Skip to content

M
MarlinKimbra
Commit 046d5eff authored by MagoKimbra's avatar MagoKimbra
Browse files
Options

Update more function

parent 72c7bdc1
Hide whitespace changes
Inline Side-by-side
Showing with 1495 additions and 1784 deletions
MarlinKimbra/Configuration.h
View file @ 046d5eff
......@@ -75,6 +75,11 @@
// This is used for single nozzle and multiple extrusion configuration
// Uncomment below to enable (One Hotend)
//#define SINGLENOZZLE
#ifdef SINGLENOZZLE
#define HOTENDS 1
#else
#define HOTENDS EXTRUDERS
#endif
/***********************************************************************
*********************** Multiextruder MKR4 ***************************
......@@ -646,6 +651,7 @@ your extruder heater takes 2 minutes to hit the target on heating.
//When using an LCD, uncomment the line below to display the Filament sensor data on the last line instead of status. Status will appear for 5 sec.
//#define FILAMENT_LCD_DISPLAY
/**********************************************************************\
* Support for a current sensor (Hall effect sensor like ACS712) for measure the power consumption
* Since it's more simple to deal with, we measure the DC current and we assume that POWER_VOLTAGE that comes from your power supply it's almost stable.
......@@ -653,7 +659,7 @@ your extruder heater takes 2 minutes to hit the target on heating.
* With this module we measure the Printer power consumption ignoring the Power Supply power consumption, so we consider the EFFICIENCY of our supply to be 100% so without
* any power dispersion. If you want to approximately add the supply consumption you can decrease the EFFICIENCY to a value less than 100. Eg: 85 is a good value.
* You can find a better value measuring the AC current with a good multimeter and moltiple it with the mains voltage.
* MULTIMETER_WATT := MULTIMETER_CURRENT*MAINS_VOLTAGE
* MULTIMETER_WATT := MULTIMETER_CURRENT * MAINS_VOLTAGE
* Now you have a Wattage value that you can compare with the one measured from ACS712.
* NEW_EFFICENCY := (SENSOR_WATT*EFFICIENCY)/MULTIMETER_WATT
* For now this feature is to be consider BETA as i'll have to do some accurate test to see the affidability
......@@ -661,13 +667,14 @@ your extruder heater takes 2 minutes to hit the target on heating.
// Uncomment below to enable
//#define POWER_CONSUMPTION
#define POWER_VOLTAGE 12.00 //(V) The power supply OUT voltage
#define POWER_ZERO 2.5 //(V) The /\V coming out from the sensor when no current flow.
#define POWER_SENSITIVITY 0.066 //(V/A) How much increase V for 1A of increase
#define POWER_EFFICIENCY 100.0 //(%) The power efficency of the power supply
#define POWER_VOLTAGE 12.00 //(V) The power supply OUT voltage
#define POWER_ZERO 2.5 //(V) The /\V coming out from the sensor when no current flow.
#define POWER_SENSITIVITY 0.066 //(V/A) How much increase V for 1A of increase
#define POWER_EFFICIENCY 100.0 //(%) The power efficency of the power supply
//When using an LCD, uncomment the line below to display the Power consumption sensor data on the last line instead of status. Status will appear for 5 sec.
//#define POWER_CONSUMPTION_LCD_DISPLAY
//=================================== Misc =================================
// Temperature status LEDs that display the hotend and bet temperature.
......
MarlinKimbra/ConfigurationStore.cpp
View file @ 046d5eff
......@@ -63,10 +63,10 @@ void Config_StoreSettings() {
EEPROM_WRITE_VAR(i, max_xy_jerk);
EEPROM_WRITE_VAR(i, max_z_jerk);
EEPROM_WRITE_VAR(i, max_e_jerk);
EEPROM_WRITE_VAR(i, add_homing);
EEPROM_WRITE_VAR(i, home_offset);
EEPROM_WRITE_VAR(i, zprobe_zoffset);
#if EXTRUDERS > 1 && !defined SINGLENOZZLE
#if HOTENDS > 1
EEPROM_WRITE_VAR(i, hotend_offset);
#endif
......@@ -150,39 +150,39 @@ void Config_RetrieveSettings()
if (strncmp(ver,stored_ver,3) == 0)
{
// version number match
EEPROM_READ_VAR(i,baudrate);
EEPROM_READ_VAR(i, baudrate);
if(baudrate!=9600 && baudrate!=14400 && baudrate!=19200 && baudrate!=28800 && baudrate!=38400 && baudrate!=56000 && baudrate!=115200 && baudrate!=250000) baudrate=BAUDRATE;
EEPROM_READ_VAR(i,axis_steps_per_unit);
EEPROM_READ_VAR(i,max_feedrate);
EEPROM_READ_VAR(i,max_retraction_feedrate);
EEPROM_READ_VAR(i,max_acceleration_units_per_sq_second);
EEPROM_READ_VAR(i, axis_steps_per_unit);
EEPROM_READ_VAR(i, max_feedrate);
EEPROM_READ_VAR(i, max_retraction_feedrate);
EEPROM_READ_VAR(i, max_acceleration_units_per_sq_second);
// steps per sq second need to be updated to agree with the units per sq second (as they are what is used in the planner)
reset_acceleration_rates();
EEPROM_READ_VAR(i,acceleration);
EEPROM_READ_VAR(i,retract_acceleration);
EEPROM_READ_VAR(i, acceleration);
EEPROM_READ_VAR(i, retract_acceleration);
EEPROM_READ_VAR(i, travel_acceleration);
EEPROM_READ_VAR(i,minimumfeedrate);
EEPROM_READ_VAR(i,mintravelfeedrate);
EEPROM_READ_VAR(i,minsegmenttime);
EEPROM_READ_VAR(i,max_xy_jerk);
EEPROM_READ_VAR(i,max_z_jerk);
EEPROM_READ_VAR(i,max_e_jerk);
EEPROM_READ_VAR(i,add_homing);
EEPROM_READ_VAR(i,zprobe_zoffset);
#if EXTRUDERS > 1 && !defined SINGLENOZZLE
EEPROM_READ_VAR(i, minimumfeedrate);
EEPROM_READ_VAR(i, mintravelfeedrate);
EEPROM_READ_VAR(i, minsegmenttime);
EEPROM_READ_VAR(i, max_xy_jerk);
EEPROM_READ_VAR(i, max_z_jerk);
EEPROM_READ_VAR(i, max_e_jerk);
EEPROM_READ_VAR(i, home_offset);
EEPROM_READ_VAR(i, zprobe_zoffset);
#if HOTENDS > 1
EEPROM_READ_VAR(i, hotend_offset);
#endif
#ifdef DELTA
EEPROM_READ_VAR(i,endstop_adj);
EEPROM_READ_VAR(i,delta_radius);
EEPROM_READ_VAR(i,delta_diagonal_rod);
EEPROM_READ_VAR(i,max_pos);
EEPROM_READ_VAR(i,tower_adj);
EEPROM_READ_VAR(i,z_probe_offset);
EEPROM_READ_VAR(i, endstop_adj);
EEPROM_READ_VAR(i, delta_radius);
EEPROM_READ_VAR(i, delta_diagonal_rod);
EEPROM_READ_VAR(i, max_pos);
EEPROM_READ_VAR(i, tower_adj);
EEPROM_READ_VAR(i, z_probe_offset);
// Update delta constants for updated delta_radius & tower_adj values
set_delta_constants();
#endif //DELTA
......@@ -193,46 +193,46 @@ void Config_RetrieveSettings()
int gumPreheatHotendTemp, gumPreheatHPBTemp, gumPreheatFanSpeed;
#endif
EEPROM_READ_VAR(i,plaPreheatHotendTemp);
EEPROM_READ_VAR(i,plaPreheatHPBTemp);
EEPROM_READ_VAR(i,plaPreheatFanSpeed);
EEPROM_READ_VAR(i,absPreheatHotendTemp);
EEPROM_READ_VAR(i,absPreheatHPBTemp);
EEPROM_READ_VAR(i,absPreheatFanSpeed);
EEPROM_READ_VAR(i,gumPreheatHotendTemp);
EEPROM_READ_VAR(i,gumPreheatHPBTemp);
EEPROM_READ_VAR(i,gumPreheatFanSpeed);
EEPROM_READ_VAR(i, plaPreheatHotendTemp);
EEPROM_READ_VAR(i, plaPreheatHPBTemp);
EEPROM_READ_VAR(i, plaPreheatFanSpeed);
EEPROM_READ_VAR(i, absPreheatHotendTemp);
EEPROM_READ_VAR(i, absPreheatHPBTemp);
EEPROM_READ_VAR(i, absPreheatFanSpeed);
EEPROM_READ_VAR(i, gumPreheatHotendTemp);
EEPROM_READ_VAR(i, gumPreheatHPBTemp);
EEPROM_READ_VAR(i, gumPreheatFanSpeed);
#ifdef PIDTEMP
// do not need to scale PID values as the values in EEPROM are already scaled
EEPROM_READ_VAR(i,Kp);
EEPROM_READ_VAR(i,Ki);
EEPROM_READ_VAR(i,Kd);
EEPROM_READ_VAR(i, Kp);
EEPROM_READ_VAR(i, Ki);
EEPROM_READ_VAR(i, Kd);
#endif // PIDTEMP
#if !defined(DOGLCD) || LCD_CONTRAST < 0
int lcd_contrast;
#endif //DOGLCD
EEPROM_READ_VAR(i,lcd_contrast);
EEPROM_READ_VAR(i, lcd_contrast);
#ifdef SCARA
EEPROM_READ_VAR(i,axis_scaling);
EEPROM_READ_VAR(i, axis_scaling);
#endif //SCARA
#ifdef FWRETRACT
EEPROM_READ_VAR(i,autoretract_enabled);
EEPROM_READ_VAR(i,retract_length);
EEPROM_READ_VAR(i, autoretract_enabled);
EEPROM_READ_VAR(i, retract_length);
#if EXTRUDERS > 1
EEPROM_READ_VAR(i,retract_length_swap);
EEPROM_READ_VAR(i, retract_length_swap);
#endif //EXTRUDERS > 1
EEPROM_READ_VAR(i,retract_feedrate);
EEPROM_READ_VAR(i,retract_zlift);
EEPROM_READ_VAR(i,retract_recover_length);
EEPROM_READ_VAR(i, retract_feedrate);
EEPROM_READ_VAR(i, retract_zlift);
EEPROM_READ_VAR(i, retract_recover_length);
#if EXTRUDERS > 1
EEPROM_READ_VAR(i,retract_recover_length_swap);
EEPROM_READ_VAR(i, retract_recover_length_swap);
#endif //EXTRUDERS > 1
EEPROM_READ_VAR(i,retract_recover_feedrate);
EEPROM_READ_VAR(i, retract_recover_feedrate);
#endif //FWRETRACT
EEPROM_READ_VAR(i, volumetric_enabled);
......@@ -294,7 +294,7 @@ void Config_ResetDefault()
for (int i = 0; i < EXTRUDERS; i++) {
max_retraction_feedrate[i] = tmp3[i];
#if EXTRUDERS > 1 && !defined SINGLENOZZLE
#if HOTENDS > 1
hotend_offset[X_AXIS][i] = tmp8[i];
hotend_offset[Y_AXIS][i] = tmp9[i];
#endif
......@@ -316,7 +316,7 @@ void Config_ResetDefault()
max_xy_jerk = DEFAULT_XYJERK;
max_z_jerk = DEFAULT_ZJERK;
max_e_jerk = DEFAULT_EJERK;
add_homing[X_AXIS] = add_homing[Y_AXIS] = add_homing[Z_AXIS] = 0;
home_offset[X_AXIS] = home_offset[Y_AXIS] = home_offset[Z_AXIS] = 0;
#ifdef ENABLE_AUTO_BED_LEVELING
zprobe_zoffset = -Z_PROBE_OFFSET_FROM_EXTRUDER;
......@@ -351,11 +351,7 @@ void Config_ResetDefault()
#endif //DOGLCD
#ifdef PIDTEMP
#ifndef SINGLENOZZLE
for (int e = 0; e < EXTRUDERS; e++)
#else
int e = 0; // only need to write once
#endif //SINGLENOZZLE
for (int e = 0; e < HOTENDS; e++)
{
Kp[e] = tmp5[e];
Ki[e] = scalePID_i(tmp6[e]);
......@@ -405,16 +401,16 @@ void Config_PrintSettings()
SERIAL_EOL;
SERIAL_ECHOLNPGM("Steps per unit:");
SERIAL_ECHO_START;
SERIAL_ECHOPAIR(" M92 X",axis_steps_per_unit[X_AXIS]);
SERIAL_ECHOPAIR(" Y",axis_steps_per_unit[Y_AXIS]);
SERIAL_ECHOPAIR(" Z",axis_steps_per_unit[Z_AXIS]);
SERIAL_ECHOPAIR(" E0 S",axis_steps_per_unit[E_AXIS + 0]);
SERIAL_ECHOPAIR(" M92 X", axis_steps_per_unit[X_AXIS]);
SERIAL_ECHOPAIR(" Y", axis_steps_per_unit[Y_AXIS]);
SERIAL_ECHOPAIR(" Z", axis_steps_per_unit[Z_AXIS]);
SERIAL_ECHOPAIR(" E0 S", axis_steps_per_unit[E_AXIS + 0]);
#if EXTRUDERS > 1
SERIAL_ECHOPAIR(" E1 S",axis_steps_per_unit[E_AXIS + 1]);
SERIAL_ECHOPAIR(" E1 S", axis_steps_per_unit[E_AXIS + 1]);
#if EXTRUDERS > 2
SERIAL_ECHOPAIR(" E2 S",axis_steps_per_unit[E_AXIS + 2]);
SERIAL_ECHOPAIR(" E2 S", axis_steps_per_unit[E_AXIS + 2]);
#if EXTRUDERS > 3
SERIAL_ECHOPAIR(" E3 S",axis_steps_per_unit[E_AXIS + 3]);
SERIAL_ECHOPAIR(" E3 S", axis_steps_per_unit[E_AXIS + 3]);
#endif //EXTRUDERS > 3
#endif //EXTRUDERS > 2
#endif //EXTRUDERS > 1
......@@ -424,17 +420,17 @@ void Config_PrintSettings()
#ifdef SCARA
SERIAL_ECHOLNPGM("Scaling factors:");
SERIAL_ECHO_START;
SERIAL_ECHOPAIR(" M365 X",axis_scaling[X_AXIS]);
SERIAL_ECHOPAIR(" Y",axis_scaling[Y_AXIS]);
SERIAL_ECHOPAIR(" Z",axis_scaling[Z_AXIS]);
SERIAL_ECHOPAIR(" M365 X", axis_scaling[X_AXIS]);
SERIAL_ECHOPAIR(" Y", axis_scaling[Y_AXIS]);
SERIAL_ECHOPAIR(" Z", axis_scaling[Z_AXIS]);
SERIAL_EOL;
SERIAL_ECHO_START;
#endif
SERIAL_ECHOLNPGM("Maximum feedrates (mm/s):");
SERIAL_ECHO_START;
SERIAL_ECHOPAIR(" M203 X",max_feedrate[X_AXIS]);
SERIAL_ECHOPAIR(" Y",max_feedrate[Y_AXIS] );
SERIAL_ECHOPAIR(" M203 X", max_feedrate[X_AXIS]);
SERIAL_ECHOPAIR(" Y", max_feedrate[Y_AXIS] );
SERIAL_ECHOPAIR(" Z", max_feedrate[Z_AXIS] );
SERIAL_ECHOPAIR(" E0 S", max_feedrate[E_AXIS + 0]);
#if EXTRUDERS > 1
......@@ -452,11 +448,11 @@ void Config_PrintSettings()
SERIAL_ECHO_START;
SERIAL_ECHOPAIR(" E0 ",max_retraction_feedrate[0]);
#if EXTRUDERS > 1
SERIAL_ECHOPAIR(" E1 ",max_retraction_feedrate[1]);
SERIAL_ECHOPAIR(" E1 ", max_retraction_feedrate[1]);
#if EXTRUDERS > 2
SERIAL_ECHOPAIR(" E2 ",max_retraction_feedrate[2]);
SERIAL_ECHOPAIR(" E2 ", max_retraction_feedrate[2]);
#if EXTRUDERS > 3
SERIAL_ECHOPAIR(" E3 ",max_retraction_feedrate[3]);
SERIAL_ECHOPAIR(" E3 ", max_retraction_feedrate[3]);
#endif //EXTRUDERS > 3
#endif //EXTRUDERS > 2
#endif //EXTRUDERS > 1
......@@ -464,16 +460,16 @@ void Config_PrintSettings()
SERIAL_ECHO_START;
SERIAL_ECHOLNPGM("Maximum Acceleration (mm/s2):");
SERIAL_ECHO_START;
SERIAL_ECHOPAIR(" M201 X" ,max_acceleration_units_per_sq_second[X_AXIS] );
SERIAL_ECHOPAIR(" Y" , max_acceleration_units_per_sq_second[Y_AXIS] );
SERIAL_ECHOPAIR(" Z" ,max_acceleration_units_per_sq_second[Z_AXIS] );
SERIAL_ECHOPAIR(" E0 S" ,max_acceleration_units_per_sq_second[E_AXIS]);
SERIAL_ECHOPAIR(" M201 X", max_acceleration_units_per_sq_second[X_AXIS] );
SERIAL_ECHOPAIR(" Y", max_acceleration_units_per_sq_second[Y_AXIS] );
SERIAL_ECHOPAIR(" Z", max_acceleration_units_per_sq_second[Z_AXIS] );
SERIAL_ECHOPAIR(" E0 S", max_acceleration_units_per_sq_second[E_AXIS]);
#if EXTRUDERS > 1
SERIAL_ECHOPAIR(" E1 S" ,max_acceleration_units_per_sq_second[E_AXIS+1]);
SERIAL_ECHOPAIR(" E1 S", max_acceleration_units_per_sq_second[E_AXIS+1]);
#if EXTRUDERS > 2
SERIAL_ECHOPAIR(" E2 S" ,max_acceleration_units_per_sq_second[E_AXIS+2]);
SERIAL_ECHOPAIR(" E2 S", max_acceleration_units_per_sq_second[E_AXIS+2]);
#if EXTRUDERS > 3
SERIAL_ECHOPAIR(" E3 S" ,max_acceleration_units_per_sq_second[E_AXIS+3]);
SERIAL_ECHOPAIR(" E3 S", max_acceleration_units_per_sq_second[E_AXIS+3]);
#endif //EXTRUDERS > 3
#endif //EXTRUDERS > 2
#endif //EXTRUDERS > 1
......@@ -481,7 +477,7 @@ void Config_PrintSettings()
SERIAL_ECHO_START;
SERIAL_ECHOLNPGM("Accelerations: P=printing, R=retract and T=travel");
SERIAL_ECHO_START;
SERIAL_ECHOPAIR(" M204 P",acceleration );
SERIAL_ECHOPAIR(" M204 P", acceleration );
SERIAL_ECHOPAIR(" R", retract_acceleration);
SERIAL_ECHOPAIR(" T", travel_acceleration);
SERIAL_EOL;
......@@ -489,65 +485,65 @@ void Config_PrintSettings()
SERIAL_ECHO_START;
SERIAL_ECHOLNPGM("Advanced variables: S=Min feedrate (mm/s), T=Min travel feedrate (mm/s), B=minimum segment time (ms), X=maximum XY jerk (mm/s), Z=maximum Z jerk (mm/s), E=maximum E jerk (mm/s)");
SERIAL_ECHO_START;
SERIAL_ECHOPAIR(" M205 S",minimumfeedrate );
SERIAL_ECHOPAIR(" T" ,mintravelfeedrate );
SERIAL_ECHOPAIR(" B" ,minsegmenttime );
SERIAL_ECHOPAIR(" X" ,max_xy_jerk );
SERIAL_ECHOPAIR(" Z" ,max_z_jerk);
SERIAL_ECHOPAIR(" E" ,max_e_jerk);
SERIAL_EOL;
SERIAL_ECHOPAIR(" M205 S", minimumfeedrate );
SERIAL_ECHOPAIR(" T", mintravelfeedrate );
SERIAL_ECHOPAIR(" B", minsegmenttime );
SERIAL_ECHOPAIR(" X", max_xy_jerk );
SERIAL_ECHOPAIR(" Z", max_z_jerk);
SERIAL_ECHOPAIR(" E", max_e_jerk);
SERIAL_EOL;
SERIAL_ECHO_START;
SERIAL_ECHOLNPGM("Home offset (mm):");
SERIAL_ECHO_START;
SERIAL_ECHOPAIR(" M206 X",add_homing[X_AXIS] );
SERIAL_ECHOPAIR(" Y" ,add_homing[Y_AXIS] );
SERIAL_ECHOPAIR(" Z" ,add_homing[Z_AXIS] );
SERIAL_ECHOPAIR(" M206 X", home_offset[X_AXIS] );
SERIAL_ECHOPAIR(" Y", home_offset[Y_AXIS] );
SERIAL_ECHOPAIR(" Z", home_offset[Z_AXIS] );
SERIAL_EOL;
#if EXTRUDERS > 1 && !defined SINGLENOZZLE
#if HOTENDS > 1
SERIAL_ECHO_START;
SERIAL_ECHOLNPGM("Hotend offset (mm):");
for (int e = 0; e < EXTRUDERS; e++) {
for (int e = 0; e < HOTENDS; e++) {
SERIAL_ECHO_START;
SERIAL_ECHOPAIR(" M218 T", (long unsigned int)e);
SERIAL_ECHOPAIR(" X", hotend_offset[X_AXIS][e]);
SERIAL_ECHOPAIR(" Y" ,hotend_offset[Y_AXIS][e]);
SERIAL_EOL;
}
#endif //EXTRUDERS > 1 && !defined SINGLENOZZLE
#endif //HOTENDS > 1
#ifdef DELTA
SERIAL_ECHO_START;
SERIAL_ECHOLNPGM("Endstop adjustment (mm):");
SERIAL_ECHO_START;
SERIAL_ECHOPAIR(" M666 X",endstop_adj[0]);
SERIAL_ECHOPAIR(" Y" ,endstop_adj[1]);
SERIAL_ECHOPAIR(" Z" ,endstop_adj[2]);
SERIAL_ECHOPAIR(" M666 X", endstop_adj[0]);
SERIAL_ECHOPAIR(" Y", endstop_adj[1]);
SERIAL_ECHOPAIR(" Z", endstop_adj[2]);
SERIAL_EOL;
SERIAL_ECHO_START;
SERIAL_ECHOLNPGM("Delta Geometry adjustment:");
SERIAL_ECHO_START;
SERIAL_ECHOPAIR(" M666 A",tower_adj[0]);
SERIAL_ECHOPAIR(" B" ,tower_adj[1]);
SERIAL_ECHOPAIR(" C" ,tower_adj[2]);
SERIAL_ECHOPAIR(" E" ,tower_adj[3]);
SERIAL_ECHOPAIR(" F" ,tower_adj[4]);
SERIAL_ECHOPAIR(" G" ,tower_adj[5]);
SERIAL_ECHOPAIR(" R" ,delta_radius);
SERIAL_ECHOPAIR(" D" ,delta_diagonal_rod);
SERIAL_ECHOPAIR(" H" ,max_pos[2]);
SERIAL_ECHOPAIR(" P" ,z_probe_offset[3]);
SERIAL_ECHOPAIR(" M666 A", tower_adj[0]);
SERIAL_ECHOPAIR(" B", tower_adj[1]);
SERIAL_ECHOPAIR(" C", tower_adj[2]);
SERIAL_ECHOPAIR(" E", tower_adj[3]);
SERIAL_ECHOPAIR(" F", tower_adj[4]);
SERIAL_ECHOPAIR(" G", tower_adj[5]);
SERIAL_ECHOPAIR(" R", delta_radius);
SERIAL_ECHOPAIR(" D", delta_diagonal_rod);
SERIAL_ECHOPAIR(" H", max_pos[2]);
SERIAL_ECHOPAIR(" P", z_probe_offset[3]);
SERIAL_EOL;
SERIAL_ECHOLN("Tower Positions");
SERIAL_ECHOPAIR("Tower1 X:",delta_tower1_x);
SERIAL_ECHOPAIR(" Y:",delta_tower1_y);
SERIAL_ECHOPAIR("Tower1 X:", delta_tower1_x);
SERIAL_ECHOPAIR(" Y:", delta_tower1_y);
SERIAL_EOL;
SERIAL_ECHOPAIR("Tower2 X:",delta_tower2_x);
SERIAL_ECHOPAIR(" Y:",delta_tower2_y);
SERIAL_ECHOPAIR("Tower2 X:", delta_tower2_x);
SERIAL_ECHOPAIR(" Y:", delta_tower2_y);
SERIAL_EOL;
SERIAL_ECHOPAIR("Tower3 X:",delta_tower3_x);
SERIAL_ECHOPAIR(" Y:",delta_tower3_y);
SERIAL_ECHOPAIR("Tower3 X:", delta_tower3_x);
SERIAL_ECHOPAIR(" Y:", delta_tower3_y);
SERIAL_EOL;
#endif // DELTA
......@@ -555,25 +551,21 @@ void Config_PrintSettings()
SERIAL_ECHO_START;
SERIAL_ECHOLNPGM("Z Probe offset (mm)");
SERIAL_ECHO_START;
SERIAL_ECHOPAIR(" M666 P",zprobe_zoffset);
SERIAL_ECHOPAIR(" M666 P", zprobe_zoffset);
SERIAL_EOL;
#endif // ENABLE_AUTO_BED_LEVELING
#ifdef PIDTEMP
SERIAL_ECHO_START;
SERIAL_ECHOLNPGM("PID settings:");
#ifndef SINGLENOZZLE
for (int e = 0; e < EXTRUDERS; e++)
#else
int e = 0;
#endif
for (int e = 0; e < HOTENDS; e++)
{
SERIAL_ECHO_START;
SERIAL_ECHOPAIR(" M301 E", (long unsigned int)e);
SERIAL_ECHOPAIR(" P", Kp[e]);
SERIAL_ECHOPAIR(" I" ,unscalePID_i(Ki[e]));
SERIAL_ECHOPAIR(" D" ,unscalePID_d(Kd[e]));
SERIAL_EOL;
SERIAL_ECHOPAIR(" I", unscalePID_i(Ki[e]));
SERIAL_ECHOPAIR(" D", unscalePID_d(Kd[e]));
SERIAL_EOL;
}
#endif // PIDTEMP
......@@ -581,15 +573,15 @@ void Config_PrintSettings()
SERIAL_ECHO_START;
SERIAL_ECHOLNPGM("Retract: S=Length (mm) F:Speed (mm/m) Z: ZLift (mm)");
SERIAL_ECHO_START;
SERIAL_ECHOPAIR(" M207 S",retract_length);
SERIAL_ECHOPAIR(" F" ,retract_feedrate*60);
SERIAL_ECHOPAIR(" Z" ,retract_zlift);
SERIAL_ECHOPAIR(" M207 S", retract_length);
SERIAL_ECHOPAIR(" F", retract_feedrate*60);
SERIAL_ECHOPAIR(" Z", retract_zlift);
SERIAL_EOL;
SERIAL_ECHO_START;
SERIAL_ECHOLNPGM("Recover: S=Extra length (mm) F:Speed (mm/m)");
SERIAL_ECHO_START;
SERIAL_ECHOPAIR(" M208 S",retract_recover_length);
SERIAL_ECHOPAIR(" F" ,retract_recover_feedrate*60);
SERIAL_ECHOPAIR(" M208 S", retract_recover_length);
SERIAL_ECHOPAIR(" F", retract_recover_feedrate*60);
SERIAL_EOL;
SERIAL_ECHO_START;
SERIAL_ECHOLNPGM("Auto-Retract: S=0 to disable, 1 to interpret extrude-only moves as retracts or recoveries");
......
MarlinKimbra/Configuration_Cartesian.h
View file @ 046d5eff
......@@ -126,11 +126,6 @@ const bool Z_MAX_ENDSTOP_INVERTING = false; // set to true to invert the log
#ifdef AUTO_BED_LEVELING_GRID
// Use one of these defines to specify the origin
// for a topographical map to be printed for your bed.
enum { OriginBackLeft, OriginFrontLeft, OriginBackRight, OriginFrontRight };
#define TOPO_ORIGIN OriginFrontLeft
#define MIN_PROBE_EDGE 10 // The probe square sides can be no smaller than this
// Set the number of grid points per dimension
......
MarlinKimbra/Configuration_Corexy.h
View file @ 046d5eff
......@@ -126,11 +126,6 @@ const bool Z_MAX_ENDSTOP_INVERTING = false; // set to true to invert the lo
#ifdef AUTO_BED_LEVELING_GRID
// Use one of these defines to specify the origin
// for a topographical map to be printed for your bed.
enum { OriginBackLeft, OriginFrontLeft, OriginBackRight, OriginFrontRight };
#define TOPO_ORIGIN OriginFrontLeft
#define MIN_PROBE_EDGE 10 // The probe square sides can be no smaller than this
// Set the number of grid points per dimension
......
MarlinKimbra/Configuration_Scara.h
View file @ 046d5eff
......@@ -150,11 +150,6 @@ const bool Z_MAX_ENDSTOP_INVERTING = true; // set to true to invert the log
#ifdef AUTO_BED_LEVELING_GRID
// Use one of these defines to specify the origin
// for a topographical map to be printed for your bed.
enum { OriginBackLeft, OriginFrontLeft, OriginBackRight, OriginFrontRight };
#define TOPO_ORIGIN OriginFrontLeft
#define MIN_PROBE_EDGE 10 // The probe square sides can be no smaller than this
// Set the number of grid points per dimension
......
MarlinKimbra/Configuration_adv.h
View file @ 046d5eff
......@@ -47,32 +47,33 @@
// extruder idle oozing prevention
//if the extruder motor is idle for more than SECONDS, and the temperature over MINTEMP, some filament is retracted. The filament retracted is re-added before the next extrusion
//#define IDLE_OOZING_PREVENT
#define IDLE_OOZING_MINTEMP 170
#define IDLE_OOZING_FEEDRATE 45 //default feedrate for retracting (mm/s)
#define IDLE_OOZING_SECONDS 10
#define IDLE_OOZING_LENGTH 15 //default retract length (positive mm)
#define IDLE_OOZING_RECOVER_LENGTH 0 //default additional recover length (mm, added to retract length when recovering)
#define IDLE_OOZING_RECOVER_FEEDRATE 50 //default feedrate for recovering from retraction (mm/s)
#define IDLE_OOZING_MINTEMP 170
#define IDLE_OOZING_FEEDRATE 45 //default feedrate for retracting (mm/s)
#define IDLE_OOZING_SECONDS 10
#define IDLE_OOZING_LENGTH 15 //default retract length (positive mm)
#define IDLE_OOZING_RECOVER_LENGTH 0 //default additional recover length (mm, added to retract length when recovering)
#define IDLE_OOZING_RECOVER_FEEDRATE 50 //default feedrate for recovering from retraction (mm/s)
#if defined(IDLE_OOZING_PREVENT) && IDLE_OOZING_MINTEMP < EXTRUDE_MINTEMP
#error IDLE_OOZING_MINTEMP have to be greater than EXTRUDE_MINTEMP
#error IDLE_OOZING_MINTEMP have to be greater than EXTRUDE_MINTEMP
#endif
// extruder run-out prevention.
//if the machine is idle, and the temperature over MINTEMP, every couple of SECONDS some filament is extruded
//#define EXTRUDER_RUNOUT_PREVENT
#define EXTRUDER_RUNOUT_MINTEMP 190
#define EXTRUDER_RUNOUT_SECONDS 30
#define EXTRUDER_RUNOUT_ESTEPS 14 //mm filament
#define EXTRUDER_RUNOUT_SPEED 1500 //extrusion speed
#define EXTRUDER_RUNOUT_SECONDS 30
#define EXTRUDER_RUNOUT_ESTEPS 14 //mm filament
#define EXTRUDER_RUNOUT_SPEED 1500 //extrusion speed
#define EXTRUDER_RUNOUT_EXTRUDE 100
#if defined(EXTRUDER_RUNOUT_PREVENT) && EXTRUDER_RUNOUT_MINTEMP < EXTRUDE_MINTEMP
#error EXTRUDER_RUNOUT_MINTEMP have to be greater than EXTRUDE_MINTEMP
#error EXTRUDER_RUNOUT_MINTEMP have to be greater than EXTRUDE_MINTEMP
#endif
#if defined(EXTRUDER_RUNOUT_PREVENT) && defined(IDLE_OOZING_PREVENT)
#error EXTRUDER_RUNOUT_PREVENT and IDLE_OOZING_PREVENT are incopatible. Please comment one of them.
#error EXTRUDER_RUNOUT_PREVENT and IDLE_OOZING_PREVENT are incopatible. Please comment one of them.
#endif
//These defines help to calibrate the AD595 sensor in case you get wrong temperature measurements.
//The measured temperature is defined as "actualTemp = (measuredTemp * TEMP_SENSOR_AD595_GAIN) + TEMP_SENSOR_AD595_OFFSET"
#define TEMP_SENSOR_AD595_OFFSET 0.0
......@@ -486,6 +487,12 @@ const unsigned int dropsegments=5; //everything with less than this number of st
#endif
#endif
#ifdef FILAMENTCHANGEENABLE
#ifdef EXTRUDER_RUNOUT_PREVENT
#error EXTRUDER_RUNOUT_PREVENT currently incompatible with FILAMENTCHANGE
#endif
#endif
/******************************************************************************\
* enable this section if you have TMC26X motor drivers.
......
MarlinKimbra/Marlin.h
View file @ 046d5eff
......@@ -252,19 +252,17 @@ extern float filament_size[EXTRUDERS]; // cross-sectional area of filament (in m
extern float volumetric_multiplier[EXTRUDERS]; // reciprocal of cross-sectional area of filament (in square millimeters), stored this way to reduce computational burden in planner
extern float current_position[NUM_AXIS];
extern float destination[NUM_AXIS];
extern float add_homing[3];
// Extruder offset
#if EXTRUDERS > 1
#ifndef SINGLENOZZLE
#ifndef DUAL_X_CARRIAGE
#define NUM_HOTEND_OFFSETS 2 // only in XY plane
#else
#define NUM_HOTEND_OFFSETS 3 // supports offsets in XYZ plane
#endif
extern float hotend_offset[NUM_HOTEND_OFFSETS][EXTRUDERS];
#endif // end SINGLENOZZLE
#endif // end EXTRUDERS
extern float home_offset[3];
// Hotend offset
#if HOTENDS > 1
#ifndef DUAL_X_CARRIAGE
#define NUM_HOTEND_OFFSETS 2 // only in XY plane
#else
#define NUM_HOTEND_OFFSETS 3 // supports offsets in XYZ plane
#endif
extern float hotend_offset[NUM_HOTEND_OFFSETS][HOTENDS];
#endif // HOTENDS > 1
#ifdef NPR2
extern int old_color; // old color for system NPR2
......@@ -300,20 +298,21 @@ extern int EtoPPressure;
extern unsigned char fanSpeedSoftPwm;
#endif
#if (defined(FILAMENT_SENSOR) && defined(FILWIDTH_PIN) && FILWIDTH_PIN >= 0)
extern float filament_width_nominal; //holds the theoretical filament diameter ie., 3.00 or 1.75
extern bool filament_sensor; //indicates that filament sensor readings should control extrusion
extern float filament_width_meas; //holds the filament diameter as accurately measured
extern signed char measurement_delay[]; //ring buffer to delay measurement
#if defined(FILAMENT_SENSOR) && defined(FILWIDTH_PIN) && (FILWIDTH_PIN >= 0)
extern float filament_width_nominal; //holds the theoretical filament diameter ie., 3.00 or 1.75
extern bool filament_sensor; //indicates that filament sensor readings should control extrusion
extern float filament_width_meas; //holds the filament diameter as accurately measured
extern signed char measurement_delay[]; //ring buffer to delay measurement
extern int delay_index1, delay_index2; //index into ring buffer
extern float delay_dist; //delay distance counter
extern int meas_delay_cm; //delay distance
extern float delay_dist; //delay distance counter
extern int meas_delay_cm; //delay distance
#endif
#if (defined(POWER_CONSUMPTION) && defined(POWER_CONSUMPTION_PIN) && POWER_CONSUMPTION_PIN >= 0)
extern unsigned int power_consumption_meas; //holds the power consumption as accurately measured
extern unsigned long power_consumption_hour; //holds the power consumption per hour as accurately measured
extern unsigned int power_consumption_meas; //holds the power consumption as accurately measured
extern unsigned long power_consumption_hour; //holds the power consumption per hour as accurately measured
#endif
#ifdef FWRETRACT
extern bool autoretract_enabled;
extern bool retracted[EXTRUDERS];
......
MarlinKimbra/Marlin_main.cpp
View file @ 046d5eff
......@@ -245,7 +245,7 @@ float volumetric_multiplier[EXTRUDERS] = {1.0
};
float current_position[NUM_AXIS] = { 0.0, 0.0, 0.0, 0.0 };
float destination[NUM_AXIS] = { 0.0, 0.0, 0.0, 0.0 };
float add_homing[3]={ 0, 0, 0 };
float home_offset[3] = { 0, 0, 0 };
int fanSpeed = 0;
bool cancel_heatup = false;
......@@ -294,29 +294,27 @@ bool axis_known_position[3] = { false, false, false };
float zprobe_zoffset;
float lastpos[4];
// Extruder offset
#ifndef SINGLENOZZLE
#if EXTRUDERS > 1
#ifndef DUAL_X_CARRIAGE
#define NUM_EXTRUDER_OFFSETS 2 // only in XY plane
// Hotend offset
#if HOTENDS > 1
#ifndef DUAL_X_CARRIAGE
#define NUM_HOTENDS_OFFSETS 2 // only in XY plane
#else
#define NUM_HOTENDS_OFFSETS 3 // supports offsets in XYZ plane
#endif
float hotend_offset[NUM_HOTENDS_OFFSETS][HOTENDS] = {
#if defined(HOTEND_OFFSET_X)
HOTEND_OFFSET_X
#else
#define NUM_EXTRUDER_OFFSETS 3 // supports offsets in XYZ plane
0
#endif
float hotend_offset[NUM_EXTRUDER_OFFSETS][EXTRUDERS] = {
#if defined(EXTRUDER_OFFSET_X)
EXTRUDER_OFFSET_X
#else
0
#endif
,
#if defined(EXTRUDER_OFFSET_Y)
EXTRUDER_OFFSET_Y
#else
0
#endif
};
#endif //EXTRUDERS > 1
#endif //SINGLENOZZLE
,
#if defined(HOTEND_OFFSET_Y)
HOTEND_OFFSET_Y
#else
0
#endif
};
#endif //HOTENDS > 1
uint8_t active_extruder = 0;
......@@ -333,24 +331,26 @@ uint8_t debugLevel = 0;
int EtoPPressure = 0;
#endif //BARICUDA
#ifdef FILAMENTCHANGEENABLE
#if defined(FILAMENTCHANGEENABLE) || defined(IDLE_OOZING_PREVENT)
bool filament_changing = false;
#endif
#ifdef IDLE_OOZING_PREVENT || EXTRUDER_RUNOUT_PREVENT
unsigned long axis_last_activity = 0;
bool axis_is_moving = false;
#if defined(IDLE_OOZING_PREVENT) || defined(EXTRUDER_RUNOUT_PREVENT)
unsigned long axis_last_activity = 0;
bool axis_is_moving = false;
#endif
#ifdef IDLE_OOZING_PREVENT
bool IDLE_OOZING_retracted[EXTRUDERS] = { false
bool IDLE_OOZING_retracted[EXTRUDERS] = { false
#if EXTRUDERS > 1
, false
#if EXTRUDERS > 2
, false
#if EXTRUDERS > 3
, false
#endif
#endif
#endif
#endif //EXTRUDERS > 3
#endif //EXTRUDERS > 2
#endif //EXTRUDERS > 1
};
#endif
......@@ -400,21 +400,21 @@ uint8_t debugLevel = 0;
static float delta[3] = { 0, 0, 0 };
#endif //SCARA
#if (defined(FILAMENT_SENSOR) && defined(FILWIDTH_PIN) && FILWIDTH_PIN >= 0)
#if defined(FILAMENT_SENSOR) && defined(FILWIDTH_PIN) && (FILWIDTH_PIN >= 0)
//Variables for Filament Sensor input
float filament_width_nominal=DEFAULT_NOMINAL_FILAMENT_DIA; //Set nominal filament width, can be changed with M404
bool filament_sensor=false; //M405 turns on filament_sensor control, M406 turns it off
float filament_width_meas=DEFAULT_MEASURED_FILAMENT_DIA; //Stores the measured filament diameter
signed char measurement_delay[MAX_MEASUREMENT_DELAY+1]; //ring buffer to delay measurement store extruder factor after subtracting 100
int delay_index1=0; //index into ring buffer
int delay_index2=-1; //index into ring buffer - set to -1 on startup to indicate ring buffer needs to be initialized
float delay_dist=0; //delay distance counter
int meas_delay_cm = MEASUREMENT_DELAY_CM; //distance delay setting
bool filament_sensor=false; //M405 turns on filament_sensor control, M406 turns it off
float filament_width_meas=DEFAULT_MEASURED_FILAMENT_DIA; //Stores the measured filament diameter
signed char measurement_delay[MAX_MEASUREMENT_DELAY+1]; //ring buffer to delay measurement store extruder factor after subtracting 100
int delay_index1=0; //index into ring buffer
int delay_index2=-1; //index into ring buffer - set to -1 on startup to indicate ring buffer needs to be initialized
float delay_dist=0; //delay distance counter
int meas_delay_cm = MEASUREMENT_DELAY_CM; //distance delay setting
#endif
#if (defined(POWER_CONSUMPTION) && defined(POWER_CONSUMPTION_PIN) && POWER_CONSUMPTION_PIN >= 0)
unsigned int power_consumption_meas = 0;
unsigned long power_consumption_hour = 0.0;
#if defined(POWER_CONSUMPTION) && defined(POWER_CONSUMPTION_PIN) && POWER_CONSUMPTION_PIN >= 0
unsigned int power_consumption_meas = 0;
unsigned long power_consumption_hour = 0.0;
#endif
#ifdef LASERBEAM
......@@ -1097,13 +1097,13 @@ static int dual_x_carriage_mode = DEFAULT_DUAL_X_CARRIAGE_MODE;
static float x_home_pos(int extruder) {
if (extruder == 0)
return base_home_pos(X_AXIS) + add_homing[X_AXIS];
return base_home_pos(X_AXIS) + home_offset[X_AXIS];
else
// In dual carriage mode the extruder offset provides an override of the
// second X-carriage offset when homed - otherwise X2_HOME_POS is used.
// This allow soft recalibration of the second extruder offset position without firmware reflash
// (through the M218 command).
return (extruder_offset[X_AXIS][1] > 0) ? extruder_offset[X_AXIS][1] : X2_HOME_POS;
return (hotend_offset[X_AXIS][1] > 0) ? hotend_offset[X_AXIS][1] : X2_HOME_POS;
}
static int x_home_dir(int extruder) {
......@@ -1133,9 +1133,9 @@ bool extruder_duplication_enabled = false; // used in mode 2
}
else if (dual_x_carriage_mode == DXC_DUPLICATION_MODE && active_extruder == 0)
{
current_position[X_AXIS] = base_home_pos(X_AXIS) + add_homing[X_AXIS];
min_pos[X_AXIS] = base_min_pos(X_AXIS) + add_homing[X_AXIS];
max_pos[X_AXIS] = min(base_max_pos(X_AXIS) + add_homing[X_AXIS],
current_position[X_AXIS] = base_home_pos(X_AXIS) + home_offset[X_AXIS];
min_pos[X_AXIS] = base_min_pos(X_AXIS) + home_offset[X_AXIS];
max_pos[X_AXIS] = min(base_max_pos(X_AXIS) + home_offset[X_AXIS],
max(hotend_offset[X_AXIS][1], X2_MAX_POS) - duplicate_extruder_x_offset);
return;
}
......@@ -1160,11 +1160,11 @@ bool extruder_duplication_enabled = false; // used in mode 2
// SERIAL_ECHOPGM(" base Psi+Theta="); SERIAL_ECHOLN(delta[Y_AXIS]);
for (i=0; i<2; i++) {
delta[i] -= add_homing[i];
delta[i] -= home_offset[i];
}
// SERIAL_ECHOPGM("addhome X="); SERIAL_ECHO(add_homing[X_AXIS]);
// SERIAL_ECHOPGM(" addhome Y="); SERIAL_ECHO(add_homing[Y_AXIS]);
// SERIAL_ECHOPGM("addhome X="); SERIAL_ECHO(home_offset[X_AXIS]);
// SERIAL_ECHOPGM(" addhome Y="); SERIAL_ECHO(home_offset[Y_AXIS]);
// SERIAL_ECHOPGM(" addhome Theta="); SERIAL_ECHO(delta[X_AXIS]);
// SERIAL_ECHOPGM(" addhome Psi+Theta="); SERIAL_ECHOLN(delta[Y_AXIS]);
......@@ -1182,14 +1182,14 @@ bool extruder_duplication_enabled = false; // used in mode 2
}
else
{
current_position[axis] = base_home_pos(axis) + add_homing[axis];
min_pos[axis] = base_min_pos(axis) + add_homing[axis];
max_pos[axis] = base_max_pos(axis) + add_homing[axis];
current_position[axis] = base_home_pos(axis) + home_offset[axis];
min_pos[axis] = base_min_pos(axis) + home_offset[axis];
max_pos[axis] = base_max_pos(axis) + home_offset[axis];
}
#else // NO SCARA
current_position[axis] = base_home_pos(axis) + add_homing[axis];
min_pos[axis] = base_min_pos(axis) + add_homing[axis];
max_pos[axis] = base_max_pos(axis) + add_homing[axis];
current_position[axis] = base_home_pos(axis) + home_offset[axis];
min_pos[axis] = base_min_pos(axis) + home_offset[axis];
max_pos[axis] = base_max_pos(axis) + home_offset[axis];
#endif // SCARA
}
......@@ -1341,7 +1341,7 @@ bool extruder_duplication_enabled = false; // used in mode 2
#if SERVO_LEVELING
servos[servo_endstops[Z_AXIS]].attach(0);
#endif
servos[servo_endstops[Z_AXIS]].write(servo_endstop_angles[Z_AXIS * 2 + 1]);
servos[servo_endstops[Z_AXIS]].write(servo_endstop_angles[Z_AXIS * 2 + 1]);
#if SERVO_LEVELING
delay(PROBE_SERVO_DEACTIVATION_DELAY);
servos[servo_endstops[Z_AXIS]].detach();
......@@ -1350,10 +1350,15 @@ bool extruder_duplication_enabled = false; // used in mode 2
#endif //NUM_SERVOS > 0
}
enum ProbeAction { ProbeStay, ProbeEngage, ProbeRetract, ProbeEngageRetract };
enum ProbeAction {
ProbeStay = 0,
ProbeEngage = BIT(0),
ProbeRetract = BIT(1),
ProbeEngageAndRetract = (ProbeEngage | ProbeRetract)
};
// Probe bed height at position (x,y), returns the measured z value
static float probe_pt(float x, float y, float z_before, ProbeAction retract_action=ProbeEngageRetract, int verbose_level=1) {
static float probe_pt(float x, float y, float z_before, ProbeAction retract_action=ProbeEngageAndRetract, int verbose_level=1) {
// move to right place
do_blocking_move_to(current_position[X_AXIS], current_position[Y_AXIS], z_before);
do_blocking_move_to(x - X_PROBE_OFFSET_FROM_EXTRUDER, y - Y_PROBE_OFFSET_FROM_EXTRUDER, current_position[Z_AXIS]);
......@@ -1462,9 +1467,9 @@ bool extruder_duplication_enabled = false; // used in mode 2
#ifdef DELTA
static void axis_is_at_home(int axis)
{
current_position[axis] = base_home_pos[axis] + add_homing[axis];
min_pos[axis] = base_min_pos(axis) + add_homing[axis];
max_pos[axis] = base_max_pos[axis] + add_homing[axis];
current_position[axis] = base_home_pos[axis] + home_offset[axis];
min_pos[axis] = base_min_pos(axis) + home_offset[axis];
max_pos[axis] = base_max_pos[axis] + home_offset[axis];
}
static void homeaxis(int axis)
......@@ -1961,32 +1966,32 @@ void refresh_cmd_timeout(void) { previous_millis_cmd = millis(); }
#ifdef IDLE_OOZING_PREVENT
void IDLE_OOZING_retract(bool retracting)
{
if(retracting && !IDLE_OOZING_retracted[active_extruder]) {
//SERIAL_ECHOLN("RETRACT FOR OOZING PREVENT");
destination[X_AXIS]=current_position[X_AXIS];
destination[Y_AXIS]=current_position[Y_AXIS];
destination[Z_AXIS]=current_position[Z_AXIS];
destination[E_AXIS]=current_position[E_AXIS];
current_position[E_AXIS]+=IDLE_OOZING_LENGTH/volumetric_multiplier[active_extruder];
plan_set_e_position(current_position[E_AXIS]);
float oldFeedrate = feedrate;
feedrate=IDLE_OOZING_FEEDRATE*60;
IDLE_OOZING_retracted[active_extruder]=true;
prepare_move();
feedrate = oldFeedrate;
if (retracting && !IDLE_OOZING_retracted[active_extruder]) {
//SERIAL_ECHOLN("RETRACT FOR OOZING PREVENT");
destination[X_AXIS]=current_position[X_AXIS];
destination[Y_AXIS]=current_position[Y_AXIS];
destination[Z_AXIS]=current_position[Z_AXIS];
destination[E_AXIS]=current_position[E_AXIS];
current_position[E_AXIS]+=IDLE_OOZING_LENGTH/volumetric_multiplier[active_extruder];
plan_set_e_position(current_position[E_AXIS]);
float oldFeedrate = feedrate;
feedrate=IDLE_OOZING_FEEDRATE*60;
IDLE_OOZING_retracted[active_extruder]=true;
prepare_move();
feedrate = oldFeedrate;
}
else if(!retracting && IDLE_OOZING_retracted[active_extruder]){
//SERIAL_ECHOLN("EXTRUDE FOR OOZING PREVENT");
destination[X_AXIS]=current_position[X_AXIS];
destination[Y_AXIS]=current_position[Y_AXIS];
destination[Z_AXIS]=current_position[Z_AXIS];
destination[E_AXIS]=current_position[E_AXIS];
current_position[E_AXIS]-=(IDLE_OOZING_LENGTH+IDLE_OOZING_RECOVER_LENGTH)/volumetric_multiplier[active_extruder];
plan_set_e_position(current_position[E_AXIS]);
float oldFeedrate = feedrate;
feedrate=IDLE_OOZING_RECOVER_FEEDRATE * 60;
IDLE_OOZING_retracted[active_extruder] = false;
prepare_move();
else if(!retracting && IDLE_OOZING_retracted[active_extruder]) {
//SERIAL_ECHOLN("EXTRUDE FOR OOZING PREVENT");
destination[X_AXIS]=current_position[X_AXIS];
destination[Y_AXIS]=current_position[Y_AXIS];
destination[Z_AXIS]=current_position[Z_AXIS];
destination[E_AXIS]=current_position[E_AXIS];
current_position[E_AXIS]-=(IDLE_OOZING_LENGTH+IDLE_OOZING_RECOVER_LENGTH)/volumetric_multiplier[active_extruder];
plan_set_e_position(current_position[E_AXIS]);
float oldFeedrate = feedrate;
feedrate=IDLE_OOZING_RECOVER_FEEDRATE * 60;
IDLE_OOZING_retracted[active_extruder] = false;
prepare_move();
feedrate = oldFeedrate;
}
}
......@@ -2215,10 +2220,13 @@ inline void wait_bed() {
// G0-G1: Coordinated movement of X Y Z E axes
inline void gcode_G0_G1() {
if (!Stopped) {
#ifdef IDLE_OOZING_PREVENT
IDLE_OOZING_retract(false);
#endif
#ifdef IDLE_OOZING_PREVENT
IDLE_OOZING_retract(false);
#endif
get_coordinates(); // For X Y Z E F
#ifdef FWRETRACT
if (autoretract_enabled) {
if (!(code_seen('X') || code_seen('Y') || code_seen('Z')) && code_seen('E')) {
......@@ -2337,6 +2345,11 @@ inline void gcode_G28(boolean home_x=false, boolean home_y=false) {
#endif //DELTA
#ifdef SCARA
calculate_delta(current_position);
plan_set_position(delta[X_AXIS], delta[Y_AXIS], delta[Z_AXIS], current_position[E_AXIS]);
#endif
#if defined(CARTESIAN) || defined(COREXY) || defined(SCARA)
#if Z_HOME_DIR > 0 // If homing away from BED do Z first
if((home_all_axis) || (code_seen(axis_codes[Z_AXIS]))) {
......@@ -2415,7 +2428,7 @@ inline void gcode_G28(boolean home_x=false, boolean home_y=false) {
#ifdef SCARA
current_position[X_AXIS]=code_value();
#else
current_position[X_AXIS]=code_value()+add_homing[X_AXIS];
current_position[X_AXIS]=code_value() + home_offset[X_AXIS];
#endif
}
......@@ -2423,7 +2436,7 @@ inline void gcode_G28(boolean home_x=false, boolean home_y=false) {
#ifdef SCARA
current_position[Y_AXIS]=code_value();
#else
current_position[Y_AXIS]=code_value()+add_homing[Y_AXIS];
current_position[Y_AXIS]=code_value() + home_offset[Y_AXIS];
#endif
}
......@@ -2602,7 +2615,7 @@ inline void gcode_G28(boolean home_x=false, boolean home_y=false) {
#endif //Z_HOME_DIR < 0
if (code_seen(axis_codes[Z_AXIS]) && code_value_long() != 0)
current_position[Z_AXIS] = code_value() + add_homing[Z_AXIS];
current_position[Z_AXIS] = code_value() + home_offset[Z_AXIS];
#ifdef ENABLE_AUTO_BED_LEVELING
if (home_all_axis || code_seen(axis_codes[Z_AXIS]))
......@@ -2723,7 +2736,7 @@ inline void gcode_G28(boolean home_x=false, boolean home_y=false) {
#ifdef AUTO_BED_LEVELING_GRID
bool topo_flag = code_seen('T') || code_seen('t');
bool do_topography_map = verbose_level > 2 || code_seen('T') || code_seen('t');
if (verbose_level > 0) SERIAL_PROTOCOLPGM("G29 Auto Bed Leveling\n");
......@@ -2787,8 +2800,8 @@ inline void gcode_G28(boolean home_x=false, boolean home_y=false) {
current_position[Y_AXIS] = uncorrected_position.y;
current_position[Z_AXIS] = uncorrected_position.z;
plan_set_position(current_position[X_AXIS], current_position[Y_AXIS], current_position[Z_AXIS], current_position[E_AXIS]);
setup_for_endstop_move();
setup_for_endstop_move();
feedrate = homing_feedrate[Z_AXIS];
#ifdef AUTO_BED_LEVELING_GRID
......@@ -2835,7 +2848,7 @@ inline void gcode_G28(boolean home_x=false, boolean home_y=false) {
// If topo_flag is set then don't zig-zag. Just scan in one direction.
// This gets the probe points in more readable order.
if (topo_flag) zig = !zig;
if (do_topography_map) zig = !zig;
for (int xCount=xStart; xCount != xStop; xCount += xInc)
{
double xProbe = left_probe_bed_position + xGridSpacing * xCount;
......@@ -2855,7 +2868,7 @@ inline void gcode_G28(boolean home_x=false, boolean home_y=false) {
act = ProbeStay;
}
else
act = ProbeEngageRetract;
act = ProbeEngageAndRetract;
measured_z = probe_pt(xProbe, yProbe, z_before, act, verbose_level);
......@@ -2892,49 +2905,30 @@ inline void gcode_G28(boolean home_x=false, boolean home_y=false) {
}
}
if (topo_flag) {
int xx, yy;
if (do_topography_map) {
SERIAL_PROTOCOLPGM(" \nBed Height Topography: \n");
#if TOPO_ORIGIN == OriginFrontLeft
SERIAL_PROTOCOLPGM("+-----------+\n");
SERIAL_PROTOCOLPGM("|...Back....|\n");
SERIAL_PROTOCOLPGM("|Left..Right|\n");
SERIAL_PROTOCOLPGM("|...Front...|\n");
SERIAL_PROTOCOLPGM("+-----------+\n");
for (yy = auto_bed_leveling_grid_points - 1; yy >= 0; yy--)
#else
for (yy = 0; yy < auto_bed_leveling_grid_points; yy++)
#endif
{
#if TOPO_ORIGIN == OriginBackRight
for (xx = 0; xx < auto_bed_leveling_grid_points; xx++)
#else
for (xx = auto_bed_leveling_grid_points - 1; xx >= 0; xx--)
#endif
{
int ind =
#if TOPO_ORIGIN == OriginBackRight || TOPO_ORIGIN == OriginFrontLeft
yy * auto_bed_leveling_grid_points + xx
#elif TOPO_ORIGIN == OriginBackLeft
xx * auto_bed_leveling_grid_points + yy
#elif TOPO_ORIGIN == OriginFrontRight
abl2 - xx * auto_bed_leveling_grid_points - yy - 1
#endif
;
float diff = eqnBVector[ind] - mean;
if (diff >= 0.0)
SERIAL_PROTOCOLPGM(" +"); // Include + for column alignment
else
SERIAL_PROTOCOLPGM(" ");
SERIAL_PROTOCOL_F(diff, 5);
} // xx
SERIAL_EOL;
} // yy
SERIAL_PROTOCOLPGM("+-----------+\n");
SERIAL_PROTOCOLPGM("|...Back....|\n");
SERIAL_PROTOCOLPGM("|Left..Right|\n");
SERIAL_PROTOCOLPGM("|...Front...|\n");
SERIAL_PROTOCOLPGM("+-----------+\n");
for (int yy = auto_bed_leveling_grid_points - 1; yy >= 0; yy--) {
for (int xx = auto_bed_leveling_grid_points - 1; xx >= 0; xx--) {
int ind = yy * auto_bed_leveling_grid_points + xx;
float diff = eqnBVector[ind] - mean;
if (diff >= 0.0)
SERIAL_PROTOCOLPGM(" +"); // Include + for column alignment
else
SERIAL_PROTOCOLPGM(" ");
SERIAL_PROTOCOL_F(diff, 5);
} // xx
SERIAL_EOL;
} // yy
SERIAL_EOL;
} //topo_flag
} //do_topography_map
set_bed_level_equation_lsq(plane_equation_coefficients);
......@@ -2961,9 +2955,6 @@ inline void gcode_G28(boolean home_x=false, boolean home_y=false) {
#endif // !AUTO_BED_LEVELING_GRID
do_blocking_move_to(current_position[X_AXIS], current_position[Y_AXIS], Z_RAISE_AFTER_PROBING);
st_synchronize();
if (verbose_level > 0)
plan_bed_level_matrix.debug(" \n\nBed Level Correction Matrix:");
......@@ -3546,9 +3537,9 @@ inline void gcode_G92() {
}
else {
#ifdef SCARA
current_position[i] = code_value() + ((i != X_AXIS && i != Y_AXIS) ? add_homing[i] : 0);
current_position[i] = code_value() + ((i != X_AXIS && i != Y_AXIS) ? home_offset[i] : 0);
#else
current_position[i] = code_value() + add_homing[i];
current_position[i] = code_value() + home_offset[i];
#endif
plan_set_position(current_position[X_AXIS], current_position[Y_AXIS], current_position[Z_AXIS], current_position[E_AXIS]);
}
......@@ -3900,7 +3891,7 @@ inline void gcode_M204() {
#ifdef FILAMENTCHANGEENABLE
//M600: Pause for filament change X[pos] Y[pos] Z[relative lift] E[initial retract] L[later retract distance for removal]
inline void gcode_M600() {
filament_changing = true;
filament_changing = true;
float target[NUM_AXIS];
for (int i=0; i < NUM_AXIS; i++) target[i] = lastpos[i] = current_position[i];
......@@ -3969,15 +3960,10 @@ inline void gcode_M204() {
boolean sleep = false;
int cnt = 0;
#ifndef SINGLENOZZLE
int old_target_temperature[EXTRUDERS] = { 0 };
for(int8_t e=0;e<EXTRUDERS;e++)
#else
int old_target_temperature[1] = { 0 };
int8_t e=0;
#endif
int old_target_temperature[HOTENDS] = { 0 };
for(int8_t e = 0; e < HOTENDS; e++)
{
old_target_temperature[e]=target_temperature[e];
old_target_temperature[e] = target_temperature[e];
}
int old_target_temperature_bed = target_temperature_bed;
timer.set_max_delay(60000); // 1 minute
......@@ -4011,11 +3997,7 @@ inline void gcode_M204() {
lcd_reset_alert_level();
if (sleep) {
#ifndef SINGLENOZZLE
for(int8_t e=0;e<EXTRUDERS;e++)
#else
int8_t e=0;
#endif
for(int8_t e = 0; e < HOTENDS; e++)
{
setTargetHotend(old_target_temperature[e], e);
CooldownNoWait = true;
......@@ -4060,7 +4042,7 @@ inline void gcode_M204() {
for(int8_t i=0; i < NUM_AXIS; i++) current_position[i]=lastpos[i];
plan_set_position(current_position[X_AXIS], current_position[Y_AXIS], current_position[Z_AXIS], current_position[E_AXIS]);
#endif
filament_changing = false;
filament_changing = false;
}
#endif //FILAMENTCHANGEENABLE
......@@ -4637,7 +4619,7 @@ void process_commands()
{
if(setTargetedHotend(104)) break;
if(debugDryrun()) break;
#ifdef SINGLENOZZLE
#if HOTENDS == 1
if (tmp_extruder != active_extruder) break;
#endif
if (code_seen('S')) setTargetHotend(code_value(), tmp_extruder);
......@@ -4740,7 +4722,7 @@ void process_commands()
{
if(setTargetedHotend(109)) break;
if(debugDryrun()) break;
#ifdef SINGLENOZZLE
#if HOTENDS == 1
if (tmp_extruder != active_extruder) break;
#endif
LCD_MESSAGEPGM(MSG_HEATING);
......@@ -4823,9 +4805,9 @@ void process_commands()
SERIAL_PROTOCOLLN("");
SERIAL_PROTOCOLPGM("SCARA Cal - Theta:");
SERIAL_PROTOCOL(delta[X_AXIS]+add_homing[X_AXIS]);
SERIAL_PROTOCOL(delta[X_AXIS] + home_offset[X_AXIS]);
SERIAL_PROTOCOLPGM(" Psi+Theta (90):");
SERIAL_PROTOCOL(delta[Y_AXIS]-delta[X_AXIS]-90+add_homing[Y_AXIS]);
SERIAL_PROTOCOL(delta[Y_AXIS] - delta[X_AXIS] - 90 + home_offset[Y_AXIS]);
SERIAL_PROTOCOLLN("");
SERIAL_PROTOCOLPGM("SCARA step Cal - Theta:");
......@@ -5095,16 +5077,16 @@ void process_commands()
{
for(int8_t i=0; i < 3; i++)
{
if(code_seen(axis_codes[i])) add_homing[i] = code_value();
if(code_seen(axis_codes[i])) home_offset[i] = code_value();
}
#ifdef SCARA
if(code_seen('T')) // Theta
{
add_homing[X_AXIS] = code_value() ;
home_offset[X_AXIS] = code_value() ;
}
if(code_seen('P')) // Psi
{
add_homing[Y_AXIS] = code_value() ;
home_offset[Y_AXIS] = code_value() ;
}
#endif
}
......@@ -5187,43 +5169,41 @@ void process_commands()
break;
#endif // FWRETRACT
#ifndef SINGLENOZZLE
#if EXTRUDERS > 1
case 218: //M218 - set hotend offset (in mm), T<extruder_number> X<offset_on_X> Y<offset_on_Y>
#if HOTENDS > 1
case 218: //M218 - set hotend offset (in mm), T<extruder_number> X<offset_on_X> Y<offset_on_Y>
{
if(setTargetedHotend(218)) break;
if(code_seen('X'))
{
if(setTargetedHotend(218)) break;
if(code_seen('X'))
{
hotend_offset[X_AXIS][tmp_extruder] = code_value();
}
if(code_seen('Y'))
hotend_offset[X_AXIS][tmp_extruder] = code_value();
}
if(code_seen('Y'))
{
hotend_offset[Y_AXIS][tmp_extruder] = code_value();
}
#ifdef DUAL_X_CARRIAGE
if(code_seen('Z'))
{
hotend_offset[Y_AXIS][tmp_extruder] = code_value();
hotend_offset[Z_AXIS][tmp_extruder] = code_value();
}
#endif
SERIAL_ECHO_START;
SERIAL_ECHOPGM(MSG_HOTEND_OFFSET);
for(tmp_extruder = 0; tmp_extruder < EXTRUDERS; tmp_extruder++)
{
SERIAL_ECHO(" ");
SERIAL_ECHO(hotend_offset[X_AXIS][tmp_extruder]);
SERIAL_ECHO(",");
SERIAL_ECHO(hotend_offset[Y_AXIS][tmp_extruder]);
#ifdef DUAL_X_CARRIAGE
if(code_seen('Z'))
{
hotend_offset[Z_AXIS][tmp_extruder] = code_value();
}
#endif
SERIAL_ECHO_START;
SERIAL_ECHOPGM(MSG_HOTEND_OFFSET);
for(tmp_extruder = 0; tmp_extruder < EXTRUDERS; tmp_extruder++)
{
SERIAL_ECHO(" ");
SERIAL_ECHO(hotend_offset[X_AXIS][tmp_extruder]);
SERIAL_ECHO(",");
SERIAL_ECHO(hotend_offset[Y_AXIS][tmp_extruder]);
#ifdef DUAL_X_CARRIAGE
SERIAL_ECHO(",");
SERIAL_ECHO(hotend_offset[Z_AXIS][tmp_extruder]);
#endif
}
SERIAL_EOL;
SERIAL_ECHO(hotend_offset[Z_AXIS][tmp_extruder]);
#endif
}
break;
#endif //EXTRUDERS > 1
#endif // SINGLENOZZLE
SERIAL_EOL;
}
break;
#endif //EXTRUDERS > 1
case 220: //M220 S<factor in percent>- set speed factor override percentage
{
......@@ -5635,7 +5615,7 @@ void process_commands()
break;
#endif // NABLE_AUTO_BED_LEVELING
#if (defined(FILAMENT_SENSOR) && defined(FILWIDTH_PIN) && FILWIDTH_PIN >= 0)
#if defined(FILAMENT_SENSOR) && defined(FILWIDTH_PIN) && (FILWIDTH_PIN >= 0)
case 404: //M404 Enter the nominal filament width (3mm, 1.75mm ) N<3.0> or display nominal filament width
{
if(code_seen('D')) filament_width_nominal=code_value();
......@@ -5945,16 +5925,11 @@ void process_commands()
delayed_move_time = 0;
}
#else
// Offset extruder (only by XY)
#ifndef SINGLENOZZLE
int i;
for(i = 0; i < 2; i++)
{
current_position[i] = current_position[i] -
hotend_offset[i][active_extruder] +
hotend_offset[i][tmp_extruder];
}
#endif // SINGLENOZZLE
// Offset hotend (only by XY)
#if HOTENDS > 1
for (int i=X_AXIS; i<=Y_AXIS; i++)
current_position[i] += hotend_offset[i][tmp_extruder] - hotend_offset[i][active_extruder];
#endif // HOTENDS > 1
#if defined(MKR4) && (EXTRUDERS > 1)
#if (EXTRUDERS == 4) && (E0E2_CHOICE_PIN >1) && (E1E3_CHOICE_PIN > 1)
......@@ -6169,7 +6144,7 @@ void clamp_to_software_endstops(float target[3])
float negative_z_offset = 0;
#ifdef ENABLE_AUTO_BED_LEVELING
if (Z_PROBE_OFFSET_FROM_EXTRUDER < 0) negative_z_offset = negative_z_offset + Z_PROBE_OFFSET_FROM_EXTRUDER;
if (add_homing[Z_AXIS] < 0) negative_z_offset = negative_z_offset + add_homing[Z_AXIS];
if (home_offset[Z_AXIS] < 0) negative_z_offset = negative_z_offset + home_offset[Z_AXIS];
#endif
if (target[Z_AXIS] < min_pos[Z_AXIS]+negative_z_offset) target[Z_AXIS] = min_pos[Z_AXIS]+negative_z_offset;
......@@ -6184,9 +6159,10 @@ void clamp_to_software_endstops(float target[3])
void prepare_move()
{
#ifdef IDLE_OOZING_PREVENT || EXTRUDER_RUNOUT_PREVENT
axis_is_moving = true;
#endif
#ifdef IDLE_OOZING_PREVENT || EXTRUDER_RUNOUT_PREVENT
axis_is_moving = true;
#endif
clamp_to_software_endstops(destination);
refresh_cmd_timeout();
......@@ -6206,7 +6182,6 @@ void prepare_move()
return;
}
float seconds = 6000 * cartesian_mm / feedrate / feedmultiply;
int steps = max(1, int(scara_segments_per_second * seconds));
//SERIAL_ECHOPGM("mm="); SERIAL_ECHO(cartesian_mm);
//SERIAL_ECHOPGM(" seconds="); SERIAL_ECHO(seconds);
......@@ -6321,6 +6296,7 @@ void prepare_move()
axis_is_moving = false;
#endif
for(int8_t i=0; i < NUM_AXIS; i++) {
current_position[i] = destination[i];
}
......@@ -6585,11 +6561,13 @@ void manage_inactivity(bool ignore_stepper_queue/*=false*/) //default argument s
#if defined(CONTROLLERFAN_PIN) && CONTROLLERFAN_PIN > -1
controllerFan(); //Check if fan should be turned on to cool stepper drivers down
#endif
#ifdef IDLE_OOZING_PREVENT
if(!debugDryrun() && !axis_is_moving && !filament_changing && (millis() - axis_last_activity) > IDLE_OOZING_SECONDS*1000 && degHotend(active_extruder) > IDLE_OOZING_MINTEMP) {
IDLE_OOZING_retract(true);
}
if(!debugDryrun() && !axis_is_moving && !filament_changing && (millis() - axis_last_activity) > IDLE_OOZING_SECONDS*1000 && degHotend(active_extruder) > IDLE_OOZING_MINTEMP) {
IDLE_OOZING_retract(true);
}
#endif
#ifdef EXTRUDER_RUNOUT_PREVENT
if(!debugDryrun() && !axis_is_moving && !filament_changing && (millis() - axis_last_activity) > EXTRUDER_RUNOUT_SECONDS*1000 && degHotend(active_extruder)>EXTRUDER_RUNOUT_MINTEMP)
{
......@@ -6607,6 +6585,7 @@ void manage_inactivity(bool ignore_stepper_queue/*=false*/) //default argument s
WRITE(E0_ENABLE_PIN,oldstatus);
}
#endif
#if defined(DUAL_X_CARRIAGE)
// handle delayed move timeout
if (delayed_move_time != 0 && (millis() - delayed_move_time) > 1000 && Stopped == false)
......@@ -6617,9 +6596,11 @@ void manage_inactivity(bool ignore_stepper_queue/*=false*/) //default argument s
prepare_move();
}
#endif
#ifdef TEMP_STAT_LEDS
handle_status_leds();
#endif
check_axes_activity();
}
......
MarlinKimbra/cardreader.cpp
View file @ 046d5eff
......@@ -504,7 +504,6 @@ void CardReader::printingHasFinished() {
startFileprint();
}
else {
quickStop();
file.close();
sdprinting = false;
if (SD_FINISHED_STEPPERRELEASE) {
......
MarlinKimbra/dogm_lcd_implementation.h
View file @ 046d5eff
......@@ -267,38 +267,35 @@ static void lcd_implementation_status_screen() {
// Status line
u8g.setFont(FONT_STATUSMENU);
u8g.setPrintPos(0,63);
#if (defined(FILAMENT_SENSOR) && defined(FILWIDTH_PIN) && FILWIDTH_PIN >= 0) && defined(FILAMENT_LCD_DISPLAY) || (defined(POWER_CONSUMPTION) && defined(POWER_CONSUMPTION_PIN) && POWER_CONSUMPTION_PIN >= 0) && defined(POWER_CONSUMPTION_LCD_DISPLAY)
#if defined(FILAMENT_SENSOR) && defined(FILWIDTH_PIN) && (FILWIDTH_PIN >= 0) && defined(FILAMENT_LCD_DISPLAY) || (defined(POWER_CONSUMPTION) && defined(POWER_CONSUMPTION_PIN) && (POWER_CONSUMPTION_PIN >= 0) && defined(POWER_CONSUMPTION_LCD_DISPLAY)
if (millis() < message_millis + 5000) { //Display both Status message line and Filament display on the last line
u8g.print(lcd_status_message);
}
#if (defined(POWER_CONSUMPTION) && defined(POWER_CONSUMPTION_PIN) && POWER_CONSUMPTION_PIN >= 0) && defined(POWER_CONSUMPTION_LCD_DISPLAY)
#if (defined(FILAMENT_SENSOR) && defined(FILWIDTH_PIN) && FILWIDTH_PIN >= 0) && defined(FILAMENT_LCD_DISPLAY)
else if (millis() < message_millis + 10000)
#else
else
#endif
{
lcd_printPGM(PSTR("P:"));
u8g.print(itostr3(power_consumption_meas));
lcd_printPGM(PSTR("W C:"));
u8g.print(ltostr7(power_consumption_hour));
lcd_printPGM(PSTR("Wh"));
}
#endif
#if (defined(FILAMENT_SENSOR) && defined(FILWIDTH_PIN) && FILWIDTH_PIN >= 0) && defined(FILAMENT_LCD_DISPLAY)
else {
lcd_printPGM(PSTR("D:"));
u8g.print(ftostr12ns(filament_width_meas));
lcd_printPGM(PSTR("mm F:"));
u8g.print(itostr3(volumetric_multiplier[active_extruder] * 100));
u8g.print('%');
}
#endif
#if (defined(POWER_CONSUMPTION) && defined(POWER_CONSUMPTION_PIN) && POWER_CONSUMPTION_PIN >= 0) && defined(POWER_CONSUMPTION_LCD_DISPLAY)
#if (defined(FILAMENT_SENSOR) && defined(FILWIDTH_PIN) && FILWIDTH_PIN >= 0) && defined(FILAMENT_LCD_DISPLAY)
else if (millis() < message_millis + 10000)
#else
else
#endif
{
lcd_printPGM(PSTR("P:"));
u8g.print(itostr3(power_consumption_meas));
lcd_printPGM(PSTR("W C:"));
u8g.print(ltostr7(power_consumption_hour));
lcd_printPGM(PSTR("Wh"));
}
#endif
#if (defined(FILAMENT_SENSOR) && defined(FILWIDTH_PIN) && FILWIDTH_PIN >= 0) && defined(FILAMENT_LCD_DISPLAY)
else {
lcd_printPGM(PSTR("D:"));
u8g.print(ftostr12ns(filament_width_meas));
lcd_printPGM(PSTR("mm F:"));
u8g.print(itostr3(volumetric_multiplier[active_extruder] * 100));
u8g.print('%');
}
#endif
#else
u8g.print(lcd_status_message);
u8g.print(lcd_status_message);
#endif
}
......
MarlinKimbra/planner.cpp
View file @ 046d5eff
......@@ -78,12 +78,12 @@ float mintravelfeedrate;
unsigned long axis_steps_per_sqr_second[3 + EXTRUDERS];
#ifdef ENABLE_AUTO_BED_LEVELING
// this holds the required transform to compensate for bed level
matrix_3x3 plan_bed_level_matrix = {
1.0, 0.0, 0.0,
0.0, 1.0, 0.0,
0.0, 0.0, 1.0
};
// this holds the required transform to compensate for bed level
matrix_3x3 plan_bed_level_matrix = {
1.0, 0.0, 0.0,
0.0, 1.0, 0.0,
0.0, 0.0, 1.0
};
#endif // #ifdef ENABLE_AUTO_BED_LEVELING
// The current position of the tool in absolute steps
......@@ -92,74 +92,55 @@ static float previous_speed[NUM_AXIS]; // Speed of previous path line segment
static float previous_nominal_speed; // Nominal speed of previous path line segment
#ifdef AUTOTEMP
float autotemp_max=250;
float autotemp_min=210;
float autotemp_factor=0.1;
bool autotemp_enabled=false;
float autotemp_max = 250;
float autotemp_min = 210;
float autotemp_factor = 0.1;
bool autotemp_enabled = false;
#endif
unsigned char g_uc_extruder_last_move[4] = {0,0,0,0};
//===========================================================================
//=================semi-private variables, used in inline functions =====
//=================semi-private variables, used in inline functions =========
//===========================================================================
block_t block_buffer[BLOCK_BUFFER_SIZE]; // A ring buffer for motion instfructions
volatile unsigned char block_buffer_head; // Index of the next block to be pushed
volatile unsigned char block_buffer_tail; // Index of the block to process now
block_t block_buffer[BLOCK_BUFFER_SIZE]; // A ring buffer for motion instructions
volatile unsigned char block_buffer_head; // Index of the next block to be pushed
volatile unsigned char block_buffer_tail; // Index of the block to process now
//===========================================================================
//=============================private variables ============================
//===========================================================================
#ifdef PREVENT_DANGEROUS_EXTRUDE
float extrude_min_temp=EXTRUDE_MINTEMP;
float extrude_min_temp = EXTRUDE_MINTEMP;
#endif
#ifdef XY_FREQUENCY_LIMIT
#define MAX_FREQ_TIME (1000000.0/XY_FREQUENCY_LIMIT)
// Used for the frequency limit
static unsigned char old_direction_bits = 0; // Old direction bits. Used for speed calculations
static long x_segment_time[3]={MAX_FREQ_TIME + 1,0,0}; // Segment times (in us). Used for speed calculations
static long y_segment_time[3]={MAX_FREQ_TIME + 1,0,0};
// Used for the frequency limit
#define MAX_FREQ_TIME (1000000.0/XY_FREQUENCY_LIMIT)
// Old direction bits. Used for speed calculations
static unsigned char old_direction_bits = 0;
// Segment times (in us). Used for speed calculations
static long x_segment_time[3]={MAX_FREQ_TIME + 1,0,0};
static long y_segment_time[3]={MAX_FREQ_TIME + 1,0,0};
#endif
#if (defined(FILAMENT_SENSOR) && defined(FILWIDTH_PIN) && FILWIDTH_PIN >= 0)
static char meas_sample; //temporary variable to hold filament measurement sample
#ifdef FILAMENT_SENSOR
static char meas_sample; //temporary variable to hold filament measurement sample
#endif
// Returns the index of the next block in the ring buffer
// NOTE: Removed modulo (%) operator, which uses an expensive divide and multiplication.
static int8_t next_block_index(int8_t block_index) {
block_index++;
if (block_index == BLOCK_BUFFER_SIZE) {
block_index = 0;
}
return(block_index);
}
// Returns the index of the previous block in the ring buffer
static int8_t prev_block_index(int8_t block_index) {
if (block_index == 0) {
block_index = BLOCK_BUFFER_SIZE;
}
block_index--;
return(block_index);
}
// Get the next / previous index of the next block in the ring buffer
// NOTE: Using & here (not %) because BLOCK_BUFFER_SIZE is always a power of 2
FORCE_INLINE int8_t next_block_index(int8_t block_index) { return BLOCK_MOD(block_index + 1); }
FORCE_INLINE int8_t prev_block_index(int8_t block_index) { return BLOCK_MOD(block_index - 1); }
//===========================================================================
//=============================functions ============================
//================================ Functions ================================
//===========================================================================
// Calculates the distance (not time) it takes to accelerate from initial_rate to target_rate using the
// given acceleration:
FORCE_INLINE float estimate_acceleration_distance(float initial_rate, float target_rate, float acceleration)
{
if (acceleration!=0) {
return((target_rate*target_rate-initial_rate*initial_rate)/
(2.0*acceleration));
}
else {
return 0.0; // acceleration was 0, set acceleration distance to 0
}
FORCE_INLINE float estimate_acceleration_distance(float initial_rate, float target_rate, float acceleration) {
if (acceleration == 0) return 0; // acceleration was 0, set acceleration distance to 0
return (target_rate * target_rate - initial_rate * initial_rate) / (acceleration * 2);
}
// This function gives you the point at which you must start braking (at the rate of -acceleration) if
......@@ -167,67 +148,55 @@ FORCE_INLINE float estimate_acceleration_distance(float initial_rate, float targ
// a total travel of distance. This can be used to compute the intersection point between acceleration and
// deceleration in the cases where the trapezoid has no plateau (i.e. never reaches maximum speed)
FORCE_INLINE float intersection_distance(float initial_rate, float final_rate, float acceleration, float distance)
{
if (acceleration!=0) {
return((2.0*acceleration*distance-initial_rate*initial_rate+final_rate*final_rate)/
(4.0*acceleration) );
}
else {
return 0.0; // acceleration was 0, set intersection distance to 0
}
FORCE_INLINE float intersection_distance(float initial_rate, float final_rate, float acceleration, float distance) {
if (acceleration == 0) return 0; // acceleration was 0, set intersection distance to 0
return (acceleration * 2 * distance - initial_rate * initial_rate + final_rate * final_rate) / (acceleration * 4);
}
// Calculates trapezoid parameters so that the entry- and exit-speed is compensated by the provided factors.
void calculate_trapezoid_for_block(block_t *block, float entry_factor, float exit_factor) {
unsigned long initial_rate = ceil(block->nominal_rate*entry_factor); // (step/min)
unsigned long final_rate = ceil(block->nominal_rate*exit_factor); // (step/min)
unsigned long initial_rate = ceil(block->nominal_rate * entry_factor); // (step/min)
unsigned long final_rate = ceil(block->nominal_rate * exit_factor); // (step/min)
// Limit minimal step rate (Otherwise the timer will overflow.)
if(initial_rate <120) {
initial_rate=120;
}
if(final_rate < 120) {
final_rate=120;
}
if (initial_rate < 120) initial_rate = 120;
if (final_rate < 120) final_rate = 120;
long acceleration = block->acceleration_st;
int32_t accelerate_steps =
ceil(estimate_acceleration_distance(initial_rate, block->nominal_rate, acceleration));
int32_t decelerate_steps =
floor(estimate_acceleration_distance(block->nominal_rate, final_rate, -acceleration));
int32_t accelerate_steps = ceil(estimate_acceleration_distance(initial_rate, block->nominal_rate, acceleration));
int32_t decelerate_steps = floor(estimate_acceleration_distance(block->nominal_rate, final_rate, -acceleration));
// Calculate the size of Plateau of Nominal Rate.
int32_t plateau_steps = block->step_event_count-accelerate_steps-decelerate_steps;
int32_t plateau_steps = block->step_event_count - accelerate_steps - decelerate_steps;
// Is the Plateau of Nominal Rate smaller than nothing? That means no cruising, and we will
// have to use intersection_distance() to calculate when to abort acceleration and start braking
// in order to reach the final_rate exactly at the end of this block.
if (plateau_steps < 0) {
accelerate_steps = ceil(intersection_distance(initial_rate, final_rate, acceleration, block->step_event_count));
accelerate_steps = max(accelerate_steps,0); // Check limits due to numerical round-off
accelerate_steps = min((uint32_t)accelerate_steps,block->step_event_count);//(We can cast here to unsigned, because the above line ensures that we are above zero)
accelerate_steps = max(accelerate_steps, 0); // Check limits due to numerical round-off
accelerate_steps = min((uint32_t)accelerate_steps, block->step_event_count);//(We can cast here to unsigned, because the above line ensures that we are above zero)
plateau_steps = 0;
}
#ifdef ADVANCE
volatile long initial_advance = block->advance*entry_factor*entry_factor;
volatile long final_advance = block->advance*exit_factor*exit_factor;
#endif // ADVANCE
#ifdef ADVANCE
volatile long initial_advance = block->advance * entry_factor * entry_factor;
volatile long final_advance = block->advance * exit_factor * exit_factor;
#endif // ADVANCE
// block->accelerate_until = accelerate_steps;
// block->decelerate_after = accelerate_steps+plateau_steps;
CRITICAL_SECTION_START; // Fill variables used by the stepper in a critical section
if(block->busy == false) { // Don't update variables if block is busy.
if (!block->busy) { // Don't update variables if block is busy.
block->accelerate_until = accelerate_steps;
block->decelerate_after = accelerate_steps+plateau_steps;
block->initial_rate = initial_rate;
block->final_rate = final_rate;
#ifdef ADVANCE
block->initial_advance = initial_advance;
block->final_advance = final_advance;
#endif //ADVANCE
#ifdef ADVANCE
block->initial_advance = initial_advance;
block->final_advance = final_advance;
#endif //ADVANCE
}
CRITICAL_SECTION_END;
}
......@@ -235,23 +204,12 @@ void calculate_trapezoid_for_block(block_t *block, float entry_factor, float exi
// Calculates the maximum allowable speed at this point when you must be able to reach target_velocity using the
// acceleration within the allotted distance.
FORCE_INLINE float max_allowable_speed(float acceleration, float target_velocity, float distance) {
return sqrt(target_velocity*target_velocity-2*acceleration*distance);
return sqrt(target_velocity * target_velocity - 2 * acceleration * distance);
}
// "Junction jerk" in this context is the immediate change in speed at the junction of two blocks.
// This method will calculate the junction jerk as the euclidean distance between the nominal
// velocities of the respective blocks.
//inline float junction_jerk(block_t *before, block_t *after) {
// return sqrt(
// pow((before->speed_x-after->speed_x), 2)+pow((before->speed_y-after->speed_y), 2));
//}
// The kernel called by planner_recalculate() when scanning the plan from last to first entry.
void planner_reverse_pass_kernel(block_t *previous, block_t *current, block_t *next) {
if(!current) {
return;
}
if (!current) return;
if (next) {
// If entry speed is already at the maximum entry speed, no need to recheck. Block is cruising.
......@@ -261,9 +219,9 @@ void planner_reverse_pass_kernel(block_t *previous, block_t *current, block_t *n
// If nominal length true, max junction speed is guaranteed to be reached. Only compute
// for max allowable speed if block is decelerating and nominal length is false.
if ((!current->nominal_length_flag) && (current->max_entry_speed > next->entry_speed)) {
current->entry_speed = min( current->max_entry_speed,
max_allowable_speed(-current->acceleration,next->entry_speed,current->millimeters));
if (!current->nominal_length_flag && current->max_entry_speed > next->entry_speed) {
current->entry_speed = min(current->max_entry_speed,
max_allowable_speed(-current->acceleration, next->entry_speed, current->millimeters));
}
else {
current->entry_speed = current->max_entry_speed;
......@@ -281,15 +239,14 @@ void planner_reverse_pass() {
//Make a local copy of block_buffer_tail, because the interrupt can alter it
CRITICAL_SECTION_START;
unsigned char tail = block_buffer_tail;
unsigned char tail = block_buffer_tail;
CRITICAL_SECTION_END
if(((block_buffer_head-tail + BLOCK_BUFFER_SIZE) & (BLOCK_BUFFER_SIZE - 1)) > 3) {
block_index = (block_buffer_head - 3) & (BLOCK_BUFFER_SIZE - 1);
block_t *block[3] = {
NULL, NULL, NULL };
while(block_index != tail) {
block_index = prev_block_index(block_index);
if (BLOCK_MOD(block_buffer_head - tail + BLOCK_BUFFER_SIZE) > 3) { // moves queued
block_index = BLOCK_MOD(block_buffer_head - 3);
block_t *block[3] = { NULL, NULL, NULL };
while (block_index != tail) {
block_index = prev_block_index(block_index);
block[2]= block[1];
block[1]= block[0];
block[0] = &block_buffer[block_index];
......@@ -300,9 +257,7 @@ void planner_reverse_pass() {
// The kernel called by planner_recalculate() when scanning the plan from first to last entry.
void planner_forward_pass_kernel(block_t *previous, block_t *current, block_t *next) {
if(!previous) {
return;
}
if (!previous) return;
// If the previous block is an acceleration block, but it is not long enough to complete the
// full speed change within the block, we need to adjust the entry speed accordingly. Entry
......@@ -310,8 +265,8 @@ void planner_forward_pass_kernel(block_t *previous, block_t *current, block_t *n
// If nominal length is true, max junction speed is guaranteed to be reached. No need to recheck.
if (!previous->nominal_length_flag) {
if (previous->entry_speed < current->entry_speed) {
double entry_speed = min( current->entry_speed,
max_allowable_speed(-previous->acceleration,previous->entry_speed,previous->millimeters) );
double entry_speed = min(current->entry_speed,
max_allowable_speed(-previous->acceleration, previous->entry_speed, previous->millimeters));
// Check for junction speed change
if (current->entry_speed != entry_speed) {
......@@ -322,18 +277,17 @@ void planner_forward_pass_kernel(block_t *previous, block_t *current, block_t *n
}
}
// planner_recalculate() needs to go over the current plan twice. Once in reverse and once forward. This
// planner_recalculate() needs to go over the current plan twice. Once in reverse and once forward. This
// implements the forward pass.
void planner_forward_pass() {
uint8_t block_index = block_buffer_tail;
block_t *block[3] = {
NULL, NULL, NULL };
block_t *block[3] = { NULL, NULL, NULL };
while(block_index != block_buffer_head) {
while (block_index != block_buffer_head) {
block[0] = block[1];
block[1] = block[2];
block[2] = &block_buffer[block_index];
planner_forward_pass_kernel(block[0],block[1],block[2]);
planner_forward_pass_kernel(block[0], block[1], block[2]);
block_index = next_block_index(block_index);
}
planner_forward_pass_kernel(block[1], block[2], NULL);
......@@ -347,24 +301,24 @@ void planner_recalculate_trapezoids() {
block_t *current;
block_t *next = NULL;
while(block_index != block_buffer_head) {
while (block_index != block_buffer_head) {
current = next;
next = &block_buffer[block_index];
if (current) {
// Recalculate if current block entry or exit junction speed has changed.
if (current->recalculate_flag || next->recalculate_flag) {
// NOTE: Entry and exit factors always > 0 by all previous logic operations.
calculate_trapezoid_for_block(current, current->entry_speed/current->nominal_speed,
next->entry_speed/current->nominal_speed);
float nom = current->nominal_speed;
calculate_trapezoid_for_block(current, current->entry_speed / nom, next->entry_speed / nom);
current->recalculate_flag = false; // Reset current only to ensure next trapezoid is computed
}
}
block_index = next_block_index( block_index );
}
// Last/newest block in buffer. Exit speed is set with MINIMUM_PLANNER_SPEED. Always recalculated.
if(next != NULL) {
calculate_trapezoid_for_block(next, next->entry_speed/next->nominal_speed,
MINIMUM_PLANNER_SPEED/next->nominal_speed);
if (next) {
float nom = next->nominal_speed;
calculate_trapezoid_for_block(next, next->entry_speed / nom, MINIMUM_PLANNER_SPEED / nom);
next->recalculate_flag = false;
}
}
......@@ -393,161 +347,130 @@ void planner_recalculate() {
}
void plan_init() {
block_buffer_head = 0;
block_buffer_tail = 0;
block_buffer_head = block_buffer_tail = 0;
memset(position, 0, sizeof(position)); // clear position
previous_speed[0] = 0.0;
previous_speed[1] = 0.0;
previous_speed[2] = 0.0;
previous_speed[3] = 0.0;
for (int i=0; i<NUM_AXIS; i++) previous_speed[i] = 0.0;
previous_nominal_speed = 0.0;
}
#ifdef AUTOTEMP
void getHighESpeed()
{
static float oldt=0;
if(!autotemp_enabled){
return;
}
if(degTargetHotend0()+2<autotemp_min) { //probably temperature set to zero.
return; //do nothing
}
void getHighESpeed() {
static float oldt = 0;
float high=0.0;
uint8_t block_index = block_buffer_tail;
if (!autotemp_enabled) return;
if (degTargetHotend0() + 2 < autotemp_min) return; // probably temperature set to zero.
while(block_index != block_buffer_head) {
if((block_buffer[block_index].steps_x != 0) ||
(block_buffer[block_index].steps_y != 0) ||
(block_buffer[block_index].steps_z != 0)) {
float se=(float(block_buffer[block_index].steps_e)/float(block_buffer[block_index].step_event_count))*block_buffer[block_index].nominal_speed;
//se; mm/sec;
if(se>high)
{
high=se;
float high = 0.0;
uint8_t block_index = block_buffer_tail;
while (block_index != block_buffer_head) {
block_t *block = &block_buffer[block_index];
if (block->steps[X_AXIS] || block->steps[Y_AXIS] || block->steps[Z_AXIS]) {
float se = (float)block->steps[E_AXIS] / block->step_event_count * block->nominal_speed; // mm/sec;
if (se > high) high = se;
}
block_index = next_block_index(block_index);
}
block_index = (block_index+1) & (BLOCK_BUFFER_SIZE - 1);
}
float g=autotemp_min+high*autotemp_factor;
float t=g;
if(t<autotemp_min)
t=autotemp_min;
if(t>autotemp_max)
t=autotemp_max;
if(oldt>t)
{
t=AUTOTEMP_OLDWEIGHT*oldt+(1-AUTOTEMP_OLDWEIGHT)*t;
float t = autotemp_min + high * autotemp_factor;
if (t < autotemp_min) t = autotemp_min;
if (t > autotemp_max) t = autotemp_max;
if (oldt > t) t = AUTOTEMP_OLDWEIGHT * oldt + (1 - AUTOTEMP_OLDWEIGHT) * t;
oldt = t;
setTargetHotend0(t);
}
oldt=t;
setTargetHotend0(t);
}
#endif
void check_axes_activity()
{
unsigned char x_active = 0;
unsigned char y_active = 0;
unsigned char z_active = 0;
unsigned char e_active = 0;
unsigned char tail_fan_speed = fanSpeed;
void check_axes_activity() {
unsigned char axis_active[NUM_AXIS],
tail_fan_speed = fanSpeed;
#ifdef BARICUDA
unsigned char tail_valve_pressure = ValvePressure;
unsigned char tail_e_to_p_pressure = EtoPPressure;
unsigned char tail_valve_pressure = ValvePressure,
tail_e_to_p_pressure = EtoPPressure;
#endif
#ifdef LASERBEAM
unsigned char tail_laser_ttl_modulation = laser_ttl_modulation;
unsigned char tail_laser_ttl_modulation = laser_ttl_modulation;
#endif
block_t *block;
if(block_buffer_tail != block_buffer_head)
{
if (blocks_queued()) {
uint8_t block_index = block_buffer_tail;
tail_fan_speed = block_buffer[block_index].fan_speed;
#ifdef BARICUDA
tail_valve_pressure = block_buffer[block_index].valve_pressure;
tail_e_to_p_pressure = block_buffer[block_index].e_to_p_pressure;
block = &block_buffer[block_index];
tail_valve_pressure = block->valve_pressure;
tail_e_to_p_pressure = block->e_to_p_pressure;
#endif
#ifdef LASERBEAM
tail_laser_ttl_modulation = block_buffer[block_index].laser_ttlmodulation;
tail_laser_ttl_modulation = block_buffer[block_index].laser_ttlmodulation;
#endif
while(block_index != block_buffer_head)
{
while (block_index != block_buffer_head) {
block = &block_buffer[block_index];
if(block->steps_x != 0) x_active++;
if(block->steps_y != 0) y_active++;
if(block->steps_z != 0) z_active++;
if(block->steps_e != 0) e_active++;
block_index = (block_index+1) & (BLOCK_BUFFER_SIZE - 1);
for (int i=0; i<NUM_AXIS; i++) if (block->steps[i]) axis_active[i]++;
block_index = next_block_index(block_index);
}
}
if((DISABLE_X) && (x_active == 0)) disable_x();
if((DISABLE_Y) && (y_active == 0)) disable_y();
if((DISABLE_Z) && (z_active == 0)) disable_z();
if((DISABLE_E) && (e_active == 0))
{
if (DISABLE_X && !axis_active[X_AXIS]) disable_x();
if (DISABLE_Y && !axis_active[Y_AXIS]) disable_y();
if (DISABLE_Z && !axis_active[Z_AXIS]) disable_z();
if (DISABLE_E && !axis_active[E_AXIS]) {
disable_e0();
disable_e1();
disable_e2();
disable_e2();
disable_e3();
}
#if defined(FAN_PIN) && FAN_PIN > -1
#ifdef FAN_KICKSTART_TIME
static unsigned long fan_kick_end;
if (tail_fan_speed) {
if (fan_kick_end == 0) {
// Just starting up fan - run at full power.
fan_kick_end = millis() + FAN_KICKSTART_TIME;
tail_fan_speed = 255;
} else if (fan_kick_end > millis())
// Fan still spinning up.
tail_fan_speed = 255;
} else {
fan_kick_end = 0;
}
#endif//FAN_KICKSTART_TIME
#ifdef FAN_SOFT_PWM
fanSpeedSoftPwm = tail_fan_speed;
#else
analogWrite(FAN_PIN,tail_fan_speed);
#endif//!FAN_SOFT_PWM
#endif//FAN_PIN > -1
#ifdef AUTOTEMP
getHighESpeed();
#endif
#ifdef BARICUDA
#if defined(HEATER_1_PIN) && HEATER_1_PIN > -1
analogWrite(HEATER_1_PIN,tail_valve_pressure);
#if defined(FAN_PIN) && FAN_PIN > -1 // HAS_FAN
#ifdef FAN_KICKSTART_TIME
static unsigned long fan_kick_end;
if (tail_fan_speed) {
if (fan_kick_end == 0) {
// Just starting up fan - run at full power.
fan_kick_end = millis() + FAN_KICKSTART_TIME;
tail_fan_speed = 255;
} else if (fan_kick_end > millis())
// Fan still spinning up.
tail_fan_speed = 255;
} else {
fan_kick_end = 0;
}
#endif//FAN_KICKSTART_TIME
#ifdef FAN_SOFT_PWM
fanSpeedSoftPwm = tail_fan_speed;
#else
analogWrite(FAN_PIN, tail_fan_speed);
#endif //!FAN_SOFT_PWM
#endif //FAN_PIN > -1
#ifdef AUTOTEMP
getHighESpeed();
#endif
#if defined(HEATER_2_PIN) && HEATER_2_PIN > -1
#ifdef BARICUDA
#if defined(HEATER_1_PIN) && HEATER_1_PIN > -1 // HAS_HEATER_1
analogWrite(HEATER_1_PIN,tail_valve_pressure);
#endif
#if defined(HEATER_2_PIN) && HEATER_2_PIN > -1 // HAS_HEATER_2
analogWrite(HEATER_2_PIN,tail_e_to_p_pressure);
#endif
#endif
#endif
// add Laser TTL Modulation(PWM) Control
#ifdef LASERBEAM
analogWrite(LASER_TTL_PIN, tail_laser_ttl_modulation);
#endif
// add Laser TTL Modulation(PWM) Control
#ifdef LASERBEAM
analogWrite(LASER_TTL_PIN, tail_laser_ttl_modulation);
#endif
}
float junction_deviation = 0.1;
// Add a new linear movement to the buffer. steps_x, _y and _z is the absolute position in
// Add a new linear movement to the buffer. steps[X_AXIS], _y and _z is the absolute position in
// mm. Microseconds specify how many microseconds the move should take to perform. To aid acceleration
// calculation the caller must also provide the physical length of the line in millimeters.
#ifdef ENABLE_AUTO_BED_LEVELING
void plan_buffer_line(float x, float y, float z, const float &e, float feed_rate, const uint8_t &extruder, const uint8_t &driver)
void plan_buffer_line(float x, float y, float z, const float &e, float feed_rate, const uint8_t &extruder, const uint8_t &driver)
#else
void plan_buffer_line(const float &x, const float &y, const float &z, const float &e, float feed_rate, const uint8_t &extruder, const uint8_t &driver)
void plan_buffer_line(const float &x, const float &y, const float &z, const float &e, float feed_rate, const uint8_t &extruder, const uint8_t &driver)
#endif //ENABLE_AUTO_BED_LEVELING
{
// Calculate the buffer head after we push this byte
......@@ -555,68 +478,64 @@ void plan_buffer_line(const float &x, const float &y, const float &z, const floa
// If the buffer is full: good! That means we are well ahead of the robot.
// Rest here until there is room in the buffer.
while(block_buffer_tail == next_buffer_head)
{
while(block_buffer_tail == next_buffer_head) {
manage_heater();
manage_inactivity();
lcd_update();
}
#ifdef ENABLE_AUTO_BED_LEVELING
apply_rotation_xyz(plan_bed_level_matrix, x, y, z);
#endif // ENABLE_AUTO_BED_LEVELING
#ifdef ENABLE_AUTO_BED_LEVELING
apply_rotation_xyz(plan_bed_level_matrix, x, y, z);
#endif // ENABLE_AUTO_BED_LEVELING
// The target position of the tool in absolute steps
// Calculate target position in absolute steps
//this should be done after the wait, because otherwise a M92 code within the gcode disrupts this calculation somehow
long target[4];
target[X_AXIS] = lround(x*axis_steps_per_unit[X_AXIS]);
target[Y_AXIS] = lround(y*axis_steps_per_unit[Y_AXIS]);
target[Z_AXIS] = lround(z*axis_steps_per_unit[Z_AXIS]);
target[E_AXIS] = lround(e*axis_steps_per_unit[E_AXIS + active_extruder]);
#ifdef PREVENT_DANGEROUS_EXTRUDE
#ifdef NPR2
if(target[E_AXIS]!=position[E_AXIS])
{
if (active_extruder!=1)
{
if(degHotend(active_extruder)<extrude_min_temp && !debugDryrun())
{
position[E_AXIS]=target[E_AXIS]; //behave as if the move really took place, but ignore E part
SERIAL_ECHO_START;
SERIAL_ECHOLNPGM(MSG_ERR_COLD_EXTRUDE_STOP);
}
}
#else // NO NPR2
if(target[E_AXIS]!=position[E_AXIS])
{
if(degHotend(active_extruder)<extrude_min_temp && !debugDryrun())
{
position[E_AXIS]=target[E_AXIS]; //behave as if the move really took place, but ignore E part
SERIAL_ECHO_START;
SERIAL_ECHOLNPGM(MSG_ERR_COLD_EXTRUDE_STOP);
}
#endif // NPR2
#ifdef PREVENT_LENGTHY_EXTRUDE
if(labs(target[E_AXIS]-position[E_AXIS])>axis_steps_per_unit[active_extruder+3]*EXTRUDE_MAXLENGTH)
{
#ifdef EASY_LOAD
if (!allow_lengthy_extrude_once) {
#endif
position[E_AXIS]=target[E_AXIS]; //behave as if the move really took place, but ignore E part
SERIAL_ECHO_START;
SERIAL_ECHOLNPGM(MSG_ERR_LONG_EXTRUDE_STOP);
#ifdef EASY_LOAD
}
allow_lengthy_extrude_once = false;
#endif
long target[NUM_AXIS];
target[X_AXIS] = lround(x * axis_steps_per_unit[X_AXIS]);
target[Y_AXIS] = lround(y * axis_steps_per_unit[Y_AXIS]);
target[Z_AXIS] = lround(z * axis_steps_per_unit[Z_AXIS]);
target[E_AXIS] = lround(e * axis_steps_per_unit[E_AXIS + active_extruder]);
float dx = target[X_AXIS] - position[X_AXIS],
dy = target[Y_AXIS] - position[Y_AXIS],
dz = target[Z_AXIS] - position[Z_AXIS],
de = target[E_AXIS] - position[E_AXIS];
#ifdef PREVENT_DANGEROUS_EXTRUDE
if (de) {
#ifdef NPR2
if (active_extruder!=1) {
if(degHotend(active_extruder) < extrude_min_temp && !debugDryrun()) {
position[E_AXIS] = target[E_AXIS]; //behave as if the move really took place, but ignore E part
SERIAL_ECHO_START;
SERIAL_ECHOLNPGM(MSG_ERR_COLD_EXTRUDE_STOP);
}
}
#else // NO NPR2
if(degHotend(active_extruder) < extrude_min_temp && !debugDryrun()) {
position[E_AXIS] = target[E_AXIS]; //behave as if the move really took place, but ignore E part
SERIAL_ECHO_START;
SERIAL_ECHOLNPGM(MSG_ERR_COLD_EXTRUDE_STOP);
}
#endif // NPR2
#ifdef PREVENT_LENGTHY_EXTRUDE
if(labs(de) > axis_steps_per_unit[E_AXIS + active_extruder] * EXTRUDE_MAXLENGTH) {
#ifdef EASY_LOAD
if (!allow_lengthy_extrude_once) {
#endif
position[E_AXIS] = target[E_AXIS]; //behave as if the move really took place, but ignore E part
SERIAL_ECHO_START;
SERIAL_ECHOLNPGM(MSG_ERR_LONG_EXTRUDE_STOP);
#ifdef EASY_LOAD
}
allow_lengthy_extrude_once = false;
#endif
}
#endif // PREVENT_LENGTHY_EXTRUDE
}
#endif // PREVENT_LENGTHY_EXTRUDE
}
#endif // PREVENT_DANGEROUS_EXTRUDE
#endif // PREVENT_DANGEROUS_EXTRUDE
// Prepare to set up new block
block_t *block = &block_buffer[block_buffer_head];
......@@ -625,140 +544,125 @@ void plan_buffer_line(const float &x, const float &y, const float &z, const floa
block->busy = false;
// Number of steps for each axis
#ifndef COREXY
// default non-h-bot planning
block->steps_x = labs(target[X_AXIS]-position[X_AXIS]);
block->steps_y = labs(target[Y_AXIS]-position[Y_AXIS]);
#else
// corexy planning
// these equations follow the form of the dA and dB equations on http://www.corexy.com/theory.html
block->steps_x = labs((target[X_AXIS]-position[X_AXIS]) + (target[Y_AXIS]-position[Y_AXIS]));
block->steps_y = labs((target[X_AXIS]-position[X_AXIS]) - (target[Y_AXIS]-position[Y_AXIS]));
#endif
block->steps_z = labs(target[Z_AXIS]-position[Z_AXIS]);
block->steps_e = labs(target[E_AXIS]-position[E_AXIS]);
block->steps_e *= volumetric_multiplier[active_extruder];
block->steps_e *= extruder_multiplier[active_extruder];
block->steps_e /= 100;
block->step_event_count = max(block->steps_x, max(block->steps_y, max(block->steps_z, block->steps_e)));
#ifdef COREXY
// corexy planning
// these equations follow the form of the dA and dB equations on http://www.corexy.com/theory.html
block->steps[A_AXIS] = labs(dx + dy);
block->steps[B_AXIS] = labs(dx - dy);
#else
// default non-h-bot planning
block->steps[X_AXIS] = labs(dx);
block->steps[Y_AXIS] = labs(dy);
#endif
block->steps[Z_AXIS] = labs(dz);
block->steps[E_AXIS] = labs(de);
block->steps[E_AXIS] *= volumetric_multiplier[active_extruder];
block->steps[E_AXIS] *= extruder_multiplier[active_extruder];
block->steps[E_AXIS] /= 100;
block->step_event_count = max(block->steps[X_AXIS], max(block->steps[Y_AXIS], max(block->steps[Z_AXIS], block->steps[E_AXIS])));
// Bail if this is a zero-length block
if (block->step_event_count <= dropsegments)
{
return;
}
if (block->step_event_count <= dropsegments) return;
block->fan_speed = fanSpeed;
#ifdef BARICUDA
block->valve_pressure = ValvePressure;
block->e_to_p_pressure = EtoPPressure;
block->valve_pressure = ValvePressure;
block->e_to_p_pressure = EtoPPressure;
#endif
// Add update block variables for LASER BEAM control
#ifdef LASERBEAM
block->laser_ttlmodulation = laser_ttl_modulation;
block->laser_ttlmodulation = laser_ttl_modulation;
#endif
// Compute direction bits for this block
block->direction_bits = 0;
#ifndef COREXY
if (target[X_AXIS] < position[X_AXIS])
{
block->direction_bits |= BIT(X_AXIS);
}
if (target[Y_AXIS] < position[Y_AXIS])
{
block->direction_bits |= BIT(Y_AXIS);
}
#else //COREXY
if (target[X_AXIS] < position[X_AXIS])
{
block->direction_bits |= BIT(X_HEAD);
}
if (target[Y_AXIS] < position[Y_AXIS])
{
block->direction_bits |= BIT(Y_HEAD);
}
if ((target[X_AXIS]-position[X_AXIS]) + (target[Y_AXIS]-position[Y_AXIS]) < 0)
{
block->direction_bits |= BIT(X_AXIS);
}
if ((target[X_AXIS]-position[X_AXIS]) - (target[Y_AXIS]-position[Y_AXIS]) < 0)
{
block->direction_bits |= BIT(Y_AXIS);
}
#endif //COREXY
if (target[Z_AXIS] < position[Z_AXIS])
{
block->direction_bits |= BIT(Z_AXIS);
}
if (target[E_AXIS] < position[E_AXIS])
{
block->direction_bits |= BIT(E_AXIS);
}
uint8_t db = 0;
#ifdef COREXY
if (dx < 0) db |= BIT(X_HEAD); // Save the real Extruder (head) direction in X Axis
if (dy < 0) db |= BIT(Y_HEAD); // ...and Y
if (dx + dy < 0) db |= BIT(A_AXIS); // Motor A direction
if (dx - dy < 0) db |= BIT(B_AXIS); // Motor B direction
#else
if (dx < 0) db |= BIT(X_AXIS);
if (dy < 0) db |= BIT(Y_AXIS);
#endif
if (dz < 0) db |= BIT(Z_AXIS);
if (de < 0) db |= BIT(E_AXIS);
block->direction_bits = db;
block->active_driver = driver;
//enable active axes
#ifdef COREXY
if((block->steps_x != 0) || (block->steps_y != 0)) {
enable_x();
enable_y();
if (block->steps[A_AXIS] || block->steps[B_AXIS]) {
enable_x();
enable_y();
}
#else //NO COREXY
if(block->steps_x != 0) enable_x();
if(block->steps_y != 0) enable_y();
#endif //NOCOREXY
#else
if (block->steps[X_AXIS]) enable_x();
if (block->steps[Y_AXIS]) enable_y();
#endif
#ifndef Z_LATE_ENABLE
if(block->steps_z != 0) enable_z();
if (block->steps[Z_AXIS]) enable_z();
#endif
// Enable extruder(s)
if(block->steps_e != 0)
{
if (block->steps[E_AXIS]) {
#if !defined(MKR4) && !defined(NPR2)
if (DISABLE_INACTIVE_EXTRUDER) //enable only selected extruder
{
if (DISABLE_INACTIVE_EXTRUDER) { //enable only selected extruder
if(g_uc_extruder_last_move[0] > 0) g_uc_extruder_last_move[0]--;
if(g_uc_extruder_last_move[1] > 0) g_uc_extruder_last_move[1]--;
if(g_uc_extruder_last_move[2] > 0) g_uc_extruder_last_move[2]--;
if(g_uc_extruder_last_move[3] > 0) g_uc_extruder_last_move[3]--;
for (int i=0; i<EXTRUDERS; i++)
if (g_uc_extruder_last_move[i] > 0) g_uc_extruder_last_move[i]--;
switch(extruder)
{
switch(extruder) {
case 0:
enable_e0();
g_uc_extruder_last_move[0] = BLOCK_BUFFER_SIZE*2;
if(g_uc_extruder_last_move[1] == 0) disable_e1();
if(g_uc_extruder_last_move[2] == 0) disable_e2();
if(g_uc_extruder_last_move[3] == 0) disable_e3();
break;
case 1:
enable_e1();
g_uc_extruder_last_move[1] = BLOCK_BUFFER_SIZE*2;
if(g_uc_extruder_last_move[0] == 0) disable_e0();
if(g_uc_extruder_last_move[2] == 0) disable_e2();
if(g_uc_extruder_last_move[3] == 0) disable_e3();
break;
case 2:
enable_e2();
g_uc_extruder_last_move[2] = BLOCK_BUFFER_SIZE*2;
if(g_uc_extruder_last_move[0] == 0) disable_e0();
if(g_uc_extruder_last_move[1] == 0) disable_e1();
if(g_uc_extruder_last_move[3] == 0) disable_e3();
break;
case 3:
enable_e3();
g_uc_extruder_last_move[3] = BLOCK_BUFFER_SIZE*2;
if(g_uc_extruder_last_move[0] == 0) disable_e0();
if(g_uc_extruder_last_move[1] == 0) disable_e1();
if(g_uc_extruder_last_move[2] == 0) disable_e2();
g_uc_extruder_last_move[0] = BLOCK_BUFFER_SIZE * 2;
#if EXTRUDERS > 1
if (g_uc_extruder_last_move[1] == 0) disable_e1();
#if EXTRUDERS > 2
if (g_uc_extruder_last_move[2] == 0) disable_e2();
#if EXTRUDERS > 3
if (g_uc_extruder_last_move[3] == 0) disable_e3();
#endif
#endif
#endif
break;
#if EXTRUDERS > 1
case 1:
enable_e1();
g_uc_extruder_last_move[1] = BLOCK_BUFFER_SIZE*2;
if (g_uc_extruder_last_move[0] == 0) disable_e0();
#if EXTRUDERS > 2
if (g_uc_extruder_last_move[2] == 0) disable_e2();
#if EXTRUDERS > 3
if (g_uc_extruder_last_move[3] == 0) disable_e3();
#endif
#endif
break;
#if EXTRUDERS > 2
case 2:
enable_e2();
g_uc_extruder_last_move[2] = BLOCK_BUFFER_SIZE*2;
if (g_uc_extruder_last_move[0] == 0) disable_e0();
if (g_uc_extruder_last_move[1] == 0) disable_e1();
#if EXTRUDERS > 3
if (g_uc_extruder_last_move[3] == 0) disable_e3();
#endif
break;
#if EXTRUDERS > 3
case 3:
enable_e3();
g_uc_extruder_last_move[3] = BLOCK_BUFFER_SIZE*2;
if (g_uc_extruder_last_move[0] == 0) disable_e0();
if (g_uc_extruder_last_move[1] == 0) disable_e1();
if (g_uc_extruder_last_move[2] == 0) disable_e2();
break;
#endif // EXTRUDERS > 3
#endif // EXTRUDERS > 2
#endif // EXTRUDERS > 1
}
}
else //enable all
......@@ -785,133 +689,110 @@ block->steps_y = labs((target[X_AXIS]-position[X_AXIS]) - (target[Y_AXIS]-positi
break;
}
#endif //!MKR4 && !NPR2
if (feed_rate < minimumfeedrate) feed_rate = minimumfeedrate;
}
else if (feed_rate < mintravelfeedrate) feed_rate = mintravelfeedrate;
if (block->steps_e == 0)
{
if(feed_rate<mintravelfeedrate) feed_rate=mintravelfeedrate;
}
else
{
if(feed_rate<minimumfeedrate) feed_rate=minimumfeedrate;
}
/* This part of the code calculates the total length of the movement.
For cartesian bots, the X_AXIS is the real X movement and same for Y_AXIS.
But for corexy bots, that is not true. The "X_AXIS" and "Y_AXIS" motors (that should be named to A_AXIS
and B_AXIS) cannot be used for X and Y length, because A=X+Y and B=X-Y.
So we need to create other 2 "AXIS", named X_HEAD and Y_HEAD, meaning the real displacement of the Head.
Having the real displacement of the head, we can calculate the total movement length and apply the desired speed.
*/
#ifndef COREXY
float delta_mm[4];
delta_mm[X_AXIS] = (target[X_AXIS]-position[X_AXIS])/axis_steps_per_unit[X_AXIS];
delta_mm[Y_AXIS] = (target[Y_AXIS]-position[Y_AXIS])/axis_steps_per_unit[Y_AXIS];
#else
/**
* This part of the code calculates the total length of the movement.
* For cartesian bots, the X_AXIS is the real X movement and same for Y_AXIS.
* But for corexy bots, that is not true. The "X_AXIS" and "Y_AXIS" motors (that should be named to A_AXIS
* and B_AXIS) cannot be used for X and Y length, because A=X+Y and B=X-Y.
* So we need to create other 2 "AXIS", named X_HEAD and Y_HEAD, meaning the real displacement of the Head.
* Having the real displacement of the head, we can calculate the total movement length and apply the desired speed.
*/
#ifdef COREXY
float delta_mm[6];
delta_mm[X_HEAD] = (target[X_AXIS]-position[X_AXIS])/axis_steps_per_unit[X_AXIS];
delta_mm[Y_HEAD] = (target[Y_AXIS]-position[Y_AXIS])/axis_steps_per_unit[Y_AXIS];
delta_mm[X_AXIS] = ((target[X_AXIS]-position[X_AXIS]) + (target[Y_AXIS]-position[Y_AXIS]))/axis_steps_per_unit[X_AXIS];
delta_mm[Y_AXIS] = ((target[X_AXIS]-position[X_AXIS]) - (target[Y_AXIS]-position[Y_AXIS]))/axis_steps_per_unit[Y_AXIS];
delta_mm[X_HEAD] = dx / axis_steps_per_unit[A_AXIS];
delta_mm[Y_HEAD] = dy / axis_steps_per_unit[B_AXIS];
delta_mm[A_AXIS] = (dx + dy) / axis_steps_per_unit[A_AXIS];
delta_mm[B_AXIS] = (dx - dy) / axis_steps_per_unit[B_AXIS];
#else
float delta_mm[4];
delta_mm[X_AXIS] = dx / axis_steps_per_unit[X_AXIS];
delta_mm[Y_AXIS] = dy / axis_steps_per_unit[Y_AXIS];
#endif
delta_mm[Z_AXIS] = (target[Z_AXIS]-position[Z_AXIS])/axis_steps_per_unit[Z_AXIS];
delta_mm[E_AXIS] = ((target[E_AXIS]-position[E_AXIS])/axis_steps_per_unit[active_extruder+3])*volumetric_multiplier[active_extruder]*extruder_multiplier[active_extruder]/100.0;
if ( block->steps_x <=dropsegments && block->steps_y <=dropsegments && block->steps_z <=dropsegments )
{
delta_mm[Z_AXIS] = dz / axis_steps_per_unit[Z_AXIS];
delta_mm[E_AXIS] = (de / axis_steps_per_unit[E_AXIS + active_extruder]) * volumetric_multiplier[active_extruder] * extruder_multiplier[active_extruder] / 100.0;
if (block->steps[X_AXIS] <= dropsegments && block->steps[Y_AXIS] <= dropsegments && block->steps[Z_AXIS] <= dropsegments) {
block->millimeters = fabs(delta_mm[E_AXIS]);
}
else
{
#ifndef COREXY
block->millimeters = sqrt(square(delta_mm[X_AXIS]) + square(delta_mm[Y_AXIS]) + square(delta_mm[Z_AXIS]));
#else
block->millimeters = sqrt(square(delta_mm[X_HEAD]) + square(delta_mm[Y_HEAD]) + square(delta_mm[Z_AXIS]));
#endif
}
float inverse_millimeters = 1.0/block->millimeters; // Inverse millimeters to remove multiple divides
else {
block->millimeters = sqrt(
#ifdef COREXY
square(delta_mm[X_HEAD]) + square(delta_mm[Y_HEAD])
#else
square(delta_mm[X_AXIS]) + square(delta_mm[Y_AXIS])
#endif
+ square(delta_mm[Z_AXIS])
);
}
float inverse_millimeters = 1.0 / block->millimeters; // Inverse millimeters to remove multiple divides
// Calculate speed in mm/second for each axis. No divide by zero due to previous checks.
// Calculate speed in mm/second for each axis. No divide by zero due to previous checks.
float inverse_second = feed_rate * inverse_millimeters;
int moves_queued=(block_buffer_head-block_buffer_tail + BLOCK_BUFFER_SIZE) & (BLOCK_BUFFER_SIZE - 1);
int moves_queued = movesplanned();
// slow down when de buffer starts to empty, rather than wait at the corner for a buffer refill
#ifdef OLD_SLOWDOWN
if(moves_queued < (BLOCK_BUFFER_SIZE * 0.5) && moves_queued > 1)
feed_rate = feed_rate*moves_queued / (BLOCK_BUFFER_SIZE * 0.5);
#endif
#ifdef OLD_SLOWDOWN
if(moves_queued < (BLOCK_BUFFER_SIZE * 0.5) && moves_queued > 1)
feed_rate = feed_rate*moves_queued / (BLOCK_BUFFER_SIZE * 0.5);
#endif
#ifdef SLOWDOWN
// segment time im micro seconds
unsigned long segment_time = lround(1000000.0/inverse_second);
if ((moves_queued > 1) && (moves_queued < (BLOCK_BUFFER_SIZE * 0.5)))
{
if (segment_time < minsegmenttime)
{ // buffer is draining, add extra time. The amount of time added increases if the buffer is still emptied more.
inverse_second=1000000.0/(segment_time+lround(2*(minsegmenttime-segment_time)/moves_queued));
#ifdef XY_FREQUENCY_LIMIT
segment_time = lround(1000000.0/inverse_second);
#endif
#ifdef SLOWDOWN
// segment time im micro seconds
unsigned long segment_time = lround(1000000.0 / inverse_second);
if ((moves_queued > 1) && (moves_queued < (BLOCK_BUFFER_SIZE * 0.5))) {
if (segment_time < minsegmenttime) {
// buffer is draining, add extra time. The amount of time added increases if the buffer is still emptied more.
inverse_second = 1000000.0 / (segment_time + lround(2 * (minsegmenttime - segment_time) / moves_queued));
#ifdef XY_FREQUENCY_LIMIT
segment_time = lround(1000000.0 / inverse_second);
#endif
}
}
}
#endif // SLOWDOWN
// END OF SLOW DOWN SECTION
#endif // SLOWDOWN
// END OF SLOW DOWN SECTION
block->nominal_speed = block->millimeters * inverse_second; // (mm/sec) Always > 0
block->nominal_rate = ceil(block->step_event_count * inverse_second); // (step/sec) Always > 0
#if (defined(FILAMENT_SENSOR) && defined(FILWIDTH_PIN) && FILWIDTH_PIN >= 0)
//FMM update ring buffer used for delay with filament measurements
if((extruder==FILAMENT_SENSOR_EXTRUDER_NUM) && (delay_index2 > -1)) //only for extruder with filament sensor and if ring buffer is initialized
{
delay_dist = delay_dist + delta_mm[E_AXIS]; //increment counter with next move in e axis
while (delay_dist >= (10*(MAX_MEASUREMENT_DELAY+1))) //check if counter is over max buffer size in mm
delay_dist = delay_dist - 10*(MAX_MEASUREMENT_DELAY+1); //loop around the buffer
while (delay_dist<0)
delay_dist = delay_dist + 10*(MAX_MEASUREMENT_DELAY+1); //loop around the buffer
delay_index1=delay_dist/10.0; //calculate index
//ensure the number is within range of the array after converting from floating point
if(delay_index1<0)
delay_index1=0;
else if (delay_index1>MAX_MEASUREMENT_DELAY)
delay_index1=MAX_MEASUREMENT_DELAY;
if(delay_index1 != delay_index2) //moved index
{
meas_sample=widthFil_to_size_ratio()-100; //subtract off 100 to reduce magnitude - to store in a signed char
}
while( delay_index1 != delay_index2)
{
delay_index2 = delay_index2 + 1;
if(delay_index2>MAX_MEASUREMENT_DELAY)
delay_index2=delay_index2-(MAX_MEASUREMENT_DELAY+1); //loop around buffer when incrementing
if(delay_index2<0)
delay_index2=0;
else if (delay_index2>MAX_MEASUREMENT_DELAY)
delay_index2=MAX_MEASUREMENT_DELAY;
measurement_delay[delay_index2]=meas_sample;
}
}
#endif
#ifdef FILAMENT_SENSOR
//FMM update ring buffer used for delay with filament measurements
if (extruder == FILAMENT_SENSOR_EXTRUDER_NUM && delay_index2 > -1) { //only for extruder with filament sensor and if ring buffer is initialized
const int MMD = MAX_MEASUREMENT_DELAY + 1, MMD10 = MMD * 10;
delay_dist += delta_mm[E_AXIS]; //increment counter with next move in e axis
while (delay_dist >= MMD10) delay_dist -= MMD10; // loop around the buffer
while (delay_dist < 0) delay_dist += MMD10;
delay_index1 = delay_dist / 10.0; // calculate index
delay_index1 = constrain(delay_index1, 0, MAX_MEASUREMENT_DELAY); // (already constrained above)
if (delay_index1 != delay_index2) { // moved index
meas_sample = widthFil_to_size_ratio() - 100; // Subtract 100 to reduce magnitude - to store in a signed char
while (delay_index1 != delay_index2) {
// Increment and loop around buffer
if (++delay_index2 >= MMD) delay_index2 -= MMD;
delay_index2 = constrain(delay_index2, 0, MAX_MEASUREMENT_DELAY);
measurement_delay[delay_index2] = meas_sample;
}
}
}
#endif
// Calculate and limit speed in mm/sec for each axis
float current_speed[4];
float speed_factor = 1.0; //factor <=1 do decrease speed
for(int i=0; i < 3; i++)
{
for(int i=0; i < 3; i++) {
current_speed[i] = delta_mm[i] * inverse_second;
if(fabs(current_speed[i]) > max_feedrate[i])
speed_factor = min(speed_factor, max_feedrate[i] / fabs(current_speed[i]));
float cs = fabs(current_speed[i]), mf = max_feedrate[i];
if (cs > mf) speed_factor = min(speed_factor, mf / cs);
}
current_speed[E_AXIS] = delta_mm[E_AXIS] * inverse_second;
......@@ -927,118 +808,111 @@ Having the real displacement of the head, we can calculate the total movement le
}
// Max segement time in us.
#ifdef XY_FREQUENCY_LIMIT
#define MAX_FREQ_TIME (1000000.0/XY_FREQUENCY_LIMIT)
// Check and limit the xy direction change frequency
unsigned char direction_change = block->direction_bits ^ old_direction_bits;
old_direction_bits = block->direction_bits;
segment_time = lround((float)segment_time / speed_factor);
if((direction_change & BIT(X_AXIS)) == 0)
{
x_segment_time[0] += segment_time;
}
else
{
x_segment_time[2] = x_segment_time[1];
x_segment_time[1] = x_segment_time[0];
x_segment_time[0] = segment_time;
}
if((direction_change & BIT(Y_AXIS)) == 0)
{
y_segment_time[0] += segment_time;
}
else
{
y_segment_time[2] = y_segment_time[1];
y_segment_time[1] = y_segment_time[0];
y_segment_time[0] = segment_time;
}
long max_x_segment_time = max(x_segment_time[0], max(x_segment_time[1], x_segment_time[2]));
long max_y_segment_time = max(y_segment_time[0], max(y_segment_time[1], y_segment_time[2]));
long min_xy_segment_time =min(max_x_segment_time, max_y_segment_time);
if(min_xy_segment_time < MAX_FREQ_TIME)
speed_factor = min(speed_factor, speed_factor * (float)min_xy_segment_time / (float)MAX_FREQ_TIME);
#endif // XY_FREQUENCY_LIMIT
#ifdef XY_FREQUENCY_LIMIT
#define MAX_FREQ_TIME (1000000.0/XY_FREQUENCY_LIMIT)
// Check and limit the xy direction change frequency
unsigned char direction_change = block->direction_bits ^ old_direction_bits;
old_direction_bits = block->direction_bits;
segment_time = lround((float)segment_time / speed_factor);
if((direction_change & BIT(X_AXIS)) == 0) {
x_segment_time[0] += segment_time;
}
else {
x_segment_time[2] = x_segment_time[1];
x_segment_time[1] = x_segment_time[0];
x_segment_time[0] = segment_time;
}
if((direction_change & BIT(Y_AXIS)) == 0) {
y_segment_time[0] += segment_time;
}
else {
y_segment_time[2] = y_segment_time[1];
y_segment_time[1] = y_segment_time[0];
y_segment_time[0] = segment_time;
}
long max_x_segment_time = max(x_segment_time[0], max(x_segment_time[1], x_segment_time[2]));
long max_y_segment_time = max(y_segment_time[0], max(y_segment_time[1], y_segment_time[2]));
long min_xy_segment_time =min(max_x_segment_time, max_y_segment_time);
if(min_xy_segment_time < MAX_FREQ_TIME)
speed_factor = min(speed_factor, speed_factor * (float)min_xy_segment_time / (float)MAX_FREQ_TIME);
#endif // XY_FREQUENCY_LIMIT
// Correct the speed
if( speed_factor < 1.0)
{
for(unsigned char i=0; i < 4; i++)
{
if( speed_factor < 1.0) {
for(unsigned char i=0; i < 4; i++) {
current_speed[i] *= speed_factor;
}
block->nominal_speed *= speed_factor;
block->nominal_rate *= speed_factor;
}
// Compute and limit the acceleration rate for the trapezoid generator.
// Compute and limit the acceleration rate for the trapezoid generator.
float steps_per_mm = block->step_event_count/block->millimeters;
if(block->steps_x == 0 && block->steps_y == 0 && block->steps_z == 0)
{
if(block->steps[X_AXIS] == 0 && block->steps[Y_AXIS] == 0 && block->steps[Z_AXIS] == 0) {
block->acceleration_st = ceil(retract_acceleration * steps_per_mm); // convert to: acceleration steps/sec^2
}
else if(block->steps_e == 0)
{
else if(block->steps[E_AXIS] == 0) {
block->acceleration_st = ceil(travel_acceleration * steps_per_mm); // convert to: acceleration steps/sec^2
}
else
{
else {
block->acceleration_st = ceil(acceleration * steps_per_mm); // convert to: acceleration steps/sec^2
}
// Limit acceleration per axis
if(((float)block->acceleration_st * (float)block->steps_x / (float)block->step_event_count) > axis_steps_per_sqr_second[X_AXIS])
if(((float)block->acceleration_st * (float)block->steps[X_AXIS] / (float)block->step_event_count) > axis_steps_per_sqr_second[X_AXIS])
block->acceleration_st = axis_steps_per_sqr_second[X_AXIS];
if(((float)block->acceleration_st * (float)block->steps_y / (float)block->step_event_count) > axis_steps_per_sqr_second[Y_AXIS])
if(((float)block->acceleration_st * (float)block->steps[Y_AXIS] / (float)block->step_event_count) > axis_steps_per_sqr_second[Y_AXIS])
block->acceleration_st = axis_steps_per_sqr_second[Y_AXIS];
if(((float)block->acceleration_st * (float)block->steps_e / (float)block->step_event_count) > axis_steps_per_sqr_second[E_AXIS])
if(((float)block->acceleration_st * (float)block->steps[E_AXIS] / (float)block->step_event_count) > axis_steps_per_sqr_second[E_AXIS])
block->acceleration_st = axis_steps_per_sqr_second[E_AXIS];
if(((float)block->acceleration_st * (float)block->steps_z / (float)block->step_event_count ) > axis_steps_per_sqr_second[Z_AXIS])
if(((float)block->acceleration_st * (float)block->steps[Z_AXIS] / (float)block->step_event_count ) > axis_steps_per_sqr_second[Z_AXIS])
block->acceleration_st = axis_steps_per_sqr_second[Z_AXIS];
block->acceleration = block->acceleration_st / steps_per_mm;
block->acceleration_rate = (long)((float)block->acceleration_st * (16777216.0 / (F_CPU / 8.0)));
#if 0 // Use old jerk for now
// Compute path unit vector
double unit_vec[3];
unit_vec[X_AXIS] = delta_mm[X_AXIS]*inverse_millimeters;
unit_vec[Y_AXIS] = delta_mm[Y_AXIS]*inverse_millimeters;
unit_vec[Z_AXIS] = delta_mm[Z_AXIS]*inverse_millimeters;
// Compute maximum allowable entry speed at junction by centripetal acceleration approximation.
// Let a circle be tangent to both previous and current path line segments, where the junction
// deviation is defined as the distance from the junction to the closest edge of the circle,
// colinear with the circle center. The circular segment joining the two paths represents the
// path of centripetal acceleration. Solve for max velocity based on max acceleration about the
// radius of the circle, defined indirectly by junction deviation. This may be also viewed as
// path width or max_jerk in the previous grbl version. This approach does not actually deviate
// from path, but used as a robust way to compute cornering speeds, as it takes into account the
// nonlinearities of both the junction angle and junction velocity.
double vmax_junction = MINIMUM_PLANNER_SPEED; // Set default max junction speed
// Skip first block or when previous_nominal_speed is used as a flag for homing and offset cycles.
if ((block_buffer_head != block_buffer_tail) && (previous_nominal_speed > 0.0)) {
// Compute cosine of angle between previous and current path. (prev_unit_vec is negative)
// NOTE: Max junction velocity is computed without sin() or acos() by trig half angle identity.
double cos_theta = - previous_unit_vec[X_AXIS] * unit_vec[X_AXIS]
- previous_unit_vec[Y_AXIS] * unit_vec[Y_AXIS]
- previous_unit_vec[Z_AXIS] * unit_vec[Z_AXIS] ;
// Skip and use default max junction speed for 0 degree acute junction.
if (cos_theta < 0.95) {
vmax_junction = min(previous_nominal_speed,block->nominal_speed);
// Skip and avoid divide by zero for straight junctions at 180 degrees. Limit to min() of nominal speeds.
if (cos_theta > -0.95) {
// Compute maximum junction velocity based on maximum acceleration and junction deviation
double sin_theta_d2 = sqrt(0.5*(1.0-cos_theta)); // Trig half angle identity. Always positive.
vmax_junction = min(vmax_junction,
sqrt(block->acceleration * junction_deviation * sin_theta_d2/(1.0-sin_theta_d2)) );
#if 0 // Use old jerk for now
// Compute path unit vector
double unit_vec[3];
unit_vec[X_AXIS] = delta_mm[X_AXIS]*inverse_millimeters;
unit_vec[Y_AXIS] = delta_mm[Y_AXIS]*inverse_millimeters;
unit_vec[Z_AXIS] = delta_mm[Z_AXIS]*inverse_millimeters;
// Compute maximum allowable entry speed at junction by centripetal acceleration approximation.
// Let a circle be tangent to both previous and current path line segments, where the junction
// deviation is defined as the distance from the junction to the closest edge of the circle,
// colinear with the circle center. The circular segment joining the two paths represents the
// path of centripetal acceleration. Solve for max velocity based on max acceleration about the
// radius of the circle, defined indirectly by junction deviation. This may be also viewed as
// path width or max_jerk in the previous grbl version. This approach does not actually deviate
// from path, but used as a robust way to compute cornering speeds, as it takes into account the
// nonlinearities of both the junction angle and junction velocity.
double vmax_junction = MINIMUM_PLANNER_SPEED; // Set default max junction speed
// Skip first block or when previous_nominal_speed is used as a flag for homing and offset cycles.
if ((block_buffer_head != block_buffer_tail) && (previous_nominal_speed > 0.0)) {
// Compute cosine of angle between previous and current path. (prev_unit_vec is negative)
// NOTE: Max junction velocity is computed without sin() or acos() by trig half angle identity.
double cos_theta = - previous_unit_vec[X_AXIS] * unit_vec[X_AXIS]
- previous_unit_vec[Y_AXIS] * unit_vec[Y_AXIS]
- previous_unit_vec[Z_AXIS] * unit_vec[Z_AXIS] ;
// Skip and use default max junction speed for 0 degree acute junction.
if (cos_theta < 0.95) {
vmax_junction = min(previous_nominal_speed,block->nominal_speed);
// Skip and avoid divide by zero for straight junctions at 180 degrees. Limit to min() of nominal speeds.
if (cos_theta > -0.95) {
// Compute maximum junction velocity based on maximum acceleration and junction deviation
double sin_theta_d2 = sqrt(0.5*(1.0-cos_theta)); // Trig half angle identity. Always positive.
vmax_junction = min(vmax_junction,
sqrt(block->acceleration * junction_deviation * sin_theta_d2/(1.0-sin_theta_d2)) );
}
}
}
}
#endif
#endif
// Start with a safe speed
float vmax_junction = max_xy_jerk/2;
float vmax_junction_factor = 1.0;
......@@ -1091,33 +965,32 @@ Having the real displacement of the head, we can calculate the total movement le
memcpy(previous_speed, current_speed, sizeof(previous_speed)); // previous_speed[] = current_speed[]
previous_nominal_speed = block->nominal_speed;
#ifdef ADVANCE
// Calculate advance rate
if((block->steps_e == 0) || (block->steps_x == 0 && block->steps_y == 0 && block->steps_z == 0)) {
block->advance_rate = 0;
block->advance = 0;
}
else {
long acc_dist = estimate_acceleration_distance(0, block->nominal_rate, block->acceleration_st);
float advance = (STEPS_PER_CUBIC_MM_E * EXTRUDER_ADVANCE_K) *
(current_speed[E_AXIS] * current_speed[E_AXIS] * EXTRUSION_AREA * EXTRUSION_AREA)*256;
block->advance = advance;
if(acc_dist == 0) {
#ifdef ADVANCE
// Calculate advance rate
if((block->steps[E_AXIS] == 0) || (block->steps[X_AXIS] == 0 && block->steps[Y_AXIS] == 0 && block->steps[Z_AXIS] == 0)) {
block->advance_rate = 0;
}
block->advance = 0;
}
else {
block->advance_rate = advance / (float)acc_dist;
long acc_dist = estimate_acceleration_distance(0, block->nominal_rate, block->acceleration_st);
float advance = (STEPS_PER_CUBIC_MM_E * EXTRUDER_ADVANCE_K) *
(current_speed[E_AXIS] * current_speed[E_AXIS] * EXTRUSION_AREA * EXTRUSION_AREA)*256;
block->advance = advance;
if(acc_dist == 0) {
block->advance_rate = 0;
}
else {
block->advance_rate = advance / (float)acc_dist;
}
}
}
/*
SERIAL_ECHO_START;
SERIAL_ECHOPGM("advance :");
SERIAL_ECHO(block->advance/256.0);
SERIAL_ECHOPGM("advance rate :");
SERIAL_ECHOLN(block->advance_rate/256.0);
*/
#endif // ADVANCE
/*
SERIAL_ECHO_START;
SERIAL_ECHOPGM("advance :");
SERIAL_ECHO(block->advance/256.0);
SERIAL_ECHOPGM("advance rate :");
SERIAL_ECHOLN(block->advance_rate/256.0);
*/
#endif // ADVANCE
calculate_trapezoid_for_block(block, block->entry_speed/block->nominal_speed,
safe_speed/block->nominal_speed);
......
MarlinKimbra/planner.h
View file @ 046d5eff
......@@ -34,7 +34,7 @@
// the source g-code and may never actually be reached if acceleration management is active.
typedef struct {
// Fields used by the bresenham algorithm for tracing the line
long steps_x, steps_y, steps_z, steps_e; // Step count along each axis
long steps[NUM_AXIS]; // Step count along each axis
unsigned long step_event_count; // The number of step events required to complete this block
long accelerate_until; // The index of the step event on which to stop acceleration
long decelerate_after; // The index of the step event on which to start decelerating
......@@ -49,7 +49,7 @@ typedef struct {
#endif
// Fields used by the motion planner to manage acceleration
// float speed_x, speed_y, speed_z, speed_e; // Nominal mm/sec for each axis
// float speed_x, speed_y, speed_z, speed_e; // Nominal mm/sec for each axis
float nominal_speed; // The nominal speed for this block in mm/sec
float entry_speed; // Entry speed at previous-current junction in mm/sec
float max_entry_speed; // Maximum allowable junction entry speed in mm/sec
......@@ -74,6 +74,8 @@ typedef struct {
volatile char busy;
} block_t;
#define BLOCK_MOD(n) ((n)&(BLOCK_BUFFER_SIZE-1))
#ifdef ENABLE_AUTO_BED_LEVELING
// this holds the required transform to compensate for bed level
extern matrix_3x3 plan_bed_level_matrix;
......
MarlinKimbra/stepper.cpp
View file @ 046d5eff
......@@ -107,11 +107,8 @@ volatile signed char count_direction[NUM_AXIS] = { 1, 1, 1, 1 };
X_DIR_WRITE(v); \
X2_DIR_WRITE(v); \
} \
else{ \
if (current_block->active_driver) \
X2_DIR_WRITE(v); \
else \
X_DIR_WRITE(v); \
else { \
if (current_block->active_driver) X2_DIR_WRITE(v); else X_DIR_WRITE(v); \
}
#define X_APPLY_STEP(v,ALWAYS) \
if (extruder_duplication_enabled || ALWAYS) { \
......@@ -119,10 +116,7 @@ volatile signed char count_direction[NUM_AXIS] = { 1, 1, 1, 1 };
X2_STEP_WRITE(v); \
} \
else { \
if (current_block->active_driver != 0) \
X2_STEP_WRITE(v); \
else \
X_STEP_WRITE(v); \
if (current_block->active_driver != 0) X2_STEP_WRITE(v); else X_STEP_WRITE(v); \
}
#else
#define X_APPLY_DIR(v,Q) X_DIR_WRITE(v)
......@@ -130,16 +124,16 @@ volatile signed char count_direction[NUM_AXIS] = { 1, 1, 1, 1 };
#endif
#ifdef Y_DUAL_STEPPER_DRIVERS
#define Y_APPLY_DIR(v,Q) Y_DIR_WRITE(v), Y2_DIR_WRITE((v) != INVERT_Y2_VS_Y_DIR)
#define Y_APPLY_STEP(v,Q) Y_STEP_WRITE(v), Y2_STEP_WRITE(v)
#define Y_APPLY_DIR(v,Q) { Y_DIR_WRITE(v); Y2_DIR_WRITE((v) != INVERT_Y2_VS_Y_DIR); }
#define Y_APPLY_STEP(v,Q) { Y_STEP_WRITE(v); Y2_STEP_WRITE(v); }
#else
#define Y_APPLY_DIR(v,Q) Y_DIR_WRITE(v)
#define Y_APPLY_STEP(v,Q) Y_STEP_WRITE(v)
#endif
#ifdef Z_DUAL_STEPPER_DRIVERS
#define Z_APPLY_DIR(v,Q) Z_DIR_WRITE(v), Z2_DIR_WRITE(v)
#define Z_APPLY_STEP(v,Q) Z_STEP_WRITE(v), Z2_STEP_WRITE(v)
#define Z_APPLY_DIR(v,Q) { Z_DIR_WRITE(v); Z2_DIR_WRITE(v); }
#define Z_APPLY_STEP(v,Q) { Z_STEP_WRITE(v); Z2_STEP_WRITE(v); }
#else
#define Z_APPLY_DIR(v,Q) Z_DIR_WRITE(v)
#define Z_APPLY_STEP(v,Q) Z_STEP_WRITE(v)
......@@ -423,7 +417,7 @@ ISR(TIMER1_COMPA_vect) {
step_events_completed = 0;
#ifdef Z_LATE_ENABLE
if (current_block->steps_z > 0) {
if (current_block->steps[Z_AXIS] > 0) {
enable_z();
OCR1A = 2000; //1ms wait
return;
......@@ -464,7 +458,7 @@ ISR(TIMER1_COMPA_vect) {
#define UPDATE_ENDSTOP(axis,AXIS,minmax,MINMAX) \
bool axis ##_## minmax ##_endstop = (READ(AXIS ##_## MINMAX ##_PIN) != AXIS ##_## MINMAX ##_ENDSTOP_INVERTING); \
if (axis ##_## minmax ##_endstop && old_## axis ##_## minmax ##_endstop && (current_block->steps_## axis > 0)) { \
if (axis ##_## minmax ##_endstop && old_## axis ##_## minmax ##_endstop && (current_block->steps[AXIS ##_AXIS] > 0)) { \
endstops_trigsteps[AXIS ##_AXIS] = count_position[AXIS ##_AXIS]; \
endstop_## axis ##_hit = true; \
step_events_completed = current_block->step_event_count; \
......@@ -473,55 +467,54 @@ ISR(TIMER1_COMPA_vect) {
// Check X and Y endstops
if (check_endstops) {
#ifndef COREXY
if (TEST(out_bits, X_AXIS)) // stepping along -X axis (regular cartesians bot)
#else
#ifdef COREXY
// Head direction in -X axis for CoreXY bots.
// If DeltaX == -DeltaY, the movement is only in Y axis
if (current_block->steps_x != current_block->steps_y || (TEST(out_bits, X_AXIS) == TEST(out_bits, Y_AXIS)))
if (TEST(out_bits, X_HEAD))
if (current_block->steps[A_AXIS] != current_block->steps[B_AXIS] || (TEST(out_bits, A_AXIS) == TEST(out_bits, B_AXIS)))
if (TEST(out_bits, X_HEAD))
#else
if (TEST(out_bits, X_AXIS)) // stepping along -X axis (regular cartesians bot)
#endif
{ // -direction
#ifdef DUAL_X_CARRIAGE
// with 2 x-carriages, endstops are only checked in the homing direction for the active extruder
if ((current_block->active_extruder == 0 && X_HOME_DIR == -1) || (current_block->active_extruder != 0 && X2_HOME_DIR == -1))
#endif
{
#if defined(X_MIN_PIN) && X_MIN_PIN >= 0
UPDATE_ENDSTOP(x, X, min, MIN);
#endif
}
}
else { // +direction
#ifdef DUAL_X_CARRIAGE
// with 2 x-carriages, endstops are only checked in the homing direction for the active extruder
if ((current_block->active_driver == 0 && X_HOME_DIR == 1) || (current_block->active_extruder != 0 && X2_HOME_DIR == 1))
#endif
{
#if defined(X_MAX_PIN) && X_MAX_PIN >= 0
UPDATE_ENDSTOP(x, X, max, MAX);
#endif
}
}
#ifndef COREXY
{ // -direction
#ifdef DUAL_X_CARRIAGE
// with 2 x-carriages, endstops are only checked in the homing direction for the active extruder
if ((current_block->active_extruder == 0 && X_HOME_DIR == -1) || (current_block->active_extruder != 0 && X2_HOME_DIR == -1))
#endif
{
#if defined(X_MIN_PIN) && X_MIN_PIN >= 0
UPDATE_ENDSTOP(x, X, min, MIN);
#endif
}
}
else { // +direction
#ifdef DUAL_X_CARRIAGE
// with 2 x-carriages, endstops are only checked in the homing direction for the active extruder
if ((current_block->active_driver == 0 && X_HOME_DIR == 1) || (current_block->active_extruder != 0 && X2_HOME_DIR == 1))
#endif
{
#if defined(X_MAX_PIN) && X_MAX_PIN >= 0
UPDATE_ENDSTOP(x, X, max, MAX);
#endif
}
}
#ifdef COREXY
// Head direction in -Y axis for CoreXY bots.
// If DeltaX == DeltaY, the movement is only in X axis
if (current_block->steps[A_AXIS] != current_block->steps[B_AXIS] || (TEST(out_bits, A_AXIS) != TEST(out_bits, B_AXIS)))
if (TEST(out_bits, Y_HEAD))
#else
if (TEST(out_bits, Y_AXIS)) // -direction
#else
// Head direction in -Y axis for CoreXY bots.
// If DeltaX == DeltaY, the movement is only in X axis
if (current_block->steps_x != current_block->steps_y || (TEST(out_bits, X_AXIS) != TEST(out_bits, Y_AXIS)))
if (TEST(out_bits, Y_HEAD))
#endif
{ // -direction
#if defined(Y_MIN_PIN) && Y_MIN_PIN >= 0
UPDATE_ENDSTOP(y, Y, min, MIN);
#endif
}
else { // +direction
#if defined(Y_MAX_PIN) && Y_MAX_PIN >= 0
UPDATE_ENDSTOP(y, Y, max, MAX);
#endif
}
#endif
{ // -direction
#if defined(Y_MIN_PIN) && Y_MIN_PIN >= 0
UPDATE_ENDSTOP(y, Y, min, MIN);
#endif
}
else { // +direction
#if defined(Y_MAX_PIN) && Y_MAX_PIN >= 0
UPDATE_ENDSTOP(y, Y, max, MAX);
#endif
}
}
if (TEST(out_bits, Z_AXIS)) { // -direction
......@@ -559,7 +552,7 @@ ISR(TIMER1_COMPA_vect) {
if (check_endstops) {
#if defined(E_MIN_PIN) && E_MIN_PIN > -1
bool e_min_endstop=(READ(E_MIN_PIN) != E_MIN_ENDSTOP_INVERTING);
if (e_min_endstop && old_e_min_endstop && (current_block->steps_e > 0)) {
if (e_min_endstop && old_e_min_endstop && (current_block->steps[E_AXIS] > 0)) {
endstops_trigsteps[E_AXIS] = count_position[E_AXIS];
endstop_e_hit=true;
step_events_completed = current_block->step_event_count;
......@@ -582,7 +575,7 @@ ISR(TIMER1_COMPA_vect) {
#endif
#ifdef ADVANCE
counter_e += current_block->steps_e;
counter_e += current_block->steps[E_AXIS];
if (counter_e > 0) {
counter_e -= current_block->step_event_count;
e_steps[current_block->active_driver] += TEST(out_bits, E_AXIS) ? -1 : 1;
......@@ -596,15 +589,14 @@ ISR(TIMER1_COMPA_vect) {
* instead of doing each in turn. The extra tests add enough
* lag to allow it work with without needing NOPs
*/
counter_x += current_block->steps_x;
if (counter_x > 0) X_STEP_WRITE(HIGH);
counter_y += current_block->steps_y;
if (counter_y > 0) Y_STEP_WRITE(HIGH);
counter_z += current_block->steps_z;
if (counter_z > 0) Z_STEP_WRITE(HIGH);
#define STEP_ADD(axis, AXIS) \
counter_## axis += current_block->steps[AXIS ##_AXIS]; \
if (counter_## axis > 0) { AXIS ##_STEP_WRITE(HIGH); }
STEP_ADD(x,X);
STEP_ADD(y,Y);
STEP_ADD(z,Z);
#ifndef ADVANCE
counter_e += current_block->steps_e;
if (counter_e > 0) E_STEP_WRITE(HIGH);
STEP_ADD(e,E);
#endif
#define STEP_IF_COUNTER(axis, AXIS) \
......@@ -624,7 +616,7 @@ ISR(TIMER1_COMPA_vect) {
#else // !CONFIG_STEPPERS_TOSHIBA
#define APPLY_MOVEMENT(axis, AXIS) \
counter_## axis += current_block->steps_## axis; \
counter_## axis += current_block->steps[AXIS ##_AXIS]; \
if (counter_## axis > 0) { \
AXIS ##_APPLY_STEP(!INVERT_## AXIS ##_STEP_PIN,0); \
counter_## axis -= current_block->step_event_count; \
......
MarlinKimbra/temperature.cpp
View file @ 046d5eff
......@@ -41,21 +41,17 @@
//================================== macros =================================
//===========================================================================
#ifndef SINGLENOZZLE
#if EXTRUDERS > 4
#error Unsupported number of extruders
#elif EXTRUDERS > 3
#define ARRAY_BY_EXTRUDERS(v1, v2, v3, v4) { v1, v2, v3, v4 }
#elif EXTRUDERS > 2
#define ARRAY_BY_EXTRUDERS(v1, v2, v3, v4) { v1, v2, v3 }
#elif EXTRUDERS > 1
#define ARRAY_BY_EXTRUDERS(v1, v2, v3, v4) { v1, v2 }
#else
#define ARRAY_BY_EXTRUDERS(v1, v2, v3, v4) { v1 }
#endif
#if HOTENDS > 4
#error Unsupported number of hotends
#elif HOTENDS > 3
#define ARRAY_BY_HOTENDS(v1, v2, v3, v4) { v1, v2, v3, v4 }
#elif HOTENDS > 2
#define ARRAY_BY_HOTENDS(v1, v2, v3, v4) { v1, v2, v3 }
#elif HOTENDS > 1
#define ARRAY_BY_HOTENDS(v1, v2, v3, v4) { v1, v2 }
#else
#define ARRAY_BY_EXTRUDERS(v1, v2, v3, v4) { v1 }
#endif //SINGLENOZZLE
#define ARRAY_BY_HOTENDS(v1, v2, v3, v4) { v1 }
#endif
#define HAS_TEMP_0 (defined(TEMP_0_PIN) && TEMP_0_PIN >= 0)
#define HAS_TEMP_1 (defined(TEMP_1_PIN) && TEMP_1_PIN >= 0)
......@@ -84,17 +80,12 @@
#ifdef PID_dT
#undef PID_dT
#endif
#define PID_dT ((OVERSAMPLENR * 12.0)/(F_CPU / 64.0 / 256.0))
#define PID_dT ((OVERSAMPLENR * 14.0)/(F_CPU / 64.0 / 256.0))
int target_temperature[HOTENDS] = { 0 };
int current_temperature_raw[HOTENDS] = { 0 };
float current_temperature[HOTENDS] = { 0.0 };
#ifndef SINGLENOZZLE
int target_temperature[EXTRUDERS] = { 0 };
int current_temperature_raw[EXTRUDERS] = { 0 };
float current_temperature[EXTRUDERS] = { 0.0 };
#else
int current_temperature_raw[1] = { 0 };
float current_temperature[1] = { 0.0 };
int target_temperature[1] = { 0 };
#endif //SINGLENOZZLE
int target_temperature_bed = 0;
int current_temperature_bed_raw = 0;
float current_temperature_bed = 0.0;
......@@ -103,11 +94,7 @@ float current_temperature_bed = 0.0;
float redundant_temperature = 0.0;
#endif
#ifdef PIDTEMP
#ifndef SINGLENOZZLE
float Kp[EXTRUDERS],Ki[EXTRUDERS],Kd[EXTRUDERS];
#else
float Kp[1],Ki[1],Kd[1];
#endif
float Kp[HOTENDS],Ki[HOTENDS],Kd[HOTENDS];
#endif //PIDTEMP
#ifdef PIDTEMPBED
......@@ -133,6 +120,7 @@ unsigned char soft_pwm_bed;
#if HAS_POWER_CONSUMPTION_SENSOR
int current_raw_powconsumption = 0; //Holds measured power consumption
#endif
//===========================================================================
//=============================private variables============================
//===========================================================================
......@@ -140,33 +128,16 @@ static volatile bool temp_meas_ready = false;
#ifdef PIDTEMP
//static cannot be external:
#ifndef SINGLENOZZLE
static float temp_iState[EXTRUDERS] = { 0 };
static float temp_dState[EXTRUDERS] = { 0 };
static float pTerm[EXTRUDERS];
static float iTerm[EXTRUDERS];
static float dTerm[EXTRUDERS];
//int output;
static float pid_error[EXTRUDERS];
static float temp_iState_min[EXTRUDERS];
static float temp_iState_max[EXTRUDERS];
// static float pid_input[EXTRUDERS];
// static float pid_output[EXTRUDERS];
static bool pid_reset[EXTRUDERS];
#else
static float temp_iState[1] = { 0 };
static float temp_dState[1] = { 0 };
static float pTerm[1];
static float iTerm[1];
static float dTerm[1];
//int output;
static float pid_error[1];
static float temp_iState_min[1];
static float temp_iState_max[1];
// static float pid_input[1];
// static float pid_output[1];
static bool pid_reset[1];
#endif //SINGLENOZZLE
static float temp_iState[HOTENDS] = { 0 };
static float temp_dState[HOTENDS] = { 0 };
static float pTerm[HOTENDS];
static float iTerm[HOTENDS];
static float dTerm[HOTENDS];
//int output;
static float pid_error[HOTENDS];
static float temp_iState_min[HOTENDS];
static float temp_iState_max[HOTENDS];
static bool pid_reset[HOTENDS];
#endif //PIDTEMP
#ifdef PIDTEMPBED
//static cannot be external:
......@@ -180,13 +151,11 @@ static volatile bool temp_meas_ready = false;
static float temp_iState_min_bed;
static float temp_iState_max_bed;
#else //PIDTEMPBED
static unsigned long previous_millis_bed_heater;
static unsigned long previous_millis_bed_heater;
#endif //PIDTEMPBED
#ifndef SINGLENOZZLE
static unsigned char soft_pwm[EXTRUDERS];
#else
static unsigned char soft_pwm[1];
#endif
static unsigned char soft_pwm[HOTENDS];
#ifdef FAN_SOFT_PWM
static unsigned char soft_pwm_fan;
#endif
......@@ -195,19 +164,11 @@ static volatile bool temp_meas_ready = false;
#endif
// Init min and max temp with extreme values to prevent false errors during startup
#ifndef SINGLENOZZLE
static int minttemp_raw[EXTRUDERS] = ARRAY_BY_EXTRUDERS( HEATER_0_RAW_LO_TEMP , HEATER_1_RAW_LO_TEMP , HEATER_2_RAW_LO_TEMP, HEATER_3_RAW_LO_TEMP);
static int maxttemp_raw[EXTRUDERS] = ARRAY_BY_EXTRUDERS( HEATER_0_RAW_HI_TEMP , HEATER_1_RAW_HI_TEMP , HEATER_2_RAW_HI_TEMP, HEATER_3_RAW_HI_TEMP);
static int minttemp[EXTRUDERS] = ARRAY_BY_EXTRUDERS( 0, 0, 0, 0 );
static int maxttemp[EXTRUDERS] = ARRAY_BY_EXTRUDERS( 16383, 16383, 16383, 16383 );
//static int bed_minttemp_raw = HEATER_BED_RAW_LO_TEMP; /* No bed mintemp error implemented?!? */
#else
static int minttemp_raw[EXTRUDERS] = ARRAY_BY_EXTRUDERS( HEATER_0_RAW_LO_TEMP , HEATER_0_RAW_LO_TEMP , HEATER_0_RAW_LO_TEMP, HEATER_0_RAW_LO_TEMP );
static int maxttemp_raw[EXTRUDERS] = ARRAY_BY_EXTRUDERS( HEATER_0_RAW_HI_TEMP , HEATER_0_RAW_HI_TEMP , HEATER_0_RAW_HI_TEMP, HEATER_0_RAW_HI_TEMP );
static int minttemp[EXTRUDERS] = ARRAY_BY_EXTRUDERS( 0, 0, 0, 0 );
static int maxttemp[EXTRUDERS] = ARRAY_BY_EXTRUDERS( 16383, 16383, 16383, 16383 );
//static int bed_minttemp_raw = HEATER_BED_RAW_LO_TEMP; /* No bed mintemp error implemented?!? */
#endif
static int minttemp_raw[HOTENDS] = ARRAY_BY_HOTENDS( HEATER_0_RAW_LO_TEMP , HEATER_1_RAW_LO_TEMP , HEATER_2_RAW_LO_TEMP, HEATER_3_RAW_LO_TEMP);
static int maxttemp_raw[HOTENDS] = ARRAY_BY_HOTENDS( HEATER_0_RAW_HI_TEMP , HEATER_1_RAW_HI_TEMP , HEATER_2_RAW_HI_TEMP, HEATER_3_RAW_HI_TEMP);
static int minttemp[HOTENDS] = ARRAY_BY_HOTENDS( 0, 0, 0, 0 );
static int maxttemp[HOTENDS] = ARRAY_BY_HOTENDS( 16383, 16383, 16383, 16383 );
//static int bed_minttemp_raw = HEATER_BED_RAW_LO_TEMP; /* No bed mintemp error implemented?!? */
#ifdef BED_MAXTEMP
static int bed_maxttemp_raw = HEATER_BED_RAW_HI_TEMP;
......@@ -217,8 +178,8 @@ static volatile bool temp_meas_ready = false;
static void *heater_ttbl_map[2] = {(void *)HEATER_0_TEMPTABLE, (void *)HEATER_1_TEMPTABLE };
static uint8_t heater_ttbllen_map[2] = { HEATER_0_TEMPTABLE_LEN, HEATER_1_TEMPTABLE_LEN };
#else
static void *heater_ttbl_map[EXTRUDERS] = ARRAY_BY_EXTRUDERS( (void *)HEATER_0_TEMPTABLE, (void *)HEATER_1_TEMPTABLE, (void *)HEATER_2_TEMPTABLE, (void *)HEATER_3_TEMPTABLE );
static uint8_t heater_ttbllen_map[EXTRUDERS] = ARRAY_BY_EXTRUDERS( HEATER_0_TEMPTABLE_LEN, HEATER_1_TEMPTABLE_LEN, HEATER_2_TEMPTABLE_LEN, HEATER_3_TEMPTABLE_LEN );
static void *heater_ttbl_map[HOTENDS] = ARRAY_BY_HOTENDS( (void *)HEATER_0_TEMPTABLE, (void *)HEATER_1_TEMPTABLE, (void *)HEATER_2_TEMPTABLE, (void *)HEATER_3_TEMPTABLE );
static uint8_t heater_ttbllen_map[HOTENDS] = ARRAY_BY_HOTENDS( HEATER_0_TEMPTABLE_LEN, HEATER_1_TEMPTABLE_LEN, HEATER_2_TEMPTABLE_LEN, HEATER_3_TEMPTABLE_LEN );
#endif
static float analog2temp(int raw, uint8_t e);
......@@ -226,13 +187,8 @@ static float analog2tempBed(int raw);
static void updateTemperaturesFromRawValues();
#ifdef WATCH_TEMP_PERIOD
#ifndef SINGLENOZZLE
int watch_start_temp[EXTRUDERS] = ARRAY_BY_EXTRUDERS(0,0,0,0);
unsigned long watchmillis[EXTRUDERS] = ARRAY_BY_EXTRUDERS(0,0,0,0);
#else
int watch_start_temp[1] = ARRAY_BY_EXTRUDERS(0,0,0,0);
unsigned long watchmillis[1] = ARRAY_BY_EXTRUDERS(0,0,0,0);
#endif
int watch_start_temp[HOTENDS] = ARRAY_BY_HOTENDS(0,0,0,0);
unsigned long watchmillis[HOTENDS] = ARRAY_BY_HOTENDS(0,0,0,0);
#endif //WATCH_TEMP_PERIOD
#ifndef SOFT_PWM_SCALE
......@@ -251,7 +207,8 @@ static void updateTemperaturesFromRawValues();
//============================= functions ============================
//===========================================================================
void PID_autotune(float temp, int extruder, int ncycles) {
void PID_autotune(float temp, int hotend, int ncycles)
{
float input = 0.0;
int cycles = 0;
bool heating = true;
......@@ -268,9 +225,9 @@ void PID_autotune(float temp, int extruder, int ncycles) {
unsigned long extruder_autofan_last_check = temp_millis;
#endif
if (extruder >= EXTRUDERS
if (hotend >= HOTENDS
#if !HAS_TEMP_BED
|| extruder < 0
|| hotend < 0
#endif
) {
SERIAL_ECHOLN(MSG_PID_BAD_EXTRUDER_NUM);
......@@ -281,10 +238,10 @@ void PID_autotune(float temp, int extruder, int ncycles) {
disable_heater(); // switch off all heaters.
if (extruder < 0)
if (hotend < 0)
soft_pwm_bed = bias = d = MAX_BED_POWER / 2;
else
soft_pwm[extruder] = bias = d = PID_MAX / 2;
soft_pwm[hotend] = bias = d = PID_MAX / 2;
// PID Tuning loop
for(;;) {
......@@ -294,7 +251,7 @@ void PID_autotune(float temp, int extruder, int ncycles) {
if (temp_meas_ready == true) { // temp sample ready
updateTemperaturesFromRawValues();
input = (extruder<0)?current_temperature_bed:current_temperature[extruder];
input = (hotend<0)?current_temperature_bed:current_temperature[hotend];
max = max(max, input);
min = min(min, input);
......@@ -309,10 +266,10 @@ void PID_autotune(float temp, int extruder, int ncycles) {
if (heating == true && input > temp) {
if (ms - t2 > 5000) {
heating = false;
if (extruder < 0)
if (hotend < 0)
soft_pwm_bed = (bias - d) >> 1;
else
soft_pwm[extruder] = (bias - d) >> 1;
soft_pwm[hotend] = (bias - d) >> 1;
t1 = ms;
t_high = t1 - t2;
max = temp;
......@@ -324,7 +281,7 @@ void PID_autotune(float temp, int extruder, int ncycles) {
t2 = ms;
t_low = t2 - t1;
if (cycles > 0) {
long max_pow = extruder < 0 ? MAX_BED_POWER : PID_MAX;
long max_pow = hotend < 0 ? MAX_BED_POWER : PID_MAX;
bias += (d*(t_high - t_low))/(t_low + t_high);
bias = constrain(bias, 20, max_pow - 20);
d = (bias > max_pow / 2) ? max_pow - 1 - bias : bias;
......@@ -363,10 +320,10 @@ void PID_autotune(float temp, int extruder, int ncycles) {
*/
}
}
if (extruder < 0)
if (hotend < 0)
soft_pwm_bed = (bias + d) >> 1;
else
soft_pwm[extruder] = (bias + d) >> 1;
soft_pwm[hotend] = (bias + d) >> 1;
cycles++;
min = temp;
}
......@@ -379,12 +336,12 @@ void PID_autotune(float temp, int extruder, int ncycles) {
// Every 2 seconds...
if (ms > temp_millis + 2000) {
int p;
if (extruder < 0) {
if (hotend < 0) {
p = soft_pwm_bed;
SERIAL_PROTOCOLPGM(MSG_OK_B);
}
else {
p = soft_pwm[extruder];
p = soft_pwm[hotend];
SERIAL_PROTOCOLPGM(MSG_OK_T);
}
......@@ -409,13 +366,9 @@ void PID_autotune(float temp, int extruder, int ncycles) {
void updatePID() {
#ifdef PIDTEMP
#ifndef SINGLENOZZLE
for(int e = 0; e < EXTRUDERS; e++) {
temp_iState_max[e] = PID_INTEGRAL_DRIVE_MAX / Ki[e];
}
#else
temp_iState_max[0] = PID_INTEGRAL_DRIVE_MAX / Ki[0];
#endif
for (int e = 0; e < HOTENDS; e++) {
temp_iState_max[e] = PID_INTEGRAL_DRIVE_MAX / Ki[e];
}
#endif
#ifdef PIDTEMPBED
temp_iState_max_bed = PID_INTEGRAL_DRIVE_MAX / bedKi;
......@@ -427,7 +380,6 @@ int getHeaterPower(int heater) {
}
#if HAS_AUTO_FAN
#if HAS_FAN
#if EXTRUDER_0_AUTO_FAN_PIN == FAN_PIN
#error "You cannot set EXTRUDER_0_AUTO_FAN_PIN equal to FAN_PIN"
......@@ -443,113 +395,109 @@ int getHeaterPower(int heater) {
#endif
#endif
void setExtruderAutoFanState(int pin, bool state)
{
unsigned char newFanSpeed = (state != 0) ? EXTRUDER_AUTO_FAN_SPEED : 0;
// this idiom allows both digital and PWM fan outputs (see M42 handling).
pinMode(pin, OUTPUT);
digitalWrite(pin, newFanSpeed);
analogWrite(pin, newFanSpeed);
}
void checkExtruderAutoFans()
{
uint8_t fanState = 0;
void setExtruderAutoFanState(int pin, bool state)
{
unsigned char newFanSpeed = (state != 0) ? EXTRUDER_AUTO_FAN_SPEED : 0;
// this idiom allows both digital and PWM fan outputs (see M42 handling).
pinMode(pin, OUTPUT);
digitalWrite(pin, newFanSpeed);
analogWrite(pin, newFanSpeed);
}
// which fan pins need to be turned on?
#if HAS_AUTO_FAN_0
if (current_temperature[0] > EXTRUDER_AUTO_FAN_TEMPERATURE)
fanState |= 1;
#endif
void checkExtruderAutoFans()
{
uint8_t fanState = 0;
#ifndef SINGLENOZZLE
#if HAS_AUTO_FAN_1
if (current_temperature[1] > EXTRUDER_AUTO_FAN_TEMPERATURE)
{
if (EXTRUDER_1_AUTO_FAN_PIN == EXTRUDER_0_AUTO_FAN_PIN)
fanState |= 1;
else
fanState |= 2;
}
#endif
#if HAS_AUTO_FAN_2
if (current_temperature[2] > EXTRUDER_AUTO_FAN_TEMPERATURE) {
if (EXTRUDER_2_AUTO_FAN_PIN == EXTRUDER_0_AUTO_FAN_PIN)
fanState |= 1;
else if (EXTRUDER_2_AUTO_FAN_PIN == EXTRUDER_1_AUTO_FAN_PIN)
fanState |= 2;
else
fanState |= 4;
}
#endif
#if HAS_AUTO_FAN_3
if (current_temperature[3] > EXTRUDER_AUTO_FAN_TEMPERATURE) {
if (EXTRUDER_3_AUTO_FAN_PIN == EXTRUDER_0_AUTO_FAN_PIN)
// which fan pins need to be turned on?
#if HAS_AUTO_FAN_0
if (current_temperature[0] > EXTRUDER_AUTO_FAN_TEMPERATURE)
fanState |= 1;
else if (EXTRUDER_3_AUTO_FAN_PIN == EXTRUDER_1_AUTO_FAN_PIN)
fanState |= 2;
else if (EXTRUDER_3_AUTO_FAN_PIN == EXTRUDER_2_AUTO_FAN_PIN)
fanState |= 4;
else
fanState |= 8;
}
#endif
#endif // !SINLGENOZZE
#endif
// update extruder auto fan states
#if HAS_AUTO_FAN_0
setExtruderAutoFanState(EXTRUDER_0_AUTO_FAN_PIN, (fanState & 1) != 0);
#endif
#if HAS_AUTO_FAN_1
if (current_temperature[1] > EXTRUDER_AUTO_FAN_TEMPERATURE)
{
if (EXTRUDER_1_AUTO_FAN_PIN == EXTRUDER_0_AUTO_FAN_PIN)
fanState |= 1;
else
fanState |= 2;
}
#endif
#if HAS_AUTO_FAN_2
if (current_temperature[2] > EXTRUDER_AUTO_FAN_TEMPERATURE) {
if (EXTRUDER_2_AUTO_FAN_PIN == EXTRUDER_0_AUTO_FAN_PIN)
fanState |= 1;
else if (EXTRUDER_2_AUTO_FAN_PIN == EXTRUDER_1_AUTO_FAN_PIN)
fanState |= 2;
else
fanState |= 4;
}
#endif
#if HAS_AUTO_FAN_3
if (current_temperature[3] > EXTRUDER_AUTO_FAN_TEMPERATURE) {
if (EXTRUDER_3_AUTO_FAN_PIN == EXTRUDER_0_AUTO_FAN_PIN)
fanState |= 1;
else if (EXTRUDER_3_AUTO_FAN_PIN == EXTRUDER_1_AUTO_FAN_PIN)
fanState |= 2;
else if (EXTRUDER_3_AUTO_FAN_PIN == EXTRUDER_2_AUTO_FAN_PIN)
fanState |= 4;
else
fanState |= 8;
}
#endif
#ifndef SINGLENOZZLE
#if HAS_AUTO_FAN_1
if (EXTRUDER_1_AUTO_FAN_PIN != EXTRUDER_0_AUTO_FAN_PIN)
setExtruderAutoFanState(EXTRUDER_1_AUTO_FAN_PIN, (fanState & 2) != 0);
#endif
#if HAS_AUTO_FAN_2
if (EXTRUDER_2_AUTO_FAN_PIN != EXTRUDER_0_AUTO_FAN_PIN
&& EXTRUDER_2_AUTO_FAN_PIN != EXTRUDER_1_AUTO_FAN_PIN)
setExtruderAutoFanState(EXTRUDER_2_AUTO_FAN_PIN, (fanState & 4) != 0);
#endif
#if HAS_AUTO_FAN_3
if (EXTRUDER_3_AUTO_FAN_PIN != EXTRUDER_0_AUTO_FAN_PIN
&& EXTRUDER_3_AUTO_FAN_PIN != EXTRUDER_1_AUTO_FAN_PIN
&& EXTRUDER_3_AUTO_FAN_PIN != EXTRUDER_2_AUTO_FAN_PIN)
setExtruderAutoFanState(EXTRUDER_3_AUTO_FAN_PIN, (fanState & 8) != 0);
#endif
#endif //!SINGLENOZZLE
}
// update extruder auto fan states
#if HAS_AUTO_FAN_0
setExtruderAutoFanState(EXTRUDER_0_AUTO_FAN_PIN, (fanState & 1) != 0);
#endif
#if HAS_AUTO_FAN_1
if (EXTRUDER_1_AUTO_FAN_PIN != EXTRUDER_0_AUTO_FAN_PIN)
setExtruderAutoFanState(EXTRUDER_1_AUTO_FAN_PIN, (fanState & 2) != 0);
#endif
#if HAS_AUTO_FAN_2
if (EXTRUDER_2_AUTO_FAN_PIN != EXTRUDER_0_AUTO_FAN_PIN
&& EXTRUDER_2_AUTO_FAN_PIN != EXTRUDER_1_AUTO_FAN_PIN)
setExtruderAutoFanState(EXTRUDER_2_AUTO_FAN_PIN, (fanState & 4) != 0);
#endif
#if HAS_AUTO_FAN_3
if (EXTRUDER_3_AUTO_FAN_PIN != EXTRUDER_0_AUTO_FAN_PIN
&& EXTRUDER_3_AUTO_FAN_PIN != EXTRUDER_1_AUTO_FAN_PIN
&& EXTRUDER_3_AUTO_FAN_PIN != EXTRUDER_2_AUTO_FAN_PIN)
setExtruderAutoFanState(EXTRUDER_3_AUTO_FAN_PIN, (fanState & 8) != 0);
#endif
}
#endif // any extruder auto fan pins set
//
// Error checking and Write Routines
//
#if EXTRUDERS > 0
#if HOTENDS > 0
#if !HAS_HEATER_0
#error HEATER_0_PIN not defined for this board
#endif
#define WRITE_HEATER_0P(v) WRITE(HEATER_0_PIN, v)
#endif
#ifndef SINGLENOZZLE
#if EXTRUDERS > 1 || defined(HEATERS_PARALLEL)
#if !HAS_HEATER_1
#error HEATER_1_PIN not defined for this board
#if HOTENDS > 1 || defined(HEATERS_PARALLEL)
#if !HAS_HEATER_1
#error HEATER_1_PIN not defined for this board
#endif
#define WRITE_HEATER_1(v) WRITE(HEATER_1_PIN, v)
#if HOTENDS > 2
#if !HAS_HEATER_2
#error HEATER_2_PIN not defined for this board
#endif
#define WRITE_HEATER_1(v) WRITE(HEATER_1_PIN, v)
#if EXTRUDERS > 2
#if !HAS_HEATER_2
#error HEATER_2_PIN not defined for this board
#endif
#define WRITE_HEATER_2(v) WRITE(HEATER_2_PIN, v)
#if EXTRUDERS > 3
#if !HAS_HEATER_3
#error HEATER_3_PIN not defined for this board
#endif
#define WRITE_HEATER_3(v) WRITE(HEATER_3_PIN, v)
#define WRITE_HEATER_2(v) WRITE(HEATER_2_PIN, v)
#if HOTENDS > 3
#if !HAS_HEATER_3
#error HEATER_3_PIN not defined for this board
#endif
#define WRITE_HEATER_3(v) WRITE(HEATER_3_PIN, v)
#endif
#endif
#endif //SINGLENOZZLE
#endif
#ifdef HEATERS_PARALLEL
#define WRITE_HEATER_0(v) { WRITE_HEATER_0P(v); WRITE_HEATER_1(v); }
#else
......@@ -608,14 +556,9 @@ void manage_heater() {
unsigned long ms = millis();
// Loop through all extruders
#ifndef SINGLENOZZLE
for (int e = 0; e < EXTRUDERS; e++)
#else
int e = 0;
#endif // !SINGLENOZZLE
// Loop through all hotends
for (int e = 0; e < HOTENDS; e++)
{
#if defined (THERMAL_RUNAWAY_PROTECTION_PERIOD) && THERMAL_RUNAWAY_PROTECTION_PERIOD > 0
thermal_runaway_protection(&thermal_runaway_state_machine[e], &thermal_runaway_timer[e], current_temperature[e], target_temperature[e], e, THERMAL_RUNAWAY_PROTECTION_PERIOD, THERMAL_RUNAWAY_PROTECTION_HYSTERESIS);
#endif
......@@ -706,7 +649,7 @@ void manage_heater() {
_temp_error(-1, MSG_EXTRUDER_SWITCHED_OFF, MSG_ERR_REDUNDANT_TEMP);
}
#endif //TEMP_SENSOR_1_AS_REDUNDANT
} // Extruders Loop
} // Hotends Loop
#if HAS_AUTO_FAN
if (ms > extruder_autofan_last_check + 2500) { // only need to check fan state very infrequently
......@@ -800,8 +743,8 @@ void manage_heater() {
#if HAS_FILAMENT_SENSOR
if (filament_sensor) {
meas_shift_index = delay_index1 - meas_delay_cm;
if (meas_shift_index < 0) meas_shift_index += MAX_MEASUREMENT_DELAY + 1; //loop around buffer if needed
if (meas_shift_index < 0) meas_shift_index += MAX_MEASUREMENT_DELAY + 1; //loop around buffer if needed
// Get the delayed info and add 100 to reconstitute to a percent of
// the nominal filament diameter then square it to get an area
meas_shift_index = constrain(meas_shift_index, 0, MAX_MEASUREMENT_DELAY);
......@@ -858,7 +801,7 @@ static float analog2temp(int raw, uint8_t e) {
return celsius;
}
return ((raw * ((5.0 * 100.0) / 1024.0) / OVERSAMPLENR) * TEMP_SENSOR_AD595_GAIN) + TEMP_SENSOR_AD595_OFFSET;
return ((raw * ((5.0 * 100) / 1024) / OVERSAMPLENR) * TEMP_SENSOR_AD595_GAIN) + TEMP_SENSOR_AD595_OFFSET;
}
// Derived from RepRap FiveD extruder::getTemperature()
......@@ -872,7 +815,7 @@ static float analog2tempBed(int raw) {
{
if (PGM_RD_W(BEDTEMPTABLE[i][0]) > raw)
{
celsius = PGM_RD_W(BEDTEMPTABLE[i-1][1]) +
celsius = PGM_RD_W(BEDTEMPTABLE[i-1][1]) +
(raw - PGM_RD_W(BEDTEMPTABLE[i-1][0])) *
(float)(PGM_RD_W(BEDTEMPTABLE[i][1]) - PGM_RD_W(BEDTEMPTABLE[i-1][1])) /
(float)(PGM_RD_W(BEDTEMPTABLE[i][0]) - PGM_RD_W(BEDTEMPTABLE[i-1][0]));
......@@ -885,7 +828,7 @@ static float analog2tempBed(int raw) {
return celsius;
#elif defined BED_USES_AD595
return ((raw * ((5.0 * 100.0) / 1024.0) / OVERSAMPLENR) * TEMP_SENSOR_AD595_GAIN) + TEMP_SENSOR_AD595_OFFSET;
return ((raw * ((5.0 * 100) / 1024) / OVERSAMPLENR) * TEMP_SENSOR_AD595_GAIN) + TEMP_SENSOR_AD595_OFFSET;
#else //NO BED_USES_THERMISTOR
return 0;
#endif //BED_USES_THERMISTOR
......@@ -898,11 +841,7 @@ static void updateTemperaturesFromRawValues() {
current_temperature_raw[0] = read_max6675();
#endif
#ifndef SINGLENOZZLE
for (int e = 0; e < EXTRUDERS; e++)
#else
int e = 0;
#endif // !SINGLENOZZLE
for (int e = 0; e < HOTENDS; e++)
{
current_temperature[e] = analog2temp(current_temperature_raw[e], e);
}
......@@ -914,17 +853,17 @@ static void updateTemperaturesFromRawValues() {
filament_width_meas = analog2widthFil();
#endif
#if HAS_POWER_CONSUMPTION_SENSOR
static float watt_overflow = 0.0;
static unsigned long last_power_update = millis();
unsigned long temp_last_power_update = millis();
float power_temp = analog2power();
static float watt_overflow = 0.0;
static unsigned long last_power_update = millis();
unsigned long temp_last_power_update = millis();
float power_temp = analog2power();
power_consumption_meas = (unsigned int)power_temp;
watt_overflow += (power_temp*(temp_last_power_update-last_power_update))/3600000.0;
if(watt_overflow >= 1.0) {
power_consumption_hour++;
watt_overflow--;
}
last_power_update = temp_last_power_update;
watt_overflow += (power_temp*(temp_last_power_update-last_power_update))/3600000.0;
if(watt_overflow >= 1.0) {
power_consumption_hour++;
watt_overflow--;
}
last_power_update = temp_last_power_update;
#endif
//Reset the watchdog after we know we have a temperature measurement.
watchdog_reset();
......@@ -936,10 +875,9 @@ static void updateTemperaturesFromRawValues() {
#if HAS_FILAMENT_SENSOR
// Convert raw Filament Width to millimeters
float analog2widthFil() {
return current_raw_filwidth / (1023.0 * OVERSAMPLENR) * 5.0;
return current_raw_filwidth / (1024 * OVERSAMPLENR) * 5.0;
//return current_raw_filwidth;
}
......@@ -954,12 +892,10 @@ static void updateTemperaturesFromRawValues() {
#endif
#if HAS_POWER_CONSUMPTION_SENSOR
// Convert raw Power Consumption to watt
float analog2power() {
return (((((5.0 * current_raw_powconsumption) / (1023.0 * OVERSAMPLENR)) - POWER_ZERO) * (POWER_VOLTAGE * 100.0)) / (POWER_SENSITIVITY * POWER_EFFICIENCY));
return (((((5.0 * current_raw_powconsumption) / (1024.0 * OVERSAMPLENR)) - POWER_ZERO) * (POWER_VOLTAGE * 100.0)) / (POWER_SENSITIVITY * POWER_EFFICIENCY));
}
#endif
void tp_init()
......@@ -970,14 +906,10 @@ void tp_init()
MCUCR=BIT(JTD);
#endif
// Finish init of mult extruder arrays
#ifndef SINGLENOZZLE
for (int e = 0; e < EXTRUDERS; e++)
#else
int e = 0;
#endif // !SINGLENOZZLE
// Finish init of mult hotends arrays
for (int e = 0; e < HOTENDS; e++)
{
// populate with the first value
// populate with the first value
maxttemp[e] = maxttemp[0];
#ifdef PIDTEMP
temp_iState_min[e] = 0.0;
......@@ -1095,32 +1027,30 @@ void tp_init()
TEMP_MAX_ROUTINE(0);
#endif
#ifndef SINGLENOZZLE
#if EXTRUDERS > 1
#if HOTENDS > 1
#ifdef HEATER_1_MINTEMP
TEMP_MIN_ROUTINE(1);
#endif
#ifdef HEATER_1_MAXTEMP
TEMP_MAX_ROUTINE(1);
#endif
#if EXTRUDERS > 2
#if HOTENDS > 2
#ifdef HEATER_2_MINTEMP
TEMP_MIN_ROUTINE(2);
#endif
#ifdef HEATER_2_MAXTEMP
TEMP_MAX_ROUTINE(2);
#endif
#if EXTRUDERS > 3
#if HOTENDS > 3
#ifdef HEATER_3_MINTEMP
TEMP_MIN_ROUTINE(3);
#endif
#ifdef HEATER_3_MAXTEMP
TEMP_MAX_ROUTINE(3);
#endif
#endif // EXTRUDERS > 3
#endif // EXTRUDERS > 2
#endif // EXTRUDERS > 1
#endif //SINGLENOZZLE
#endif // HOTENDS > 3
#endif // HOTENDS > 2
#endif // HOTENDS > 1
#ifdef BED_MINTEMP
/* No bed MINTEMP error implemented?!? */ /*
......@@ -1147,11 +1077,7 @@ void tp_init()
void setWatch() {
#ifdef WATCH_TEMP_PERIOD
unsigned long ms = millis();
#ifndef SINGLENOZZLE
for (int e = 0; e < EXTRUDERS; e++)
#else
int e = 0;
#endif // !SINGLENOZZLE
for (int e = 0; e < HOTENDS; e++)
{
if (degHotend(e) < degTargetHotend(e) - (WATCH_TEMP_INCREASE * 2)) {
watch_start_temp[e] = degHotend(e);
......@@ -1227,11 +1153,7 @@ void thermal_runaway_protection(int *state, unsigned long *timer, float temperat
void disable_heater() {
#ifndef SINGLENOZZLE
for (int e = 0; e < EXTRUDERS; e++)
#else
int e = 0;
#endif // !SINGLENOZZLE
for (int e = 0; e < HOTENDS; e++)
setTargetHotend(0, e);
setTargetBed(0);
#if HAS_TEMP_0
......@@ -1240,19 +1162,19 @@ void disable_heater() {
WRITE_HEATER_0P(LOW); // If HEATERS_PARALLEL should apply, change to WRITE_HEATER_0
#endif
#if EXTRUDERS > 1 && HAS_TEMP_1
#if HOTENDS > 1 && HAS_TEMP_1
target_temperature[1] = 0;
soft_pwm[1] = 0;
WRITE_HEATER_1(LOW);
#endif
#if EXTRUDERS > 2 && HAS_TEMP_2
#if HOTENDS > 2 && HAS_TEMP_2
target_temperature[2] = 0;
soft_pwm[2] = 0;
WRITE_HEATER_2(LOW);
#endif
#if EXTRUDERS > 3 && HAS_TEMP_3
#if HOTENDS > 3 && HAS_TEMP_3
target_temperature[3] = 0;
soft_pwm[3] = 0;
WRITE_HEATER_3(LOW);
......@@ -1345,10 +1267,7 @@ enum TempState {
ISR(TIMER0_COMPB_vect) {
//these variables are only accessible from the ISR, but static, so they don't lose their value
static unsigned char temp_count = 0;
static unsigned long raw_temp_0_value = 0;
static unsigned long raw_temp_1_value = 0;
static unsigned long raw_temp_2_value = 0;
static unsigned long raw_temp_3_value = 0;
static unsigned long raw_temp_value[HOTENDS] = { 0 };
static unsigned long raw_temp_bed_value = 0;
static TempState temp_state = StartupDelay;
static unsigned char pwm_count = BIT(SOFT_PWM_SCALE);
......@@ -1366,17 +1285,16 @@ ISR(TIMER0_COMPB_vect) {
// Statics per heater
ISR_STATICS(0);
#ifndef SINGLENOZZLE
#if (EXTRUDERS > 1) || defined(HEATERS_PARALLEL)
#if (HOTENDS > 1) || defined(HEATERS_PARALLEL)
ISR_STATICS(1);
#if EXTRUDERS > 2
#if HOTENDS > 2
ISR_STATICS(2);
#if EXTRUDERS > 3
#if HOTENDS > 3
ISR_STATICS(3);
#endif
#endif
#endif
#endif //SINGLENOZZLE
#if HAS_HEATER_BED
ISR_STATICS(BED);
#endif
......@@ -1388,7 +1306,7 @@ ISR(TIMER0_COMPB_vect) {
#if HAS_POWER_CONSUMPTION_SENSOR
static unsigned long raw_powconsumption_value = 0;
#endif
#ifndef SLOW_PWM_HEATERS
/**
* standard PWM modulation
......@@ -1399,20 +1317,20 @@ ISR(TIMER0_COMPB_vect) {
WRITE_HEATER_0(1);
}
else WRITE_HEATER_0P(0); // If HEATERS_PARALLEL should apply, change to WRITE_HEATER_0
#ifndef SINGLENOZZLE
#if EXTRUDERS > 1
#if HOTENDS > 1
soft_pwm_1 = soft_pwm[1];
WRITE_HEATER_1(soft_pwm_1 > 0 ? 1 : 0);
#if EXTRUDERS > 2
#if HOTENDS > 2
soft_pwm_2 = soft_pwm[2];
WRITE_HEATER_2(soft_pwm_2 > 0 ? 1 : 0);
#if EXTRUDERS > 3
#if HOTENDS > 3
soft_pwm_3 = soft_pwm[3];
WRITE_HEATER_3(soft_pwm_3 > 0 ? 1 : 0);
#endif
#endif
#endif
#endif //SINGLENOZZLE
#if HAS_HEATER_BED
soft_pwm_BED = soft_pwm_bed;
WRITE_HEATER_BED(soft_pwm_BED > 0 ? 1 : 0);
......@@ -1424,17 +1342,17 @@ ISR(TIMER0_COMPB_vect) {
}
if (soft_pwm_0 < pwm_count) { WRITE_HEATER_0(0); }
#ifndef SINGLENOZZLE
#if EXTRUDERS > 1
#if HOTENDS > 1
if (soft_pwm_1 < pwm_count) WRITE_HEATER_1(0);
#if EXTRUDERS > 2
#if HOTENDS > 2
if (soft_pwm_2 < pwm_count) WRITE_HEATER_2(0);
#if EXTRUDERS > 3
#if HOTENDS > 3
if (soft_pwm_3 < pwm_count) WRITE_HEATER_3(0);
#endif
#endif
#endif
#endif //SINGLENOZZLE
#if HAS_HEATER_BED
if (soft_pwm_BED < pwm_count) WRITE_HEATER_BED(0);
#endif
......@@ -1486,36 +1404,34 @@ ISR(TIMER0_COMPB_vect) {
if (slow_pwm_count == 0) {
SLOW_PWM_ROUTINE(0); // EXTRUDER 0
#ifndef SINGLENOZZLE
#if EXTRUDERS > 1
SLOW_PWM_ROUTINE(1); // EXTRUDER 1
#if EXTRUDERS > 2
SLOW_PWM_ROUTINE(2); // EXTRUDER 2
#if EXTRUDERS > 3
SLOW_PWM_ROUTINE(3); // EXTRUDER 3
SLOW_PWM_ROUTINE(0); // HOTEND 0
#if HOTENDS > 1
SLOW_PWM_ROUTINE(1); // HOTEND 1
#if HOTENDS > 2
SLOW_PWM_ROUTINE(2); // HOTEND 2
#if HOTENDS > 3
SLOW_PWM_ROUTINE(3); // HOTEND 3
#endif
#endif
#endif
#endif //SINGLENOZZLE
#if HAS_HEATER_BED
_SLOW_PWM_ROUTINE(BED, soft_pwm_bed); // BED
#endif
} // slow_pwm_count == 0
PWM_OFF_ROUTINE(0); // EXTRUDER 0
#ifndef SINGLENOZZLE
#if EXTRUDERS > 1
PWM_OFF_ROUTINE(1); // EXTRUDER 1
#if EXTRUDERS > 2
PWM_OFF_ROUTINE(2); // EXTRUDER 2
#if EXTRUDERS > 3
PWM_OFF_ROUTINE(3); // EXTRUDER 3
PWM_OFF_ROUTINE(0); // HOTEND 0
#if HOTENDS > 1
PWM_OFF_ROUTINE(1); // HOTEND 1
#if HOTENDS > 2
PWM_OFF_ROUTINE(2); // HOTEND 2
#if HOTENDS > 3
PWM_OFF_ROUTINE(3); // HOTEND 3
#endif
#endif
#endif
#endif //SINGLENOZZLE
#if HAS_HEATER_BED
PWM_OFF_ROUTINE(BED); // BED
#endif
......@@ -1536,19 +1452,18 @@ ISR(TIMER0_COMPB_vect) {
slow_pwm_count++;
slow_pwm_count &= 0x7f;
// EXTRUDER 0
// HOTEND 0
if (state_timer_heater_0 > 0) state_timer_heater_0--;
#ifndef SINGLENOZZLE
#if EXTRUDERS > 1 // EXTRUDER 1
#if HOTENDS > 1 // HOTEND 1
if (state_timer_heater_1 > 0) state_timer_heater_1--;
#if EXTRUDERS > 2 // EXTRUDER 2
#if HOTENDS > 2 // HOTEND 2
if (state_timer_heater_2 > 0) state_timer_heater_2--;
#if EXTRUDERS > 3 // EXTRUDER 3
#if HOTENDS > 3 // HOTEND 3
if (state_timer_heater_3 > 0) state_timer_heater_3--;
#endif
#endif
#endif
#endif //SINGLENOZZLE
#if HAS_HEATER_BED
if (state_timer_heater_BED > 0) state_timer_heater_BED--;
#endif
......@@ -1573,7 +1488,7 @@ ISR(TIMER0_COMPB_vect) {
break;
case MeasureTemp_0:
#if HAS_TEMP_0
raw_temp_0_value += ADC;
raw_temp_value[0] += ADC;
#endif
temp_state = PrepareTemp_BED;
break;
......@@ -1599,7 +1514,7 @@ ISR(TIMER0_COMPB_vect) {
break;
case MeasureTemp_1:
#if HAS_TEMP_1
raw_temp_1_value += ADC;
raw_temp_value[1] += ADC;
#endif
temp_state = PrepareTemp_2;
break;
......@@ -1612,7 +1527,7 @@ ISR(TIMER0_COMPB_vect) {
break;
case MeasureTemp_2:
#if HAS_TEMP_2
raw_temp_2_value += ADC;
raw_temp_value[2] += ADC;
#endif
temp_state = PrepareTemp_3;
break;
......@@ -1625,7 +1540,7 @@ ISR(TIMER0_COMPB_vect) {
break;
case MeasureTemp_3:
#if HAS_TEMP_3
raw_temp_3_value += ADC;
raw_temp_value[3] += ADC;
#endif
temp_state = Prepare_FILWIDTH;
break;
......@@ -1645,8 +1560,8 @@ ISR(TIMER0_COMPB_vect) {
}
#endif
temp_state = Prepare_POWCONSUMPTION;
break;
case Prepare_POWCONSUMPTION:
break;
case Prepare_POWCONSUMPTION:
#if HAS_POWER_CONSUMPTION_SENSOR
START_ADC(POWER_CONSUMPTION_PIN);
#endif
......@@ -1657,7 +1572,7 @@ ISR(TIMER0_COMPB_vect) {
#if HAS_POWER_CONSUMPTION_SENSOR
// raw_powconsumption_value += ADC; //remove to use an IIR filter approach
raw_powconsumption_value -= (raw_powconsumption_value>>7); //multiply raw_powconsumption_value by 127/128
raw_powconsumption_value += ((unsigned long)((ADC < (POWER_ZERO*1023)/5.0) ? (1023 - ADC) : (ADC))<<7); //add new ADC reading
raw_powconsumption_value += ((unsigned long)((ADC < (POWER_ZERO*1024)/5.0) ? (1024 - ADC) : (ADC))<<7); //add new ADC reading
#endif
temp_state = PrepareTemp_0;
temp_count++;
......@@ -1675,21 +1590,20 @@ ISR(TIMER0_COMPB_vect) {
if (temp_count >= OVERSAMPLENR) { // 12 * 16 * 1/(16000000/64/256) = 164ms.
if (!temp_meas_ready) { //Only update the raw values if they have been read. Else we could be updating them during reading.
#ifndef HEATER_0_USES_MAX6675
current_temperature_raw[0] = raw_temp_0_value;
current_temperature_raw[0] = raw_temp_value[0];
#endif
#ifndef SINGLENOZZLE
#if EXTRUDERS > 1
current_temperature_raw[1] = raw_temp_1_value;
#if EXTRUDERS > 2
current_temperature_raw[2] = raw_temp_2_value;
#if EXTRUDERS > 3
current_temperature_raw[3] = raw_temp_3_value;
#if HOTENDS > 1
current_temperature_raw[1] = raw_temp_value[1];
#if HOTENDS > 2
current_temperature_raw[2] = raw_temp_value[2];
#if HOTENDS > 3
current_temperature_raw[3] = raw_temp_value[3];
#endif
#endif
#endif
#endif //SINGLENOZZLE
#ifdef TEMP_SENSOR_1_AS_REDUNDANT
redundant_temperature_raw = raw_temp_1_value;
redundant_temperature_raw = raw_temp_value[1];
#endif
current_temperature_bed_raw = raw_temp_bed_value;
} //!temp_meas_ready
......@@ -1698,42 +1612,68 @@ ISR(TIMER0_COMPB_vect) {
#if HAS_FILAMENT_SENSOR
current_raw_filwidth = raw_filwidth_value >> 10; // Divide to get to 0-16384 range since we used 1/128 IIR filter approach
#endif
// Power Sensor - can be read any time since IIR filtering is used
#if HAS_POWER_CONSUMPTION_SENSOR
current_raw_powconsumption = raw_powconsumption_value >> 10; // Divide to get to 0-16384 range since we used 1/128 IIR filter approach
#endif
temp_meas_ready = true;
temp_count = 0;
raw_temp_0_value = 0;
raw_temp_1_value = 0;
raw_temp_2_value = 0;
raw_temp_3_value = 0;
for (int i = 0; i < HOTENDS; i++) raw_temp_value[i] = 0;
raw_temp_bed_value = 0;
#if HEATER_0_RAW_LO_TEMP > HEATER_0_RAW_HI_TEMP
#define MAXTEST <=
#define MINTEST >=
#define GE0 <=
#define LE0 >=
#else
#define MAXTEST >=
#define MINTEST <=
#define GE0 >=
#define LE0 <=
#endif
if (current_temperature_raw[0] GE0 maxttemp_raw[0]) max_temp_error(0);
if (current_temperature_raw[0] LE0 minttemp_raw[0]) min_temp_error(0);
#if HOTENDS > 1
#if HEATER_1_RAW_LO_TEMP > HEATER_1_RAW_HI_TEMP
#define GE1 <=
#define LE1 >=
#else
#define GE1 >=
#define LE1 <=
#endif
if (current_temperature_raw[1] GE1 maxttemp_raw[1]) max_temp_error(1);
if (current_temperature_raw[1] LE1 minttemp_raw[1]) min_temp_error(1);
#if HOTENDS > 2
#if HEATER_2_RAW_LO_TEMP > HEATER_2_RAW_HI_TEMP
#define GE2 <=
#define LE2 >=
#else
#define GE2 >=
#define LE2 <=
#endif
if (current_temperature_raw[2] GE2 maxttemp_raw[2]) max_temp_error(2);
if (current_temperature_raw[2] LE2 minttemp_raw[2]) min_temp_error(2);
#if HOTENDS > 3
#if HEATER_3_RAW_LO_TEMP > HEATER_3_RAW_HI_TEMP
#define GE3 <=
#define LE3 >=
#else
#define GE3 >=
#define LE3 <=
#endif
if (current_temperature_raw[3] GE3 maxttemp_raw[3]) max_temp_error(3);
if (current_temperature_raw[3] LE3 minttemp_raw[3]) min_temp_error(3);
#endif // HOTENDS > 3
#endif // HOTENDS > 2
#endif // HOTENDS > 1
#ifndef SINGLENOZZLE
for (int i = 0; i < EXTRUDERS; i++)
#else
int i = 0;
#endif
{
if (current_temperature_raw[i] MAXTEST maxttemp_raw[i]) max_temp_error(i);
else if (current_temperature_raw[i] MINTEST minttemp_raw[i]) min_temp_error(i);
}
/* No bed MINTEMP error? */
#if defined(BED_MAXTEMP) && (TEMP_SENSOR_BED != 0)
if (current_temperature_bed_raw MAXTEST bed_maxttemp_raw) {
target_temperature_bed = 0;
bed_max_temp_error();
}
#if HEATER_BED_RAW_LO_TEMP > HEATER_BED_RAW_HI_TEMP
#define GEBED <=
#define LEBED >=
#else
#define GEBED >=
#define LEBED <=
#endif
if (current_temperature_bed_raw GEBED bed_maxttemp_raw) {
target_temperature_bed = 0;
bed_max_temp_error();
}
#endif
} // temp_count >= OVERSAMPLENR
......
MarlinKimbra/temperature.h
View file @ 046d5eff
......@@ -31,35 +31,26 @@ void tp_init(); //initialize the heating
void manage_heater(); //it is critical that this is called periodically.
#if (defined(FILAMENT_SENSOR) && defined(FILWIDTH_PIN) && FILWIDTH_PIN >= 0)
// For converting raw Filament Width to milimeters
float analog2widthFil();
// For converting raw Filament Width to an extrusion ratio
int widthFil_to_size_ratio();
// For converting raw Filament Width to milimeters
float analog2widthFil();
// For converting raw Filament Width to an extrusion ratio
int widthFil_to_size_ratio();
#endif
#if (defined(POWER_CONSUMPTION) && defined(POWER_CONSUMPTION_PIN) && POWER_CONSUMPTION_PIN >= 0)
// For converting raw Power Consumption to watt
float analog2power();
// For converting raw Power Consumption to watt
float analog2power();
#endif
// low level conversion routines
// do not use these routines and variables outside of temperature.cpp
#ifndef SINGLENOZZLE
extern int target_temperature[EXTRUDERS];
extern float current_temperature[EXTRUDERS];
#ifdef SHOW_TEMP_ADC_VALUES
extern int current_temperature_raw[EXTRUDERS];
extern int current_temperature_bed_raw;
#endif
#else
extern int target_temperature[1];
extern float current_temperature[1];
#ifdef SHOW_TEMP_ADC_VALUES
extern int current_temperature_raw[1];
extern int current_temperature_bed_raw;
#endif
#endif //SINGLENOZZLE
extern int target_temperature[HOTENDS];
extern float current_temperature[HOTENDS];
#ifdef SHOW_TEMP_ADC_VALUES
extern int current_temperature_raw[HOTENDS];
extern int current_temperature_bed_raw;
#endif
extern int target_temperature_bed;
extern float current_temperature_bed;
......@@ -72,11 +63,7 @@ extern float current_temperature_bed;
#endif
#ifdef PIDTEMP
#ifndef SINGLENOZZLE
extern float Kp[EXTRUDERS],Ki[EXTRUDERS],Kd[EXTRUDERS];
#else
extern float Kp[1],Ki[1],Kd[1];
#endif
extern float Kp[HOTENDS],Ki[HOTENDS],Kd[HOTENDS];
float scalePID_i(float i);
float scalePID_d(float d);
float unscalePID_i(float i);
......@@ -94,64 +81,33 @@ extern float current_temperature_bed;
//high level conversion routines, for use outside of temperature.cpp
//inline so that there is no performance decrease.
//deg=degreeCelsius
FORCE_INLINE float degHotend(uint8_t extruder) {
#ifndef SINGLENOZZLE
return current_temperature[extruder];
#if HOTENDS <= 1
#define HOTEND_ARG 0
#else
return current_temperature[0];
#define HOTEND_ARG hotend
#endif
}
#ifdef SHOW_TEMP_ADC_VALUES
FORCE_INLINE float rawHotendTemp(uint8_t extruder) {
#ifndef SINGLENOZZLE
return current_temperature_raw[extruder];
#else
return current_temperature_raw[0];
#endif
}
FORCE_INLINE float degHotend(uint8_t hotend) { return current_temperature[HOTEND_ARG]; }
FORCE_INLINE float degBed() { return current_temperature_bed; }
#ifdef SHOW_TEMP_ADC_VALUES
FORCE_INLINE float rawHotendTemp(uint8_t hotend) { return current_temperature_raw[HOTEND_ARG]; }
FORCE_INLINE float rawBedTemp() { return current_temperature_bed_raw; }
#endif //SHOW_TEMP_ADC_VALUES
FORCE_INLINE float degBed() { return current_temperature_bed; }
FORCE_INLINE float degTargetHotend(uint8_t hotend) { return target_temperature[HOTEND_ARG]; }
FORCE_INLINE float degTargetHotend(uint8_t extruder) {
#ifndef SINGLENOZZLE
return target_temperature[extruder];
#else
return target_temperature[0];
#endif
}
FORCE_INLINE float degTargetBed() { return target_temperature_bed; }
FORCE_INLINE void setTargetHotend(const float &celsius, uint8_t extruder) {
#ifndef SINGLENOZZLE
target_temperature[extruder] = celsius;
#else
target_temperature[0] = celsius;
#endif
}
FORCE_INLINE void setTargetHotend(const float &celsius, uint8_t hotend) { target_temperature[HOTEND_ARG] = celsius; }
FORCE_INLINE void setTargetBed(const float &celsius) { target_temperature_bed = celsius; }
FORCE_INLINE bool isHeatingHotend(uint8_t extruder) {
#ifndef SINGLENOZZLE
return target_temperature[extruder] > current_temperature[extruder];
#else
return target_temperature[0] > current_temperature[0];
#endif
}
FORCE_INLINE bool isHeatingHotend(uint8_t hotend) { return target_temperature[HOTEND_ARG] > current_temperature[HOTEND_ARG]; }
FORCE_INLINE bool isHeatingBed() { return target_temperature_bed > current_temperature_bed; }
FORCE_INLINE bool isCoolingHotend(uint8_t extruder) {
#ifndef SINGLENOZZLE
return target_temperature[extruder] < current_temperature[extruder];
#else
return target_temperature[0] < current_temperature[0];
#endif
}
FORCE_INLINE bool isCoolingHotend(uint8_t hotend) { return target_temperature[HOTEND_ARG] < current_temperature[HOTEND_ARG]; }
FORCE_INLINE bool isCoolingBed() { return target_temperature_bed < current_temperature_bed; }
......@@ -160,7 +116,7 @@ FORCE_INLINE bool isCoolingBed() { return target_temperature_bed < current_tempe
#define setTargetHotend0(_celsius) setTargetHotend((_celsius), 0)
#define isHeatingHotend0() isHeatingHotend(0)
#define isCoolingHotend0() isCoolingHotend(0)
#if EXTRUDERS > 1 && !defined(SINGLENOZZLE)
#if HOTENDS > 1
#define degHotend1() degHotend(1)
#define degTargetHotend1() degTargetHotend(1)
#define setTargetHotend1(_celsius) setTargetHotend((_celsius), 1)
......@@ -169,7 +125,7 @@ FORCE_INLINE bool isCoolingBed() { return target_temperature_bed < current_tempe
#else
#define setTargetHotend1(_celsius) do{}while(0)
#endif
#if EXTRUDERS > 2 && !defined(SINGLENOZZLE)
#if HOTENDS > 2
#define degHotend2() degHotend(2)
#define degTargetHotend2() degTargetHotend(2)
#define setTargetHotend2(_celsius) setTargetHotend((_celsius), 2)
......@@ -178,7 +134,7 @@ FORCE_INLINE bool isCoolingBed() { return target_temperature_bed < current_tempe
#else
#define setTargetHotend2(_celsius) do{}while(0)
#endif
#if EXTRUDERS > 3 && !defined(SINGLENOZZLE)
#if HOTENDS > 3
#define degHotend3() degHotend(3)
#define degTargetHotend3() degTargetHotend(3)
#define setTargetHotend3(_celsius) setTargetHotend((_celsius), 3)
......@@ -187,8 +143,8 @@ FORCE_INLINE bool isCoolingBed() { return target_temperature_bed < current_tempe
#else
#define setTargetHotend3(_celsius) do{}while(0)
#endif
#if EXTRUDERS > 4
#error Invalid number of extruders
#if HOTENDS > 4
#error Invalid number of hotends
#endif
int getHeaterPower(int heater);
......@@ -217,7 +173,7 @@ FORCE_INLINE void autotempShutdown() {
#endif
}
void PID_autotune(float temp, int extruder, int ncycles);
void PID_autotune(float temp, int hotend, int ncycles);
void setExtruderAutoFanState(int pin, bool state);
void checkExtruderAutoFans();
......
MarlinKimbra/ultralcd.cpp
View file @ 046d5eff
......@@ -215,8 +215,8 @@ static void menu_action_setting_edit_callback_long5(const char* pstr, unsigned l
#define MENU_MULTIPLIER_ITEM_EDIT_CALLBACK(type, label, args...) MENU_ITEM(setting_edit_callback_ ## type, label, PSTR(label), ## args)
#endif //!ENCODER_RATE_MULTIPLIER
#define END_MENU() \
if (encoderPosition / ENCODER_STEPS_PER_MENU_ITEM >= _menuItemNr) encoderPosition = _menuItemNr * ENCODER_STEPS_PER_MENU_ITEM - 1; \
if ((uint8_t)(encoderPosition / ENCODER_STEPS_PER_MENU_ITEM) >= currentMenuViewOffset + LCD_HEIGHT) { currentMenuViewOffset = (encoderPosition / ENCODER_STEPS_PER_MENU_ITEM) - LCD_HEIGHT + 1; lcdDrawUpdate = 1; _lineNr = currentMenuViewOffset - 1; _drawLineNr = -1; } \
if (encoderLine >= _menuItemNr) encoderPosition = _menuItemNr * ENCODER_STEPS_PER_MENU_ITEM - 1; encoderLine = encoderPosition / ENCODER_STEPS_PER_MENU_ITEM;\
if (encoderLine >= currentMenuViewOffset + LCD_HEIGHT) { currentMenuViewOffset = encoderLine - LCD_HEIGHT + 1; lcdDrawUpdate = 1; _lineNr = currentMenuViewOffset - 1; _drawLineNr = -1; } \
} } while(0)
/** Used variables to keep track of the menu */
......@@ -310,16 +310,12 @@ static void lcd_status_screen()
lcd_implementation_status_screen();
lcd_status_update_delay = 10; /* redraw the main screen every second. This is easier then trying keep track of all things that change on the screen */
}
#if (defined(FILAMENT_SENSOR) && defined(FILWIDTH_PIN) && FILWIDTH_PIN >= 0) && defined(FILAMENT_LCD_DISPLAY) || (defined(POWER_CONSUMPTION) && defined(POWER_CONSUMPTION_PIN) && POWER_CONSUMPTION_PIN >= 0) && defined(POWER_CONSUMPTION_LCD_DISPLAY)
#if (defined(FILAMENT_SENSOR) && defined(FILWIDTH_PIN) && FILWIDTH_PIN >= 0) && defined(FILAMENT_LCD_DISPLAY) && (defined(POWER_CONSUMPTION) && defined(POWER_CONSUMPTION_PIN) && POWER_CONSUMPTION_PIN >= 0) && defined(POWER_CONSUMPTION_LCD_DISPLAY)
if (millis() > message_millis + 15000)
#else
if (millis() > message_millis + 10000)
#if defined(FILAMENT_SENSOR) && defined(FILWIDTH_PIN) && (FILWIDTH_PIN >= 0) && defined(FILAMENT_LCD_DISPLAY) || defined(POWER_CONSUMPTION) && defined(POWER_CONSUMPTION_PIN) && (POWER_CONSUMPTION_PIN >= 0) && defined(POWER_CONSUMPTION_LCD_DISPLAY)
if (millis() > message_millis + 15000) message_millis = millis();
#else
if (millis() > message_millis + 10000) message_millis = millis();
#endif
{
message_millis = millis();
}
#endif
#ifdef ULTIPANEL
......@@ -454,7 +450,7 @@ static void lcd_main_menu() {
void lcd_set_home_offsets() {
for(int8_t i=0; i < NUM_AXIS; i++) {
if (i != E_AXIS) {
add_homing[i] -= current_position[i];
home_offset[i] -= current_position[i];
current_position[i] = 0.0;
}
}
......@@ -693,89 +689,74 @@ void config_lcd_level_bed()
void lcd_level_bed()
{
if(ChangeScreen){
switch(pageShowInfo){
if(ChangeScreen) {
lcd.clear();
switch(pageShowInfo) {
case 0:
{
u8g.setPrintPos(0, 1);
{
lcd.setCursor(0, 1);
lcd_printPGM(PSTR(MSG_LP_INTRO));
currentMenu = lcd_level_bed;
ChangeScreen=false;
currentMenu = lcd_level_bed;
ChangeScreen=false;
}
break;
break;
case 1:
{
u8g.setPrintPos(0, 1);
{
lcd.setCursor(0, 1);
lcd_printPGM(PSTR(MSG_LP_1));
currentMenu = lcd_level_bed;
ChangeScreen=false;
currentMenu = lcd_level_bed;
ChangeScreen=false;
}
break;
break;
case 2:
{
u8g.setPrintPos(0, 1);
{
lcd.setCursor(0, 1);
lcd_printPGM(PSTR(MSG_LP_2));
currentMenu = lcd_level_bed;
ChangeScreen=false;
ChangeScreen=false;
}
break;
break;
case 3:
{
u8g.setPrintPos(0, 1);
{
lcd.setCursor(0, 1);
lcd_printPGM(PSTR(MSG_LP_3));
currentMenu = lcd_level_bed;
ChangeScreen=false;
currentMenu = lcd_level_bed;
ChangeScreen=false;
}
break;
case 4:
{
u8g.setPrintPos(0, 1);
break;
case 4:
{
lcd.setCursor(0, 1);
lcd_printPGM(PSTR(MSG_LP_4));
currentMenu = lcd_level_bed;
ChangeScreen=false;
currentMenu = lcd_level_bed;
ChangeScreen=false;
}
break;
case 5:
{
u8g.setPrintPos(0, 1);
break;
case 5:
{
lcd.setCursor(0, 1);
lcd_printPGM(PSTR(MSG_LP_5));
currentMenu = lcd_level_bed;
ChangeScreen=false;
currentMenu = lcd_level_bed;
ChangeScreen=false;
}
break;
case 6:
break;
case 6:
{
u8g.setPrintPos(2, 2);
lcd_printPGM(PSTR(MSG_LP_6));
lcd.setCursor(2, 2);
lcd_printPGM(PSTR(MSG_LP_6));
ChangeScreen=false;
delay(1200);
delay(1200);
encoderPosition = 0;
<<<<<<< HEAD
lcd.clear();
=======
>>>>>>> parent of 3223901... Fix Power Consumation
currentMenu = lcd_status_screen;
lcd_status_screen();
pageShowInfo=0;
}
break;
break;
}
}
}
}
static void lcd_prepare_menu() {
START_MENU();
MENU_ITEM(back, MSG_MAIN, lcd_main_menu);
......@@ -981,21 +962,21 @@ static void lcd_control_temperature_menu() {
#if TEMP_SENSOR_0 != 0
MENU_MULTIPLIER_ITEM_EDIT(int3, MSG_NOZZLE, &target_temperature[0], 0, HEATER_0_MAXTEMP - 15);
#endif
#if EXTRUDERS > 1
#if HOTENDS > 1
#if TEMP_SENSOR_1 != 0
MENU_MULTIPLIER_ITEM_EDIT(int3, MSG_NOZZLE " 2", &target_temperature[1], 0, HEATER_1_MAXTEMP - 15);
#endif
#if EXTRUDERS > 2
#if HOTENDS > 2
#if TEMP_SENSOR_2 != 0
MENU_MULTIPLIER_ITEM_EDIT(int3, MSG_NOZZLE " 3", &target_temperature[2], 0, HEATER_2_MAXTEMP - 15);
#endif
#if EXTRUDERS > 3
#if HOTENDS > 3
#if TEMP_SENSOR_3 != 0
MENU_MULTIPLIER_ITEM_EDIT(int3, MSG_NOZZLE " 4", &target_temperature[3], 0, HEATER_3_MAXTEMP - 15);
#endif
#endif //EXTRUDERS > 3
#endif //EXTRUDERS > 2
#endif //EXTRUDERS > 1
#endif //HOTENDS > 3
#endif //HOTENDS > 2
#endif //HOTENDS > 1
#if TEMP_SENSOR_BED != 0
MENU_MULTIPLIER_ITEM_EDIT(int3, MSG_BED, &target_temperature_bed, 0, BED_MAXTEMP - 15);
#endif
......@@ -1014,35 +995,33 @@ static void lcd_control_temperature_menu() {
// i is typically a small value so allows values below 1
MENU_ITEM_EDIT_CALLBACK(float52, MSG_PID_I, &raw_Ki, 0.01, 9990, copy_and_scalePID_i);
MENU_ITEM_EDIT_CALLBACK(float52, MSG_PID_D, &raw_Kd, 1, 9990, copy_and_scalePID_d);
#ifndef SINGLENOZZLE
#if EXTRUDERS > 1
// set up temp variables - undo the default scaling
raw_Ki = unscalePID_i(Ki[1]);
raw_Kd = unscalePID_d(Kd[1]);
MENU_ITEM_EDIT(float52, MSG_PID_P " E2", &Kp[1], 1, 9990);
// i is typically a small value so allows values below 1
MENU_ITEM_EDIT_CALLBACK(float52, MSG_PID_I " E2", &raw_Ki, 0.01, 9990, copy_and_scalePID_i);
MENU_ITEM_EDIT_CALLBACK(float52, MSG_PID_D " E2", &raw_Kd, 1, 9990, copy_and_scalePID_d);
#endif //EXTRUDERS > 1
#if EXTRUDERS > 2
// set up temp variables - undo the default scaling
raw_Ki = unscalePID_i(Ki[2]);
raw_Kd = unscalePID_d(Kd[2]);
MENU_ITEM_EDIT(float52, MSG_PID_P " E3", &Kp[2], 1, 9990);
// i is typically a small value so allows values below 1
MENU_ITEM_EDIT_CALLBACK(float52, MSG_PID_I " E3", &raw_Ki, 0.01, 9990, copy_and_scalePID_i);
MENU_ITEM_EDIT_CALLBACK(float52, MSG_PID_D " E3", &raw_Kd, 1, 9990, copy_and_scalePID_d);
#endif //EXTRUDERS > 2
#if EXTRUDERS > 3
// set up temp variables - undo the default scaling
raw_Ki = unscalePID_i(Ki[3]);
raw_Kd = unscalePID_d(Kd[3]);
MENU_ITEM_EDIT(float52, MSG_PID_P " E4", &Kp[3], 1, 9990);
// i is typically a small value so allows values below 1
MENU_ITEM_EDIT_CALLBACK(float52, MSG_PID_I " E4", &raw_Ki, 0.01, 9990, copy_and_scalePID_i);
MENU_ITEM_EDIT_CALLBACK(float52, MSG_PID_D " E4", &raw_Kd, 1, 9990, copy_and_scalePID_d);
#endif //EXTRUDERS > 2
#endif //SINGLENOZZLE
#if HOTENDS > 1
// set up temp variables - undo the default scaling
raw_Ki = unscalePID_i(Ki[1]);
raw_Kd = unscalePID_d(Kd[1]);
MENU_ITEM_EDIT(float52, MSG_PID_P " E2", &Kp[1], 1, 9990);
// i is typically a small value so allows values below 1
MENU_ITEM_EDIT_CALLBACK(float52, MSG_PID_I " E2", &raw_Ki, 0.01, 9990, copy_and_scalePID_i);
MENU_ITEM_EDIT_CALLBACK(float52, MSG_PID_D " E2", &raw_Kd, 1, 9990, copy_and_scalePID_d);
#endif //HOTENDS > 1
#if HOTENDS > 2
// set up temp variables - undo the default scaling
raw_Ki = unscalePID_i(Ki[2]);
raw_Kd = unscalePID_d(Kd[2]);
MENU_ITEM_EDIT(float52, MSG_PID_P " E3", &Kp[2], 1, 9990);
// i is typically a small value so allows values below 1
MENU_ITEM_EDIT_CALLBACK(float52, MSG_PID_I " E3", &raw_Ki, 0.01, 9990, copy_and_scalePID_i);
MENU_ITEM_EDIT_CALLBACK(float52, MSG_PID_D " E3", &raw_Kd, 1, 9990, copy_and_scalePID_d);
#endif //HOTENDS > 2
#if HOTENDS > 3
// set up temp variables - undo the default scaling
raw_Ki = unscalePID_i(Ki[3]);
raw_Kd = unscalePID_d(Kd[3]);
MENU_ITEM_EDIT(float52, MSG_PID_P " E4", &Kp[3], 1, 9990);
// i is typically a small value so allows values below 1
MENU_ITEM_EDIT_CALLBACK(float52, MSG_PID_I " E4", &raw_Ki, 0.01, 9990, copy_and_scalePID_i);
MENU_ITEM_EDIT_CALLBACK(float52, MSG_PID_D " E4", &raw_Kd, 1, 9990, copy_and_scalePID_d);
#endif //HOTENDS > 2
#endif //PIDTEMP
MENU_ITEM(submenu, MSG_PREHEAT_PLA_SETTINGS, lcd_control_temperature_preheat_pla_settings_menu);
MENU_ITEM(submenu, MSG_PREHEAT_ABS_SETTINGS, lcd_control_temperature_preheat_abs_settings_menu);
......
MarlinKimbra/ultralcd_implementation_hitachi_HD44780.h
View file @ 046d5eff
......@@ -380,57 +380,55 @@ static void lcd_set_custom_characters(
#endif
}
static void lcd_implementation_init(
static void lcd_implementation_init (
#if defined(LCD_PROGRESS_BAR) && defined(SDSUPPORT)
bool progress_bar_set=true
bool progress_bar_set = true
#endif
) {
){
#if defined(LCD_I2C_TYPE_PCF8575)
#if defined(LCD_I2C_TYPE_PCF8575)
lcd.begin(LCD_WIDTH, LCD_HEIGHT);
#ifdef LCD_I2C_PIN_BL
lcd.setBacklightPin(LCD_I2C_PIN_BL,POSITIVE);
lcd.setBacklight(HIGH);
#endif
#elif defined(LCD_I2C_TYPE_MCP23017)
#elif defined(LCD_I2C_TYPE_MCP23017)
lcd.setMCPType(LTI_TYPE_MCP23017);
lcd.begin(LCD_WIDTH, LCD_HEIGHT);
lcd.setBacklight(0); //set all the LEDs off to begin with
#elif defined(LCD_I2C_TYPE_MCP23008)
#elif defined(LCD_I2C_TYPE_MCP23008)
lcd.setMCPType(LTI_TYPE_MCP23008);
lcd.begin(LCD_WIDTH, LCD_HEIGHT);
#elif defined(LCD_I2C_TYPE_PCA8574)
lcd.init();
lcd.backlight();
#else
#elif defined(LCD_I2C_TYPE_PCA8574)
lcd.init();
lcd.backlight();
#else
lcd.begin(LCD_WIDTH, LCD_HEIGHT);
#endif
#endif
lcd_set_custom_characters(
#if defined(LCD_PROGRESS_BAR) && defined(SDSUPPORT)
progress_bar_set
#endif
);
lcd_set_custom_characters(
#if defined(LCD_PROGRESS_BAR) && defined(SDSUPPORT)
progress_bar_set
#endif
);
lcd.clear();
lcd.clear();
}
static void lcd_implementation_clear()
{
lcd.clear();
static void lcd_implementation_clear() {
lcd.clear();
}
/* Arduino < 1.0.0 is missing a function to print PROGMEM strings, so we need to implement our own */
static void lcd_printPGM(const char* str)
{
char c;
while((c = pgm_read_byte(str++)) != '\0')
{
lcd.write(c);
}
static void lcd_printPGM(const char* str) {
char c;
while((c = pgm_read_byte(str++)) != '\0')
{
lcd.write(c);
}
}
/*
Possible status screens:
16x2 |0123456789012345|
......@@ -459,145 +457,143 @@ Possible status screens:
|F100% SD100% T--:--|
|Status line.........|
*/
static void lcd_implementation_status_screen()
{
int tHotend=int(degHotend(0) + 0.5);
int tTarget=int(degTargetHotend(0) + 0.5);
#if LCD_WIDTH < 20
lcd.setCursor(0, 0);
lcd.print(itostr3(tHotend));
lcd.print('/');
lcd.print(itostr3left(tTarget));
static void lcd_implementation_status_screen() {
int tHotend=int(degHotend(0) + 0.5);
int tTarget=int(degTargetHotend(0) + 0.5);
# if (EXTRUDERS > 1 && !defined(SINGLENOZZLE)) || TEMP_SENSOR_BED != 0
//If we have an 2nd extruder or heated bed, show that in the top right corner
lcd.setCursor(8, 0);
# if EXTRUDERS > 1 && !defined(SINGLENOZZLE)
tHotend = int(degHotend(1) + 0.5);
tTarget = int(degTargetHotend(1) + 0.5);
lcd.print(LCD_STR_THERMOMETER[0]);
# else//Heated bed
tHotend=int(degBed() + 0.5);
tTarget=int(degTargetBed() + 0.5);
lcd.print(LCD_STR_BEDTEMP[0]);
# endif
#if LCD_WIDTH < 20
lcd.setCursor(0, 0);
lcd.print(itostr3(tHotend));
lcd.print('/');
lcd.print(itostr3left(tTarget));
# endif (EXTRUDERS > 1 && !defined(SINGLENOZZLE)) || TEMP_SENSOR_BED != 0
#else//LCD_WIDTH > 19
#if HOTENDS > 1 || TEMP_SENSOR_BED != 0
//If we have an 2nd extruder or heated bed, show that in the top right corner
lcd.setCursor(8, 0);
#if HOTENDS > 1
tHotend = int(degHotend(1) + 0.5);
tTarget = int(degTargetHotend(1) + 0.5);
lcd.print(LCD_STR_THERMOMETER[0]);
#else//Heated bed
tHotend=int(degBed() + 0.5);
tTarget=int(degTargetBed() + 0.5);
lcd.print(LCD_STR_BEDTEMP[0]);
#endif
lcd.print(itostr3(tHotend));
lcd.print('/');
lcd.print(itostr3left(tTarget));
#endif //HOTENDS > 1 || TEMP_SENSOR_BED != 0
#else//LCD_WIDTH > 19
lcd.setCursor(0, 0);
lcd.print(LCD_STR_THERMOMETER[0]);
lcd.print(itostr3(tHotend));
lcd.print('/');
lcd.print(itostr3left(tTarget));
lcd_printPGM(PSTR(LCD_STR_DEGREE " "));
if (tTarget < 10)
lcd.print(' ');
# if (EXTRUDERS > 1 && !defined(SINGLENOZZLE)) || TEMP_SENSOR_BED != 0
//If we have an 2nd extruder or heated bed, show that in the top right corner
lcd.setCursor(10, 0);
# if EXTRUDERS > 1 && !defined(SINGLENOZZLE)
tHotend = int(degHotend(1) + 0.5);
tTarget = int(degTargetHotend(1) + 0.5);
lcd.print(LCD_STR_THERMOMETER[0]);
# else//Heated bed
tHotend=int(degBed() + 0.5);
tTarget=int(degTargetBed() + 0.5);
lcd.print(LCD_STR_BEDTEMP[0]);
# endif
lcd.print(itostr3(tHotend));
lcd.print('/');
lcd.print(itostr3left(tTarget));
lcd_printPGM(PSTR(LCD_STR_DEGREE " "));
if (tTarget < 10)
lcd.print(' ');
# endif//(EXTRUDERS > 1 && !defined(SINGLENOZZLE)) || TEMP_SENSOR_BED != 0
#endif//LCD_WIDTH > 19
#if LCD_HEIGHT > 2
//Lines 2 for 4 line LCD
# if LCD_WIDTH < 20
# ifdef SDSUPPORT
lcd.setCursor(0, 2);
lcd_printPGM(PSTR("SD"));
if (IS_SD_PRINTING)
lcd.print(itostr3(card.percentDone()));
else
lcd_printPGM(PSTR("---"));
lcd.print('%');
# endif//SDSUPPORT
# else//LCD_WIDTH > 19
# if EXTRUDERS > 1 && TEMP_SENSOR_BED != 0 && !defined(SINGLENOZZLE)
//If we both have a 2nd extruder and a heated bed, show the heated bed temp on the 2nd line on the left, as the first line is filled with extruder temps
tHotend=int(degBed() + 0.5);
tTarget=int(degTargetBed() + 0.5);
lcd.setCursor(0, 1);
lcd.print(LCD_STR_BEDTEMP[0]);
lcd.print(itostr3(tHotend));
lcd.print('/');
lcd.print(itostr3left(tTarget));
lcd_printPGM(PSTR(LCD_STR_DEGREE " "));
if (tTarget < 10)
lcd.print(' ');
# else
lcd.setCursor(0,1);
# ifdef DELTA
lcd.print('X');
lcd.print(ftostr30(current_position[X_AXIS]));
lcd_printPGM(PSTR(" Y"));
lcd.print(ftostr30(current_position[Y_AXIS]));
# else
lcd.print('X');
lcd.print(ftostr3(current_position[X_AXIS]));
lcd_printPGM(PSTR(" Y"));
lcd.print(ftostr3(current_position[Y_AXIS]));
# endif // DELTA
# endif//EXTRUDERS > 1 || TEMP_SENSOR_BED != 0
# endif//LCD_WIDTH > 19
lcd.setCursor(LCD_WIDTH - 8, 1);
lcd.print('Z');
lcd.print(ftostr32sp(current_position[Z_AXIS] + 0.00001));
#endif//LCD_HEIGHT > 2
#if LCD_HEIGHT > 3
if (tTarget < 10) lcd.print(' ');
#if HOTENDS > 1 || TEMP_SENSOR_BED != 0
//If we have an 2nd extruder or heated bed, show that in the top right corner
lcd.setCursor(10, 0);
#if HOTENDS > 1
tHotend = int(degHotend(1) + 0.5);
tTarget = int(degTargetHotend(1) + 0.5);
lcd.print(LCD_STR_THERMOMETER[0]);
#else//Heated bed
tHotend=int(degBed() + 0.5);
tTarget=int(degTargetBed() + 0.5);
lcd.print(LCD_STR_BEDTEMP[0]);
#endif
lcd.print(itostr3(tHotend));
lcd.print('/');
lcd.print(itostr3left(tTarget));
lcd_printPGM(PSTR(LCD_STR_DEGREE " "));
if (tTarget < 10) lcd.print(' ');
#endif//HOTENDS > 1 || TEMP_SENSOR_BED != 0
#endif//LCD_WIDTH > 19
#if LCD_HEIGHT > 2
//Lines 2 for 4 line LCD
#if LCD_WIDTH < 20
#ifdef SDSUPPORT
lcd.setCursor(0, 2);
lcd_printPGM(PSTR("SD"));
if (IS_SD_PRINTING)
lcd.print(itostr3(card.percentDone()));
else
lcd_printPGM(PSTR("---"));
lcd.print('%');
#endif//SDSUPPORT
#else //LCD_WIDTH > 19
#if HOTENDS > 1 && TEMP_SENSOR_BED != 0
//If we both have a 2nd extruder and a heated bed, show the heated bed temp on the 2nd line on the left, as the first line is filled with extruder temps
tHotend=int(degBed() + 0.5);
tTarget=int(degTargetBed() + 0.5);
lcd.setCursor(0, 1);
lcd.print(LCD_STR_BEDTEMP[0]);
lcd.print(itostr3(tHotend));
lcd.print('/');
lcd.print(itostr3left(tTarget));
lcd_printPGM(PSTR(LCD_STR_DEGREE " "));
if (tTarget < 10) lcd.print(' ');
#else
lcd.setCursor(0,1);
#ifdef DELTA
lcd.print('X');
lcd.print(ftostr30(current_position[X_AXIS]));
lcd_printPGM(PSTR(" Y"));
lcd.print(ftostr30(current_position[Y_AXIS]));
#else
lcd.print('X');
lcd.print(ftostr3(current_position[X_AXIS]));
lcd_printPGM(PSTR(" Y"));
lcd.print(ftostr3(current_position[Y_AXIS]));
#endif // DELTA
#endif //HOTENDS > 1 || TEMP_SENSOR_BED != 0
#endif //LCD_WIDTH > 19
lcd.setCursor(LCD_WIDTH - 8, 1);
lcd.print('Z');
lcd.print(ftostr32sp(current_position[Z_AXIS] + 0.00001));
#endif //LCD_HEIGHT > 2
#if LCD_HEIGHT > 3
lcd.setCursor(0, 2);
lcd.print(LCD_STR_FEEDRATE[0]);
lcd.print(itostr3(feedmultiply));
lcd.print('%');
# if LCD_WIDTH > 19
# ifdef SDSUPPORT
lcd.setCursor(7, 2);
lcd_printPGM(PSTR("SD"));
if (IS_SD_PRINTING)
lcd.print(itostr3(card.percentDone()));
else
lcd_printPGM(PSTR("---"));
lcd.print('%');
# endif//SDSUPPORT
# endif//LCD_WIDTH > 19
#if LCD_WIDTH > 19
#ifdef SDSUPPORT
lcd.setCursor(7, 2);
lcd_printPGM(PSTR("SD"));
if (IS_SD_PRINTING)
lcd.print(itostr3(card.percentDone()));
else
lcd_printPGM(PSTR("---"));
lcd.print('%');
#endif //SDSUPPORT
#endif //LCD_WIDTH > 19
lcd.setCursor(LCD_WIDTH - 6, 2);
lcd.print(LCD_STR_CLOCK[0]);
if(starttime != 0)
{
uint16_t time = millis()/60000 - starttime/60000;
lcd.print(itostr2(time/60));
lcd.print(':');
lcd.print(itostr2(time%60));
}else{
lcd_printPGM(PSTR("--:--"));
uint16_t time = millis()/60000 - starttime/60000;
lcd.print(itostr2(time/60));
lcd.print(':');
lcd.print(itostr2(time%60));
}
#endif
else
{
lcd_printPGM(PSTR("--:--"));
}
#endif
// Status message line at the bottom
lcd.setCursor(0, LCD_HEIGHT - 1);
#if defined(LCD_PROGRESS_BAR) && defined(SDSUPPORT)
if (card.isFileOpen()) {
uint16_t mil = millis(), diff = mil - progressBarTick;
if (diff >= PROGRESS_BAR_MSG_TIME || !lcd_status_message[0]) {
......@@ -620,36 +616,36 @@ static void lcd_implementation_status_screen()
#endif //LCD_PROGRESS_BAR
//Display both Status message line and Filament display on the last line
//Display both Status message line and Filament display on the last line
#if (defined(FILAMENT_SENSOR) && defined(FILWIDTH_PIN) && FILWIDTH_PIN >= 0) && defined(FILAMENT_LCD_DISPLAY) || (defined(POWER_CONSUMPTION) && defined(POWER_CONSUMPTION_PIN) && POWER_CONSUMPTION_PIN >= 0) && defined(POWER_CONSUMPTION_LCD_DISPLAY)
if (millis() < message_millis + 5000) { //Display both Status message line and Filament display on the last line
lcd.print(lcd_status_message);
}
#if (defined(POWER_CONSUMPTION) && defined(POWER_CONSUMPTION_PIN) && POWER_CONSUMPTION_PIN >= 0) && defined(POWER_CONSUMPTION_LCD_DISPLAY)
#if (defined(FILAMENT_SENSOR) && defined(FILWIDTH_PIN) && FILWIDTH_PIN >= 0) && defined(FILAMENT_LCD_DISPLAY)
else if (millis() < message_millis + 10000)
#else
else
#endif
{
lcd_printPGM(PSTR("P:"));
lcd.print(itostr3(power_consumption_meas));
lcd_printPGM(PSTR("W C:"));
lcd.print(ltostr7(power_consumption_hour));
lcd_printPGM(PSTR("Wh"));
}
#endif
#if (defined(FILAMENT_SENSOR) && defined(FILWIDTH_PIN) && FILWIDTH_PIN >= 0) && defined(FILAMENT_LCD_DISPLAY)
else {
lcd_printPGM(PSTR("D:"));
lcd.print(ftostr12ns(filament_width_meas));
lcd_printPGM(PSTR("mm F:"));
lcd.print(itostr3(100.0*volumetric_multiplier[FILAMENT_SENSOR_EXTRUDER_NUM]));
lcd.print('%');
}
#else
lcd.print(lcd_status_message);
#if defined(POWER_CONSUMPTION) && defined(POWER_CONSUMPTION_PIN) && (POWER_CONSUMPTION_PIN >= 0) && defined(POWER_CONSUMPTION_LCD_DISPLAY)
#if defined(FILAMENT_SENSOR) && defined(FILWIDTH_PIN) && (FILWIDTH_PIN >= 0) && defined(FILAMENT_LCD_DISPLAY)
else if (millis() < message_millis + 10000)
#else
else
#endif
{
lcd_printPGM(PSTR("P:"));
lcd.print(itostr3(power_consumption_meas));
lcd_printPGM(PSTR("W C:"));
lcd.print(ltostr7(power_consumption_hour));
lcd_printPGM(PSTR("Wh"));
}
#endif
#if defined(FILAMENT_SENSOR) && defined(FILWIDTH_PIN) && (FILWIDTH_PIN >= 0) && defined(FILAMENT_LCD_DISPLAY)
else {
lcd_printPGM(PSTR("D:"));
lcd.print(ftostr12ns(filament_width_meas));
lcd_printPGM(PSTR("mm F:"));
lcd.print(itostr3(100.0 * volumetric_multiplier[FILAMENT_SENSOR_EXTRUDER_NUM]));
lcd.print('%');
return;
}
#else
lcd.print(lcd_status_message);
#endif
}
......@@ -667,6 +663,7 @@ static void lcd_implementation_drawmenu_generic(bool sel, uint8_t row, const cha
lcd.print(post_char);
lcd.print(' ');
}
static void lcd_implementation_drawmenu_setting_edit_generic(bool sel, uint8_t row, const char* pstr, char pre_char, char* data) {
char c;
uint8_t n = LCD_WIDTH - 1 - (LCD_WIDTH < 20 ? 1 : 2) - lcd_strlen(data);
......@@ -681,6 +678,7 @@ static void lcd_implementation_drawmenu_setting_edit_generic(bool sel, uint8_t r
while (n--) lcd.print(' ');
lcd.print(data);
}
static void lcd_implementation_drawmenu_setting_edit_generic_P(bool sel, uint8_t row, const char* pstr, char pre_char, const char* data) {
char c;
uint8_t n = LCD_WIDTH - 1 - (LCD_WIDTH < 20 ? 1 : 2) - lcd_strlen_P(data);
......@@ -695,6 +693,7 @@ static void lcd_implementation_drawmenu_setting_edit_generic_P(bool sel, uint8_t
while (n--) lcd.print(' ');
lcd_printPGM(data);
}
#define lcd_implementation_drawmenu_setting_edit_int3(sel, row, pstr, pstr2, data, minValue, maxValue) lcd_implementation_drawmenu_setting_edit_generic(sel, row, pstr, '>', itostr3(*(data)))
#define lcd_implementation_drawmenu_setting_edit_float3(sel, row, pstr, pstr2, data, minValue, maxValue) lcd_implementation_drawmenu_setting_edit_generic(sel, row, pstr, '>', ftostr3(*(data)))
#define lcd_implementation_drawmenu_setting_edit_float32(sel, row, pstr, pstr2, data, minValue, maxValue) lcd_implementation_drawmenu_setting_edit_generic(sel, row, pstr, '>', ftostr32(*(data)))
......@@ -723,6 +722,7 @@ void lcd_implementation_drawedit(const char* pstr, char* value) {
lcd.setCursor(LCD_WIDTH - (LCD_WIDTH < 20 ? 0 : 1) - lcd_strlen(value), 1);
lcd.print(value);
}
static void lcd_implementation_drawmenu_sd(bool sel, uint8_t row, const char* pstr, const char* filename, char* longFilename, uint8_t concat) {
char c;
uint8_t n = LCD_WIDTH - concat;
......@@ -743,9 +743,11 @@ static void lcd_implementation_drawmenu_sd(bool sel, uint8_t row, const char* ps
static void lcd_implementation_drawmenu_sdfile(bool sel, uint8_t row, const char* pstr, const char* filename, char* longFilename) {
lcd_implementation_drawmenu_sd(sel, row, pstr, filename, longFilename, 1);
}
static void lcd_implementation_drawmenu_sddirectory(bool sel, uint8_t row, const char* pstr, const char* filename, char* longFilename) {
lcd_implementation_drawmenu_sd(sel, row, pstr, filename, longFilename, 2);
}
#define lcd_implementation_drawmenu_back(sel, row, pstr, data) lcd_implementation_drawmenu_generic(sel, row, pstr, LCD_STR_UPLEVEL[0], LCD_STR_UPLEVEL[0])
#define lcd_implementation_drawmenu_submenu(sel, row, pstr, data) lcd_implementation_drawmenu_generic(sel, row, pstr, '>', LCD_STR_ARROW_RIGHT[0])
#define lcd_implementation_drawmenu_gcode(sel, row, pstr, gcode) lcd_implementation_drawmenu_generic(sel, row, pstr, '>', ' ')
......@@ -787,7 +789,7 @@ static void lcd_implementation_update_indicators()
if (target_temperature_bed > 0) leds |= LED_A;
if (target_temperature[0] > 0) leds |= LED_B;
if (fanSpeed) leds |= LED_C;
#if EXTRUDERS > 1 && !defined(SINGLENOZZLE)
#if HOTENDS > 1
if (target_temperature[1] > 0) leds |= LED_C;
#endif
if (leds != ledsprev) {
......
Markdown is supported
0% or
You are about to add 0 people to the discussion. Proceed with caution.
Finish editing this message first!
Please register or to comment