIGHT; // Arrow right
}
printRow(r,(char*)printCols);
}
}
#if SDSUPPORT
if(mtype==1) {
sdrefresh(r);
}
#endif
printCols[0]=0;
while(r<UI_ROWS)
printRow(r++,printCols);
}
void UIDisplay::pushMenu(void *men,bool refresh) {
if(men==menu[menuLevel]) {
refreshPage();
return;
}
if(menuLevel==4) return;
menuLevel++;
menu[menuLevel]=men;
menuTop[menuLevel] = menuPos[menuLevel] = 0;
#if SDSUPPORT
UIMenu *men2 = (UIMenu*)menu[menuLevel];
if(pgm_read_byte(&(men2->menuType))==1) // Open files list
updateSDFileCount();
#endif
if(refresh)
refreshPage();
}
void UIDisplay::okAction() {
#if UI_HAS_KEYS==1
if(menuLevel==0) { // Enter menu
menuLevel = 1;
menuTop[1] = menuPos[1] = 0;
menu[1] = (void*)&ui_menu_main;
BEEP_SHORT
return;
}
UIMenu *men = (UIMenu*)menu[menuLevel];
//byte nr = pgm_read_word_near(&(menu->numEntries));
byte mtype = pgm_read_byte(&(men->menuType));
UIMenuEntry **entries = (UIMenuEntry**)pgm_read_word(&(men->entries));
UIMenuEntry *ent =(UIMenuEntry *)pgm_read_word(&(entries[menuPos[menuLevel]]));
unsigned char entType = pgm_read_byte(&(ent->menuType));// 0 = Info, 1 = Headline, 2 = submenu ref, 3 = direct action command, 4 = modify action
int action = pgm_read_word(&(ent->action));
if(mtype==3) { // action menu
action = pgm_read_word(&(men->id));
finishAction(action);
executeAction(UI_ACTION_BACK);
return;
}
if(mtype==2 && entType==4) { // Modify action
if(activeAction) { // finish action
finishAction(action);
activeAction = 0;
} else
activeAction = action;
return;
}
#if SDSUPPORT
if(mtype==1) {
if(menuPos[menuLevel]==0) { // Selected back instead of file
executeAction(UI_ACTION_BACK);
return;
}
byte filePos = menuPos[menuLevel]-1;
char filename[14];
getSDFilenameAt(filePos,filename);
if(isDirname(filename)) { // Directory change selected
goDir(filename);
menuTop[menuLevel]=0;
menuPos[menuLevel]=1;
refreshPage();
return;
}
menuLevel--;
men = (UIMenu*)menu[menuLevel];
entries = (UIMenuEntry**)pgm_read_word(&(men->entries));
ent =(UIMenuEntry *)pgm_read_word(&(entries[menuPos[menuLevel]]));
switch(pgm_read_word(&(ent->action))) {
case UI_ACTION_SD_PRINT:
if(sd.sdactive){
sd.sdmode = false;
sd.file.close();
if (sd.file.open(filename, O_READ)) {
OUT_P("File opened:");
out.print(filename);
OUT_P(" Size:");
out.println(sd.file.fileSize());
sd.sdpos = 0;
sd.filesize = sd.file.fileSize();
OUT_P_LN("File selected");
sd.sdmode = true; // Start print immediately
menuLevel = 0;
BEEP_LONG;
}
else{
OUT_P_LN("file.open failed");
}
}
break;
case UI_ACTION_SD_DELETE:
if(sd.sdactive){
sd.sdmode = false;
sd.file.close();
if(sd.fat.remove(filename)) {
OUT_P_LN("File deleted");
BEEP_LONG
} else {
OUT_P_LN("Deletion failed");
}
}
break;
}
}
#endif
if(entType==2) { // Enter submenu
pushMenu((void*)action,false);
BEEP_SHORT
return;
}
if(entType==3) {
executeAction(action);
return;
}
executeAction(UI_ACTION_BACK);
#endif
}
#define INCREMENT_MIN_MAX(a,steps,_min,_max) a+=increment*steps;if(a<(_min)) a=_min;else if(a>(_max)) a=_max;
void UIDisplay::nextPreviousAction(char next) {
#if UI_HAS_KEYS==1
if(menuLevel==0) {
lastSwitch = millis();
if((UI_INVERT_MENU_DIRECTION && next<0) || (!UI_INVERT_MENU_DIRECTION && next>0)) {
menuPos[0]++;
if(menuPos[0]>=UI_NUM_PAGES)
menuPos[0]=0;
} else {
if(menuPos[0]==0)
menuPos[0]=UI_NUM_PAGES-1;
else
menuPos[0]--;
}
return;
}
UIMenu *men = (UIMenu*)menu[menuLevel];
byte nr = pgm_read_word_near(&(men->numEntries));
byte mtype = pgm_read_byte(&(men->menuType));
UIMenuEntry **entries = (UIMenuEntry**)pgm_read_word(&(men->entries));
UIMenuEntry *ent =(UIMenuEntry *)pgm_read_word(&(entries[menuPos[menuLevel]]));
unsigned char entType = pgm_read_byte(&(ent->menuType));// 0 = Info, 1 = Headline, 2 = submenu ref, 3 = direct action command
int action = pgm_read_word(&(ent->action));
if(mtype==2 && activeAction==0) { // browse through menu items
if((UI_INVERT_MENU_DIRECTION && next<0) || (!UI_INVERT_MENU_DIRECTION && next>0)) {
if(menuPos[menuLevel]+1<nr) menuPos[menuLevel]++;
} else if(menuPos[menuLevel]>0)
menuPos[menuLevel]--;
if(menuTop[menuLevel]>menuPos[menuLevel])
menuTop[menuLevel]=menuPos[menuLevel];
else if(menuTop[menuLevel]+UI_ROWS-1<menuPos[menuLevel])
menuTop[menuLevel]=menuPos[menuLevel]+1-UI_ROWS;
return;
}
#if SDSUPPORT
if(mtype==1) { // SD listing
if((UI_INVERT_MENU_DIRECTION && next<0) || (!UI_INVERT_MENU_DIRECTION && next>0)) {
if(menuPos[menuLevel]<nFilesOnCard) menuPos[menuLevel]++;
} else if(menuPos[menuLevel]>0)
menuPos[menuLevel]--;
if(menuTop[menuLevel]>menuPos[menuLevel])
menuTop[menuLevel]=menuPos[menuLevel];
else if(menuTop[menuLevel]+UI_ROWS-1<menuPos[menuLevel])
menuTop[menuLevel]=menuPos[menuLevel]+1-UI_ROWS;
return;
}
#endif
if(mtype==3) action = pgm_read_word(&(men->id)); else action=activeAction;
char increment = next;
switch(action) {
case UI_ACTION_XPOSITION:
move_steps(increment,0,0,0,homing_feedrate[0],true,true);
printPosition();
break;
case UI_ACTION_YPOSITION:
move_steps(0,increment,0,0,homing_feedrate[1],true,true);
printPosition();
break;
case UI_ACTION_ZPOSITION:
move_steps(0,0,increment,0,homing_feedrate[2],true,true);
printPosition();
break;
case UI_ACTION_XPOSITION_FAST:
move_steps(axis_steps_per_unit[0]*increment,0,0,0,homing_feedrate[0],true,true);
printPosition();
break;
case UI_ACTION_YPOSITION_FAST:
move_steps(0,axis_steps_per_unit[1]*increment,0,0,homing_feedrate[1],true,true);
printPosition();
break;
case UI_ACTION_ZPOSITION_FAST:
move_steps(0,0,axis_steps_per_unit[2]*increment,0,homing_feedrate[2],true,true);
printPosition();
break;
case UI_ACTION_EPOSITION:
move_steps(0,0,0,axis_steps_per_unit[3]*increment,UI_SET_EXTRUDER_FEEDRATE,true,false);
printPosition();
break;
case UI_ACTION_HEATED_BED_TEMP:
#if HAVE_HEATED_BED==true
{
int tmp = (int)heatedBedController.targetTemperatureC;
if(tmp<UI_SET_MIN_HEATED_BED_TEMP) tmp = 0;
tmp+=increment;
if(tmp==1) tmp = UI_SET_MIN_HEATED_BED_TEMP;
if(tmp<UI_SET_MIN_HEATED_BED_TEMP) tmp = 0;
else if(tmp>UI_SET_MAX_HEATED_BED_TEMP) tmp = UI_SET_MAX_HEATED_BED_TEMP;
heated_bed_set_temperature(tmp);
}
#endif
break;
case UI_ACTION_EXTRUDER0_TEMP:
{
int tmp = (int)extruder[0].tempControl.targetTemperatureC;
if(tmp<UI_SET_MIN_EXTRUDER_TEMP) tmp = 0;
tmp+=increment;
if(tmp==1) tmp = UI_SET_MIN_EXTRUDER_TEMP;
if(tmp<UI_SET_MIN_EXTRUDER_TEMP) tmp = 0;
else if(tmp>UI_SET_MAX_EXTRUDER_TEMP) tmp = UI_SET_MAX_EXTRUDER_TEMP;
extruder_set_temperature(tmp,0);
}
break;
case UI_ACTION_EXTRUDER1_TEMP:
#if NUM_EXTRUDER>1
{
int tmp = (int)extruder[1].tempControl.targetTemperatureC;
tmp+=increment;
if(tmp==1) tmp = UI_SET_MIN_EXTRUDER_TEMP;
if(tmp<UI_SET_MIN_EXTRUDER_TEMP) tmp = 0;
else if(tmp>UI_SET_MAX_EXTRUDER_TEMP) tmp = UI_SET_MAX_EXTRUDER_TEMP;
extruder_set_temperature(tmp,1);
}
#endif
break;
#if USE_OPS==1
case UI_ACTION_OPS_RETRACTDISTANCE:
printer_state.opsRetractDistance+=increment*0.1;
if(printer_state.opsRetractDistance<0) printer_state.opsRetractDistance=0;
else if(printer_state.opsRetractDistance>10) printer_state.opsRetractDistance=10;
extruder_select(current_extruder->id);
break;
case UI_ACTION_OPS_BACKLASH:
printer_state.opsRetractBacklash+=increment*0.1;
if(printer_state.opsRetractBacklash<-5) printer_state.opsRetractBacklash=-5;
else if(printer_state.opsRetractBacklash>5) printer_state.opsRetractBacklash=5;
extruder_select(current_extruder->id);
break;
case UI_ACTION_OPS_MOVE_AFTER:
printer_state.opsMoveAfter+=increment;
if(printer_state.opsMoveAfter<0) printer_state.opsMoveAfter=0;
else if(printer_state.opsMoveAfter>10) printer_state.opsMoveAfter=100;
extruder_select(current_extruder->id);
break;
case UI_ACTION_OPS_MINDISTANCE:
printer_state.opsMinDistance+=increment;
if(printer_state.opsMinDistance<0) printer_state.opsMinDistance=0;
else if(printer_state.opsMinDistance>10) printer_state.opsMinDistance=10;
extruder_select(current_extruder->id);
break;
#endif
case UI_ACTION_FEEDRATE_MULTIPLY:
{
int fr = printer_state.feedrateMultiply;
INCREMENT_MIN_MAX(fr,1,25,500);
change_feedrate_multiply(fr);
}
break;
case UI_ACTION_FLOWRATE_MULTIPLY:
{
INCREMENT_MIN_MAX(printer_state.extrudeMultiply,1,25,500);
OUT_P_I_LN("FlowrateMultiply:",printer_state.extrudeMultiply);
}
break;
case UI_ACTION_STEPPER_INACTIVE:
INCREMENT_MIN_MAX(stepper_inactive_time,60,0,9999);
break;
case UI_ACTION_MAX_INACTIVE:
INCREMENT_MIN_MAX(max_inactive_time,60,0,9999);
break;
case UI_ACTION_PRINT_ACCEL_X:
INCREMENT_MIN_MAX(max_acceleration_units_per_sq_second[0],100,0,10000);
update_ramps_parameter();
break;
case UI_ACTION_PRINT_ACCEL_Y:
INCREMENT_MIN_MAX(max_acceleration_units_per_sq_second[1],100,0,10000);
update_ramps_parameter();
break;
case UI_ACTION_PRINT_ACCEL_Z:
INCREMENT_MIN_MAX(max_acceleration_units_per_sq_second[2],100,0,10000);
update_ramps_parameter();
break;
case UI_ACTION_MOVE_ACCEL_X:
INCREMENT_MIN_MAX(max_travel_acceleration_units_per_sq_second[0],100,0,10000);
update_ramps_parameter();
break;
case UI_ACTION_MOVE_ACCEL_Y:
INCREMENT_MIN_MAX(max_travel_acceleration_units_per_sq_second[1],100,0,10000);
update_ramps_parameter();
break;
case UI_ACTION_MOVE_ACCEL_Z:
INCREMENT_MIN_MAX(max_travel_acceleration_units_per_sq_second[2],100,0,10000);
update_ramps_parameter();
break;
case UI_ACTION_MAX_JERK:
INCREMENT_MIN_MAX(printer_state.maxJerk,0.1,1,99.9);
break;
case UI_ACTION_MAX_ZJERK:
INCREMENT_MIN_MAX(printer_state.maxZJerk,0.1,0.1,99.9);
break;
case UI_ACTION_HOMING_FEEDRATE_X:
INCREMENT_MIN_MAX(homing_feedrate[0],1,5,1000);
break;
case UI_ACTION_HOMING_FEEDRATE_Y:
INCREMENT_MIN_MAX(homing_feedrate[1],1,5,1000);
break;
case UI_ACTION_HOMING_FEEDRATE_Z:
INCREMENT_MIN_MAX(homing_feedrate[2],1,1,1000);
break;
case UI_ACTION_MAX_FEEDRATE_X:
INCREMENT_MIN_MAX(max_feedrate[0],1,1,1000);
break;
case UI_ACTION_MAX_FEEDRATE_Y:
INCREMENT_MIN_MAX(max_feedrate[1],1,1,1000);
break;
case UI_ACTION_MAX_FEEDRATE_Z:
INCREMENT_MIN_MAX(max_feedrate[2],1,1,1000);
break;
case UI_ACTION_STEPS_X:
INCREMENT_MIN_MAX(axis_steps_per_unit[0],0.1,0,999);
update_ramps_parameter();
break;
case UI_ACTION_STEPS_Y:
INCREMENT_MIN_MAX(axis_steps_per_unit[1],0.1,0,999);
update_ramps_parameter();
break;
case UI_ACTION_STEPS_Z:
INCREMENT_MIN_MAX(axis_steps_per_unit[2],0.1,0,999);
update_ramps_parameter();
break;
case UI_ACTION_BAUDRATE:
#if EEPROM_MODE!=0
{
char p=0;
long rate;
do {
rate = pgm_read_dword(&(baudrates[p]));
if(rate==baudrate) break;
p++;
} while(rate!=0);
if(rate==0) p-=2;
p+=increment;
if(p<0) p = 0;
rate = pgm_read_dword(&(baudrates[p]));
if(rate==0) p--;
baudrate = pgm_read_dword(&(baudrates[p]));
}
#endif
break;
#ifdef TEMP_PID
case UI_ACTION_PID_PGAIN:
INCREMENT_MIN_MAX(current_extruder->tempControl.pidPGain,0.1,0,200);
break;
case UI_ACTION_PID_IGAIN:
INCREMENT_MIN_MAX(current_extruder->tempControl.pidIGain,0.01,0,100);
extruder_select(current_extruder->id);
break;
case UI_ACTION_PID_DGAIN:
INCREMENT_MIN_MAX(current_extruder->tempControl.pidDGain,0.1,0,200);
break;
case UI_ACTION_DRIVE_MIN:
INCREMENT_MIN_MAX(current_extruder->tempControl.pidDriveMin,1,1,255);
break;
case UI_ACTION_DRIVE_MAX:
INCREMENT_MIN_MAX(current_extruder->tempControl.pidDriveMax,1,1,255);
break;
case UI_ACTION_PID_MAX:
INCREMENT_MIN_MAX(current_extruder->tempControl.pidMax,1,1,255);
break;
#endif
case UI_ACTION_X_OFFSET:
INCREMENT_MIN_MAX(current_extruder->xOffset,1,-99999,99999);
extruder_select(current_extruder->id);
break;
case UI_ACTION_Y_OFFSET:
INCREMENT_MIN_MAX(current_extruder->yOffset,1,-99999,99999);
extruder_select(current_extruder->id);
break;
case UI_ACTION_EXTR_STEPS:
INCREMENT_MIN_MAX(current_extruder->stepsPerMM,1,1,9999);
extruder_select(current_extruder->id);
break;
case UI_ACTION_EXTR_ACCELERATION:
INCREMENT_MIN_MAX(current_extruder->maxAcceleration,10,10,99999);
extruder_select(current_extruder->id);
break;
case UI_ACTION_EXTR_MAX_FEEDRATE:
INCREMENT_MIN_MAX(current_extruder->maxFeedrate,1,1,999);
extruder_select(current_extruder->id);
break;
case UI_ACTION_EXTR_START_FEEDRATE:
INCREMENT_MIN_MAX(current_extruder->maxStartFeedrate,1,1,999);
extruder_select(current_extruder->id);
break;
case UI_ACTION_EXTR_HEATMANAGER:
INCREMENT_MIN_MAX(current_extruder->tempControl.heatManager,1,0,1);
break;
case UI_ACTION_EXTR_WATCH_PERIOD:
INCREMENT_MIN_MAX(current_extruder->watchPeriod,1,0,999);
break;
#if RETRACT_DURING_HEATUP
case UI_ACTION_EXTR_WAIT_RETRACT_TEMP:
INCREMENT_MIN_MAX(current_extruder->waitRetractTemperature,1,100,UI_SET_MAX_EXTRUDER_TEMP);
break;
case UI_ACTION_EXTR_WAIT_RETRACT_UNITS:
INCREMENT_MIN_MAX(current_extruder->waitRetractUnits,1,0,99);
break;
#endif
#ifdef USE_ADVANCE
#ifdef ENABLE_QUADRATIC_ADVANCE
case UI_ACTION_ADVANCE_K:
INCREMENT_MIN_MAX(current_extruder->advanceK,1,0,200);
break;
#endif
case UI_ACTION_ADVANCE_L:
INCREMENT_MIN_MAX(current_extruder->advanceL,1,0,600);
break;
#endif
}
#if UI_AUTORETURN_TO_MENU_AFTER!=0
ui_autoreturn_time=millis()+UI_AUTORETURN_TO_MENU_AFTER;
#endif
#endif
}
void UIDisplay::finishAction(int action) {
}
// Actions are events from user input. Depending on the current state, each
// action can behave differently. Other actions do always the same like home, disable extruder etc.
void UIDisplay::executeAction(int action) {
#if UI_HAS_KEYS==1
bool skipBeep = false;
if(action & UI_ACTION_TOPMENU) { // Go to start menu
action -= UI_ACTION_TOPMENU;
menuLevel = 0;
}
if(action>=2000 && action<3000)
{
setStatusP(ui_action);
}
else
switch(action) {
case UI_ACTION_OK:
okAction();
skipBeep=true; // Prevent double beep
break;
case UI_ACTION_BACK:
if(menuLevel>0) menuLevel--;
activeAction = 0;
break;
case UI_ACTION_NEXT:
nextPreviousAction(1);
break;
case UI_ACTION_PREVIOUS:
nextPreviousAction(-1);
break;
case UI_ACTION_MENU_UP:
if(menuLevel>0) menuLevel--;
break;
case UI_ACTION_TOP_MENU:
menuLevel = 0;
break;
case UI_ACTION_EMERGENCY_STOP:
emergencyStop();
break;
case UI_ACTION_HOME_ALL:
home_axis(true,true,true);
printPosition();
break;
case UI_ACTION_HOME_X:
home_axis(true,false,false);
printPosition();
break;
case UI_ACTION_HOME_Y:
home_axis(false,true,false);
printPosition();
break;
case UI_ACTION_HOME_Z:
home_axis(false,false,true);
printPosition();
break;
case UI_ACTION_SET_ORIGIN:
printer_state.currentPositionSteps[0] = -printer_state.offsetX;
printer_state.currentPositionSteps[1] = -printer_state.offsetY;
printer_state.currentPositionSteps[2] = 0;
break;
case UI_ACTION_DEBUG_ECHO:
if(DEBUG_ECHO) debug_level-=1;else debug_level+=1;
break;
case UI_ACTION_DEBUG_INFO:
if(DEBUG_INFO) debug_level-=2;else debug_level+=2;
break;
case UI_ACTION_DEBUG_ERROR:
if(DEBUG_ERRORS) debug_level-=4;else debug_level+=4;
break;
case UI_ACTION_DEBUG_DRYRUN:
if(DEBUG_DRYRUN) debug_level-=8;else debug_level+=8;
if(DEBUG_DRYRUN) { // simulate movements without printing
extruder_set_temperature(0,0);
#if NUM_EXTRUDER>1
extruder_set_temperature(0,1);
#endif
#if HAVE_HEATED_BED==true
heated_bed_set_temperature(0);
#endif
}
break;
case UI_ACTION_POWER:
break;
case UI_ACTION_PREHEAT_PLA:
UI_STATUS(UI_TEXT_PREHEAT_PLA);
extruder_set_temperature(UI_SET_PRESET_EXTRUDER_TEMP_PLA,0);
#if NUM_EXTRUDER>1
extruder_set_temperature(UI_SET_PRESET_EXTRUDER_TEMP_PLA,1);
#endif
#if HAVE_HEATED_BED==true
heated_bed_set_temperature(UI_SET_PRESET_HEATED_BED_TEMP_PLA);
#endif
break;
case UI_ACTION_PREHEAT_ABS:
UI_STATUS(UI_TEXT_PREHEAT_ABS);
extruder_set_temperature(UI_SET_PRESET_EXTRUDER_TEMP_ABS,0);
#if NUM_EXTRUDER>1
extruder_set_temperature(UI_SET_PRESET_EXTRUDER_TEMP_ABS,1);
#endif
#if HAVE_HEATED_BED==true
heated_bed_set_temperature(UI_SET_PRESET_HEATED_BED_TEMP_ABS);
#endif
break;
case UI_ACTION_COOLDOWN:
UI_STATUS(UI_TEXT_COOLDOWN);
extruder_set_temperature(0,0);
#if NUM_EXTRUDER>1
extruder_set_temperature(0,1);
#endif
#if HAVE_HEATED_BED==true
heated_bed_set_temperature(0);
#endif
break;
case UI_ACTION_HEATED_BED_OFF:
#if HAVE_HEATED_BED==true
heated_bed_set_temperature(0);
#endif
break;
case UI_ACTION_EXTRUDER0_OFF:
extruder_set_temperature(0,0);
break;
case UI_ACTION_EXTRUDER1_OFF:
#if NUM_EXTRUDER>1
extruder_set_temperature(0,1);
#endif
break;
#if USE_OPS==1
case UI_ACTION_OPS_OFF:
printer_state.opsMode=0;
break;
case UI_ACTION_OPS_CLASSIC:
printer_state.opsMode=1;
break;
case UI_ACTION_OPS_FAST:
printer_state.opsMode=2;
break;
#endif
case UI_ACTION_DISABLE_STEPPER:
kill(true);
break;
case UI_ACTION_RESET_EXTRUDER:
printer_state.currentPositionSteps[3] = 0;
break;
case UI_ACTION_EXTRUDER_RELATIVE:
relative_mode_e=!relative_mode_e;
break;
case UI_ACTION_SELECT_EXTRUDER0:
extruder_select(0);
break;
case UI_ACTION_SELECT_EXTRUDER1:
#if NUM_EXTRUDER>1
extruder_select(1);
#endif
break;
#if EEPROM_MODE!=0
case UI_ACTION_STORE_EEPROM:
epr_data_to_eeprom(false);
pushMenu((void*)&ui_menu_eeprom_saved,false);
BEEP_LONG;skipBeep = true;
break;
case UI_ACTION_LOAD_EEPROM:
epr_eeprom_to_data();
pushMenu((void*)&ui_menu_eeprom_loaded,false);
BEEP_LONG;skipBeep = true;
break;
#endif
#if SDSUPPORT
case UI_ACTION_SD_DELETE:
if(sd.sdactive){
pushMenu((void*)&ui_menu_sd_fileselector,false);
} else {
UI_ERROR(UI_TEXT_NOSDCARD);
}
break;
case UI_ACTION_SD_PRINT:
if(sd.sdactive){
pushMenu((void*)&ui_menu_sd_fileselector,false);
}
break;
case UI_ACTION_SD_PAUSE:
if(sd.sdmode){
sd.sdmode = false;
}
break;
case UI_ACTION_SD_CONTINUE:
if(sd.sdactive){
sd.sdmode = true;
}
break;
case UI_ACTION_SD_UNMOUNT:
sd.sdmode = false;
sd.sdactive = false;
break;
case UI_ACTION_SD_MOUNT:
sd.sdmode = false;
sd.initsd();
break;
case UI_ACTION_MENU_SDCARD:
pushMenu((void*)&ui_menu_sd,false);
break;
#endif
#if FAN_PIN>-1
case UI_ACTION_FAN_OFF:
set_fan_speed(0,false);
OUT_P_LN("Fanspeed:0");
break;
case UI_ACTION_FAN_25:
set_fan_speed(64,false);
OUT_P_LN("Fanspeed:64");
break;
case UI_ACTION_FAN_50:
set_fan_speed(128,false);
OUT_P_LN("Fanspeed:128");
break;
case UI_ACTION_FAN_75:
set_fan_speed(192,false);
OUT_P_LN("Fanspeed:192");
break;
case UI_ACTION_FAN_FULL:
set_fan_speed(255,false);
OUT_P_LN("Fanspeed:255");
break;
#endif
case UI_ACTION_MENU_XPOS:
pushMenu((void*)&ui_menu_xpos,false);
break;
case UI_ACTION_MENU_YPOS:
pushMenu((void*)&ui_menu_ypos,false);
break;
case UI_ACTION_MENU_ZPOS:
pushMenu((void*)&ui_menu_zpos,false);
break;
case UI_ACTION_MENU_XPOSFAST:
pushMenu((void*)&ui_menu_xpos_fast,false);
break;
case UI_ACTION_MENU_YPOSFAST:
pushMenu((void*)&ui_menu_ypos_fast,false);
break;
case UI_ACTION_MENU_ZPOSFAST:
pushMenu((void*)&ui_menu_zpos_fast,false);
break;
case UI_ACTION_MENU_QUICKSETTINGS:
pushMenu((void*)&ui_menu_quick,false);
break;
case UI_ACTION_MENU_EXTRUDER:
pushMenu((void*)&ui_menu_extruder,false);
break;
case UI_ACTION_MENU_POSITIONS:
pushMenu((void*)&ui_menu_positions,false);
break;
#ifdef UI_USERMENU1
case UI_ACTION_SHOW_USERMENU1:
pushMenu((void*)&UI_USERMENU1,false);
break;
#endif
#ifdef UI_USERMENU2
case UI_ACTION_SHOW_USERMENU2:
pushMenu((void*)&UI_USERMENU2,false);
break;
#endif
#ifdef UI_USERMENU3
case UI_ACTION_SHOW_USERMENU3:
pushMenu((void*)&UI_USERMENU3,false);
break;
#endif
#ifdef UI_USERMENU4
case UI_ACTION_SHOW_USERMENU4:
pushMenu((void*)&UI_USERMENU4,false);
break;
#endif
#ifdef UI_USERMENU5
case UI_ACTION_SHOW_USERMENU5:
pushMenu((void*)&UI_USERMENU5,false);
break;
#endif
#ifdef UI_USERMENU6
case UI_ACTION_SHOW_USERMENU6:
pushMenu((void*)&UI_USERMENU6,false);
break;
#endif
#ifdef UI_USERMENU7
case UI_ACTION_SHOW_USERMENU7:
pushMenu((void*)&UI_USERMENU7,false);
break;
#endif
#ifdef UI_USERMENU8
case UI_ACTION_SHOW_USERMENU8:
pushMenu((void*)&UI_USERMENU8,false);
break;
#endif
#ifdef UI_USERMENU9
case UI_ACTION_SHOW_USERMENU9:
pushMenu((void*)&UI_USERMENU9,false);
break;
#endif
#ifdef UI_USERMENU10
case UI_ACTION_SHOW_USERMENU10:
pushMenu((void*)&UI_USERMENU10,false);
break;
#endif
case UI_ACTION_X_UP:
move_steps(axis_steps_per_unit[0],0,0,0,homing_feedrate[0],false,true);
break;
case UI_ACTION_X_DOWN:
move_steps(-axis_steps_per_unit[0],0,0,0,homing_feedrate[0],false,true);
break;
case UI_ACTION_Y_UP:
move_steps(0,axis_steps_per_unit[1],0,0,homing_feedrate[1],false,true);
break;
case UI_ACTION_Y_DOWN:
move_steps(0,-axis_steps_per_unit[1],0,0,homing_feedrate[1],false,true);
break;
case UI_ACTION_Z_UP:
move_steps(0,0,axis_steps_per_unit[2],0,homing_feedrate[2],false,true);
break;
case UI_ACTION_Z_DOWN:
move_steps(0,0,-axis_steps_per_unit[2],0,homing_feedrate[2],false,true);
break;
case UI_ACTION_EXTRUDER_UP:
move_steps(0,0,0,axis_steps_per_unit[3],UI_SET_EXTRUDER_FEEDRATE,false,true);
break;
case UI_ACTION_EXTRUDER_DOWN:
move_steps(0,0,0,-axis_steps_per_unit[3],UI_SET_EXTRUDER_FEEDRATE,false,true);
break;
case UI_ACTION_EXTRUDER_TEMP_UP: {
int tmp = (int)(current_extruder->tempControl.targetTemperatureC)+1;
if(tmp==1) tmp = UI_SET_MIN_EXTRUDER_TEMP;
else if(tmp>UI_SET_MAX_EXTRUDER_TEMP) tmp = UI_SET_MAX_EXTRUDER_TEMP;
extruder_set_temperature(tmp,current_extruder->id);
}
break;
case UI_ACTION_EXTRUDER_TEMP_DOWN: {
int tmp = (int)(current_extruder->tempControl.targetTemperatureC)-1;
if(tmp<UI_SET_MIN_EXTRUDER_TEMP) tmp = 0;
extruder_set_temperature(tmp,current_extruder->id);
}
break;
case UI_ACTION_HEATED_BED_UP:
#if HAVE_HEATED_BED==true
{
int tmp = (int)heatedBedController.targetTemperatureC+1;
if(tmp==1) tmp = UI_SET_MIN_HEATED_BED_TEMP;
else if(tmp>UI_SET_MAX_HEATED_BED_TEMP) tmp = UI_SET_MAX_HEATED_BED_TEMP;
heated_bed_set_temperature(tmp);
}
#endif
break;
case UI_ACTION_SHOW_MEASUREMENT:
#ifdef STEP_COUNTER
{
out.print_float_P(PSTR("Measure/delta ="),printer_state.countZSteps * inv_axis_steps_per_unit[2]);
}
#endif
break;
case UI_ACTION_RESET_MEASUREMENT:
#ifdef STEP_COUNTER
{
printer_state.countZSteps = 0;
out.println_P(PSTR("Measurement reset."));
}
#endif
break;
case UI_ACTION_SET_MEASURED_ORIGIN:
#ifdef STEP_COUNTER
{
if (printer_state.countZSteps < 0)
printer_state.countZSteps = -printer_state.countZSteps;
printer_state.zLength = inv_axis_steps_per_unit[2] * printer_state.countZSteps;
printer_state.zMaxSteps = printer_state.countZSteps;
for (byte i=0; i<3; i++) {
printer_state.currentPositionSteps[i] = 0;
}
calculate_delta(printer_state.currentPositionSteps, printer_state.currentDeltaPositionSteps);
out.println_P(PSTR("Measured origin set. Measurement reset."));
#if EEPROM_MODE!=0
epr_data_to_eeprom(false);
out.println_P(PSTR("EEPROM updated"));
#endif
}
#endif
case UI_ACTION_SET_P1:
#ifdef SOFTWARE_LEVELING
for (byte i=0; i<3; i++) {
printer_state.levelingP1[i] = printer_state.currentPositionSteps[i];
}
#endif
break;
case UI_ACTION_SET_P2:
#ifdef SOFTWARE_LEVELING
for (byte i=0; i<3; i++) {
printer_state.levelingP2[i] = printer_state.currentPositionSteps[i];
}
#endif
break;
case UI_ACTION_SET_P3:
#ifdef SOFTWARE_LEVELING
for (byte i=0; i<3; i++) {
printer_state.levelingP3[i] = printer_state.currentPositionSteps[i];
}
#endif
break;
case UI_ACTION_CALC_LEVEL:
#ifdef SOFTWARE_LEVELING
long factors[4];
calculate_plane(factors, printer_state.levelingP1, printer_state.levelingP2, printer_state.levelingP3);
out.println_P(PSTR("Leveling calc:"));
out.println_float_P(PSTR("Tower 1:"), calc_zoffset(factors, DELTA_TOWER1_X_STEPS, DELTA_TOWER1_Y_STEPS) * inv_axis_steps_per_unit[0]);
out.println_float_P(PSTR("Tower 2:"), calc_zoffset(factors, DELTA_TOWER2_X_STEPS, DELTA_TOWER2_Y_STEPS) * inv_axis_steps_per_unit[1]);
out.println_float_P(PSTR("Tower 3:"), calc_zoffset(factors, DELTA_TOWER3_X_STEPS, DELTA_TOWER3_Y_STEPS) * inv_axis_steps_per_unit[2]);
#endif
break;
case UI_ACTION_HEATED_BED_DOWN:
#if HAVE_HEATED_BED==true
{
int tmp = (int)heatedBedController.targetTemperatureC-1;
if(tmp<UI_SET_MIN_HEATED_BED_TEMP) tmp = 0;
heated_bed_set_temperature(tmp);
}
#endif
break;
case UI_ACTION_FAN_UP:
set_fan_speed(pwm_pos[3]+32,false);
OUT_P_I_LN("Fanspeed:",(int)pwm_pos[3]);
break;
case UI_ACTION_FAN_DOWN:
set_fan_speed(pwm_pos[3]-32,false);
OUT_P_I_LN("Fanspeed:",(int)pwm_pos[3]);
break;
case UI_ACTION_KILL:
cli(); // Don't allow interrupts to do their work
kill(false);
manage_temperatures();
pwm_pos[0] = pwm_pos[1] = pwm_pos[2] = pwm_pos[3]=0;
#if EXT0_HEATER_PIN>-1
WRITE(EXT0_HEATER_PIN,0);
#endif
#if defined(EXT1_HEATER_PIN) && EXT1_HEATER_PIN>-1
WRITE(EXT1_HEATER_PIN,0);
#endif
#if defined(EXT2_HEATER_PIN) && EXT2_HEATER_PIN>-1
WRITE(EXT2_HEATER_PIN,0);
#endif
#if FAN_PIN>-1
WRITE(FAN_PIN,0);
#endif
resetFunc();
while(1) {}
break;
case UI_ACTION_RESET:
resetFunc();
break;
case UI_ACTION_PAUSE:
OUT_P_LN("RequestPause:");
break;
}
refreshPage();
if(!skipBeep)
BEEP_SHORT
#if UI_AUTORETURN_TO_MENU_AFTER!=0
ui_autoreturn_time=millis()+UI_AUTORETURN_TO_MENU_AFTER;
#endif
#endif
}
void UIDisplay::mediumAction() {
#if UI_HAS_I2C_ENCODER>0
ui_check_slow_encoder();
#endif
}
void UIDisplay::slowAction() {
unsigned long time = millis();
byte refresh=0;
#if UI_HAS_KEYS==1
// Update key buffer
cli();
if((flags & 9)==0) {
flags|=8;
sei();
int nextAction = 0;
ui_check_slow_keys(nextAction);
if(lastButtonAction!=nextAction) {
lastButtonStart = time;
lastButtonAction = nextAction;
cli();
flags|=2; // Mark slow action
}
cli();
flags-=8;
}
cli();
if((flags & 4)==0) {
flags |= 4;
// Reset click encoder
cli();
char epos = encoderPos;
encoderPos=0;
sei();
if(epos) {
nextPreviousAction(epos);
BEEP_SHORT
refresh=1;
}
if(lastAction!=lastButtonAction) {
if(lastButtonAction==0) {
if(lastAction>=2000 && lastAction<3000)
{
statusMsg[0] = 0;
}
lastAction = 0;
cli();
flags &= ~3;
} else if(time-lastButtonStart>UI_KEY_BOUNCETIME) { // New key pressed
lastAction = lastButtonAction;
executeAction(lastAction);
nextRepeat = time+UI_KEY_FIRST_REPEAT;
repeatDuration = UI_KEY_FIRST_REPEAT;
}
} else if(lastAction<1000 && lastAction) { // Repeatable key
if(time-nextRepeat<10000) {
executeAction(lastAction);
repeatDuration -=UI_KEY_REDUCE_REPEAT;
if(repeatDuration<UI_KEY_MIN_REPEAT) repeatDuration = UI_KEY_MIN_REPEAT;
nextRepeat = time+repeatDuration;
}
}
cli();
flags -=4;
}
sei();
#endif
#if UI_AUTORETURN_TO_MENU_AFTER!=0
if(menuLevel>0 && ui_autoreturn_time<time) {
lastSwitch = time;
menuLevel=0;
activeAction = 0;
}
#endif
if(menuLevel==0 && time>4000) {
if(time-lastSwitch>UI_PAGES_DURATION) {
lastSwitch = time;
#if !defined(UI_DISABLE_AUTO_PAGESWITCH) || !UI_DISABLE_AUTO_PAGESWITCH
menuPos[0]++;
if(menuPos[0]>=UI_NUM_PAGES)
menuPos[0]=0;
#endif
refresh = 1;
} else if(time-lastRefresh>=1000) refresh=1;
} else if(time-lastRefresh>=1000) {
UIMenu *men = (UIMenu*)menu[menuLevel];
byte mtype = pgm_read_byte((void*)&(men->menuType));
if(mtype!=1)
refresh=1;
}
if(refresh) {
refreshPage();
lastRefresh = time;
}
}
void UIDisplay::fastAction() {
#if UI_HAS_KEYS==1
// Check keys
cli();
if((flags & 10)==0) {
flags |= 8;
sei();
int nextAction = 0;
ui_check_keys(nextAction);
if(lastButtonAction!=nextAction) {
lastButtonStart = millis();
lastButtonAction = nextAction;
cli();
flags|=1;
}
cli();
flags-=8;
}
sei();
#endif
}
#endif