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NmraDcc/examples/IDECDemo&Diags/IDEC2_5_LargeFunctionBellDemo4/IDEC2_5_LargeFunctionBellDemo4.ino
Geoff Bunza f5d7e9b8c3 Gbidec (#44) 
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2020-11-20 12:10:19 +13:00

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// Interactive Decoder Random Switches IDEC2_5_LargeFunctionSetsDev.ino
// Version 1.09 Geoff Bunza 2020
// Works with both short and long DCC Addesses
// This decoder will control Switch Sequences, servos, sounds and LEDs
// F0=Master Function OFF = Function ON DISABLES the decoder
/* F0 is configured as Master Decoder Disable Override ON==Disable Decoder
* Input Pin for Decoder Disable Pin 16/A2 Active LOW
// F1-F2 Eight Switch Sets 1-2 controlled by Input pins 3,4 respectively
* All Switch Sets are defined by groups of 80 CVs
- Either a DCC Function 1-2 on OR an Input Pin (3,4,) Switched Low enables a decoder function (ON)
- BOTH the respective DCC Decoder Function 1-2 must be Off AND its respective Input Pin (3,4)
MUST be High for a decoder function to be considered disabled
- A decoder function LEFT ENABLED will repreat the respecpective action as long as it is enabled
* Switch Set CV's are 25 groups of 3 CVs each:
CV1 - A delay (0-255) which will be multiplied by the
MasterTimeConstant setting time increments from milliseconds to minutes
0 = No Delay
CV2 - A Mode or Command byte Describing what will be executed in this Switch Step, including:
0 = No Operation / Null /Skip
1 = Simple pin switch on/off
2= Random pin switch on/off
3 = Weighted Random pin switch on/off default is 60% ON time but can be set to anything 1-99%
4 = Play sound track using fpin value for the track 1-126, 0 = Skip Play, 127 = Select Random Track
from First_Track to Last_Track inclusive;
MSB=0->No Volume Change MSB=1 -> Set Volume to default_volume
5 = Position Servo to 0-180 full speed of travel
6 = Dual pin on/off used for alternate blink fpin and fpin+1 (MSB set value for fpin state)
7 = Start another Switching set based on the fpin argument (Used to chain Switch Sets)
8 = Start another Switching set based on the fpin argument ONLY if NOT already started
CV3 - An argument representing the Pin number affected in the lower 7 bits and the High bit (0x80 or 128) a value
or a general parameter like a servo position, a Sound track, or a sound set number to jump to
* Switch sets include CVs: 50-129 and 130=209
* MAX one of 3 Configurations per pin function:
* Config 0=DISABLE On/Off,1-2=Switch Control 1-2
PRO MINI PIN ASSIGNMENT:
2 - DCC Input
3 - Input Pin Switch 1
4 - Input Pin Switch 2
5 - Switch 9
6 - Switch 10
7 - Switch 11
8 - Switch 12
9 - Switch 13
10 - Switch 14
11 - Switch 1
12 - Switch 2
13 - Switch 3
14 A0 - Switch 4 or default_servo_pin
15 A1 - Switch 5 or default sound player pin (TX) connected to DFPlayer1 (RX) Pin 2 via 1K Ohm 1/4W Resistor
16 A2 - Input Pin for MasterDecoderDisable Active LOW
17 A3 - Switch 6
18 A4 - Switch 7
19 A5 - Switch 8
*/
// ******** UNLESS YOU WANT ALL CV'S RESET UPON EVERY POWER UP
// ******** AFTER THE INITIAL DECODER LOAD REMOVE THE "//" IN THE FOOLOWING LINE!!
//#define DECODER_LOADED
// ******** REMOVE THE "//" IN THE FOLOWING LINE TO enable sound DFPlayer on Pin 15
#define SOUND_PLAYER15
// ******** REMOVE THE "//" IN THE FOLOWING LINE TO enable SERVO USE
#define USE_SERVO14
// ******** REMOVE THE "//" IN THE FOLOWING LINE TO SEND DEBUGGING
// ******** INFO TO THE SERIAL MONITOR *****NOTE Turning DEBUG ON changes ALL Timing!!
//#define DEBUG
#include <NmraDcc.h>
#include <SoftwareServo.h>
#ifdef USE_SERVO14
SoftwareServo sservo;
#endif
byte default_servo_pin = 14;
byte servo_start_position = 90;
const byte servo_master_slowdown_CV = 48; //servo loop counter limit CV
int servo_slow_counter = 1; //servo loop counter to slowdown servo transit
byte servo_unit_faster = 0;
#ifdef SOUND_PLAYER15
#include <SoftwareSerial.h>
#include <DFRobotDFPlayerMini.h>
SoftwareSerial DFSerial1(22,15); // PRO MINI RX, PRO MINI TX serial to DFPlayer
DFRobotDFPlayerMini Player1;
#endif
#define default_volume 20 // sets default volume 0-30, 0 == OFF, >30 == Skip Track
#define First_Track 1 // Play Random Tracks First_Track#=Start_Track >=1
#define Last_Track 12 // Play Random Tracks Last_Track= Last Playable Track in Range <= Last Numbered Track
const byte starting_volume_CV = 49; // If no volume is set use this CV at the start
const int audiocmddelay = 40;
#define This_Decoder_Address 24
uint8_t CV_DECODER_MASTER_RESET = 252;
//Uncomment ONLY ONE of the following:
//#define MasterTimeConstant 1L // milliseconds Timing
#define MasterTimeConstant 10L // 10's of milliseconds Timing
//#define MasterTimeConstant 100L // Tenths of a second Timing
//#define MasterTimeConstant 1000L // Seconds Timing
//#define MasterTimeConstant 10000L // 10's of Seconds Timing
//#define MasterTimeConstant 60000L // Minutes Timing
//#define MasterTimeConstant 3600000L // Hours Timing
int del_tim = 4000;
uint16_t ttemp, i;
byte otemp;
byte ss1[] = {0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0};
unsigned long ss1delay=0;
byte ss2[] = {0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0};
unsigned long ss2delay=0;
bool run_switch_set [ ] = {false,false,false};
byte switchset_channel[ ]={0,0,0};
struct SERVO_TRACKING
{
byte current_position;
byte target_position;
char delta;
};
SERVO_TRACKING servo_pos;
const int MasterDecoderDisablePin = 16; // D16/A0 Master Decoder Disable Input Pin Active LOW
const int numINpins = 3; // Number of INput pins to initialize
byte inputpins [] = {3,4,16}; //These are all the Input Pins
const int numfpins = 14; // Number of Output pins to initialize
const int num_active_functions = 3; // Number of Functions stating with F0
byte fpins [] = {5,6,7,8,9,10,11,12,13,14,15,17,18,19}; //These are all the Output Pins (first 15 is placeholder)
const int FunctionPin0 = 20; // D14/A0 DFPlayer Transmit (TX) Pin 3
const int FunctionPin1 = 20; // A2 LED Place holders ONLY
const int FunctionPin2 = 20; // A3 LED Place holders ONLY
const int FunctionPin3 = 20; // A4 LED Place holders ONLY
const int FunctionPin4 = 20; // A5 LED Place holders ONLY
const int FunctionPin5 = 20; // A6 LED Place holders ONLY
const int FunctionPin6 = 20; // A7 Place holders ONLY
const int FunctionPin7 = 20; // A8 Place holders ONLY
const int FunctionPin8 = 20; // A9 Place holders ONLY
#define switch1 11
#define switch2 12
#define switch3 13
#define switch4 14
#define switch5 15
#define switch6 17
#define switch7 18
#define switch8 19
#define switch9 5
#define switch10 6
#define switch11 7
#define switch12 8
#define switch13 9
#define switch14 10
#define on 0x80
#define off 0
const int FunctionPin9 = 20; // Place holders ONLY
const int FunctionPin10 = 20; // Place holders ONLY
const int FunctionPin11 = 20; // F13 LED
const int FunctionPin12 = 20; // F12 LED
const int FunctionPin13 = 20; // F13 LED
const int FunctionPin14 = 20; // F14 LED
const int FunctionPin15 = 20; // Place holders ONLY
int MasterDecoderDisable = 0;
int Function0_value = 0;
byte function_value [ ] = {0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0};
uint8_t cv_value;
NmraDcc Dcc ;
DCC_MSG Packet ;
int t; // temp
struct QUEUE
{
int inuse;
int current_position;
int increment;
int stop_value;
int start_value;
};
QUEUE *ftn_queue = new QUEUE[17];
struct CVPair
{
uint16_t CV;
uint8_t Value;
};
CVPair FactoryDefaultCVs [] =
{
{CV_MULTIFUNCTION_PRIMARY_ADDRESS, This_Decoder_Address&0x7F },
// These two CVs define the Long DCC Address
{CV_MULTIFUNCTION_EXTENDED_ADDRESS_MSB, ((This_Decoder_Address>>8)&0x7F)+192 },
{CV_MULTIFUNCTION_EXTENDED_ADDRESS_LSB, This_Decoder_Address&0xFF },
// ONLY uncomment 1 CV_29_CONFIG line below as approprate DEFAULT IS SHORT ADDRESS
// {CV_29_CONFIG, 0}, // Short Address 14 Speed Steps
{CV_29_CONFIG, CV29_F0_LOCATION}, // Short Address 28/128 Speed Steps
// {CV_29_CONFIG, CV29_EXT_ADDRESSING | CV29_F0_LOCATION}, // Long Address 28/128 Speed Steps
{CV_DECODER_MASTER_RESET, 0},
{30, 0}, //F0 Config 0=DISABLE On/Off,1-8=Switch Control 1-10,11=LED On/Off
{31, 1}, //F1 Config 0=DISABLE On/Off,1-8=Switch Control 1-10,11=LED On/Off
{32, 2}, //F2 Config 0=DISABLE On/Off,1-8=Switch Control 1-10,11=LED On/Off
{33, 3}, //F3 Config 0=DISABLE On/Off,1-8=Switch Control 1-10,11=LED On/Off
{34, 4}, //F4 Config 0=DISABLE On/Off,1-8=Switch Control 1-10,11=LED On/Off
{35, 5}, //F5 Config 0=DISABLE On/Off,1-8=Switch Control 1-10,11=LED On/Off
{36, 6}, //F6 Config 0=DISABLE On/Off,1-8=Switch Control 1-10,11=LED On/Off
{37, 7}, //F7 Config 0=DISABLE On/Off,1-8=Switch Control 1-10,11=LED On/Off
{38, 8}, //F8 Config 0=DISABLE On/Off,1-8=Switch Control 1-10,11=LED On/Off
{39, 9}, //F9 Config 0=DISABLE On/Off,1-8=Switch Control 1-10,11=LED On/Off
{40, 10}, //F10 Config 0=DISABLE On/Off,1-8=Switch Control 1-10,11=LED On/Off
{41, 11},
{42, 11},
{43, 11},
{44, 11},
{45, 22}, //F15 not used
{48, 120}, // servo_master_slowdown_CV Higher number slows servo movment
{49, 22}, // Starting sound volume (starting_volume_CV)
#define soundM 4
#define servoM 5
#define delayM 55
#define servostartM 140
#define servoendM 42
{50, 0}, // Wait1 0-254 0.1 Seconds // switch SET 1-1
{51, servoM}, // servo Mode // 0=NOP,1=0/1,2=RND,3=WRND,4=SND,5=SRVO,6=Dual Pin,7=Next SS,8=Next SS Conditional
{52, servostartM}, // servo position
{53, delayM}, // Wait2 0-254 0.1 Seconds
{54, soundM}, // sound Mode
{55, 1}, // sound track
{56, delayM}, // Wait3 0-254 0.1 Seconds
{57, servoM}, // servo Mode
{58, servoendM}, // servo position
{59, delayM}, // Wait4 0-254 0.1 Seconds
{60, soundM}, // sound Mode
{61, 2}, // sound track
{62, delayM}, // Wait5 0-254 0.1 Seconds
{63, servoM}, // servo Mode
{64, servostartM}, // servo position
{65, 0}, // Not Used
{66, delayM}, // Wait1 0-254 0.1 Seconds // switch SET 1-2
{67, soundM}, // sound Mode // 0=NOP,1=0/1,2=RND,3=WRND,4=SND,5=SRVO,6=Dual Pin,7=Next SS,8=Next SS Conditional
{68, 3}, // sound track
{69, delayM}, // Wait2 0-254 0.1 Seconds
{70, servoM}, // servo Mode
{71, servoendM}, // servo position
{72, delayM}, // Wait3 0-254 0.1 Seconds
{73, soundM}, // sound Mode
{74, 4}, // sound track
{75, delayM}, // Wait4 0-254 0.1 Seconds
{76, servoM}, // servo Mode
{77, servostartM}, // servo position
{78, delayM}, // Wait5 0-254 0.1 Seconds
{79, soundM}, // sound Mode
{80, 5}, // sound track
{81, 0}, // Not Used
{82, delayM}, // Wait1 0-254 0.1 Seconds // switch SET 1-3
{83, servoM}, // servo Mode // 0=NOP,1=0/1,2=RND,3=WRND,4=SND,5=SRVO,6=Dual Pin,7=Next SS,8=Next SS Conditional
{84, servoendM}, // servo
{85, delayM}, // Wait2 0-254 0.1 Seconds
{86, soundM}, // sound Mode
{87, 6}, // sound
{88, delayM}, // Wait3 0-254 0.1 Seconds
{89, servoM}, // servo Mode
{90, servostartM}, // servo
{91, delayM}, // Wait4 0-254 0.1 Seconds
{92, soundM}, // sound Mode
{93, 7}, // sound
{94, delayM}, // Wait5 0-254 0.1 Seconds
{95, servoM}, // servo Mode
{96, servoendM}, // servo
{97, 0}, // Not Used
{98, delayM}, // Wait1 0-254 0.1 Seconds // switch SET 1-4
{99, soundM}, // sound Mode // 0=NOP,1=0/1,2=RND,3=WRND,4=SND,5=SRVO,6=Dual Pin,7=Next SS,8=Next SS Conditional
{100, 8}, // sound
{101, delayM}, // Wait2 0-254 0.1 Seconds
{102, servoM}, // servo Mode
{103, servostartM}, // servo
{104, delayM}, // Wait3 0-254 0.1 Seconds
{105, soundM}, // sound Mode
{106, 9}, // sound
{107, delayM}, // Wait4 0-254 0.1 Seconds
{108, servoM}, // servo Mode
{109, servoendM}, // Switch Pin4
{110, delayM}, // Wait5 0-254 0.1 Seconds
{111, soundM}, // sound Mode
{112, 10}, // sound
{113, 0}, // Not Used
{114, delayM}, // Wait1 0-254 0.1 Seconds // switch SET 1-5
{115, servoM}, // servo Mode // 0=NOP,1=0/1,2=RND,3=WRND,4=SND,5=SRVO,6=Dual Pin,7=Next SS,8=Next SS Conditional
{116, servostartM}, // servo
{117, delayM}, // Wait2 0-254 0.1 Seconds
{118, soundM}, // sound Mode
{119, 11}, // sound
{120, delayM}, // Wait3 0-254 0.1 Seconds
{121, servoM}, // servo Mode
{122, servoendM}, // servo
{123, delayM}, // Wait4 0-254 0.1 Seconds
{124, soundM}, // sound Mode
{125, 12}, // sound
{126, delayM}, // Wait5 0-254 0.1 Seconds
{127, servoM}, // servo Mode
{128, 90}, // servo
{129, 0}, // Not Used
{130, 0}, // Wait1 0-254 0.1 Seconds // switch SET 2-1
{131, servoM}, // Switch Mode // 0=NOP,1=0/1,2=RND,3=WRND,4=SND,5=SRVO,6=Dual Pin,7=Next SS,8=Next SS Conditional
{132, servostartM}, // Switch Pin1
{133, delayM}, // Wait2 0-254 0.1 Seconds
{134, soundM}, // Switch Mode
{135, 13}, // Switch Pin2
{136, delayM}, // Wait3 0-254 0.1 Seconds
{137, servoM}, // Switch Mode
{138, servoendM}, // Switch Pin3
{139, delayM}, // Wait4 0-254 0.1 Seconds
{140, soundM}, // Switch Mode
{141, 14}, // Switch Pin4
{142, delayM}, // Wait5 0-254 0.1 Seconds
{143, servoM}, // Switch Mode
{144, servostartM}, // Switch Pin5
{145, 0}, // Not Used
{146, delayM}, // Wait1 0-254 0.1 Seconds // switch SET 2-2
{147, soundM}, // Switch Mode // 0=NOP,1=0/1,2=RND,3=WRND,4=SND,5=SRVO,6=Dual Pin,7=Next SS,8=Next SS Conditional
{148, 15}, // Switch Pin1
{149, delayM}, // Wait2 0-254 0.1 Seconds
{150, servoM}, // Switch Mode
{151, servoendM}, // Switch Pin2
{152, delayM}, // Wait3 0-254 0.1 Seconds
{153, soundM}, // Switch Mode
{154, 16}, // Switch Pin3
{155, delayM}, // Wait4 0-254 0.1 Seconds
{156, servoM}, // Switch Mode
{157, servostartM}, // Switch Pin4
{158, delayM}, // Wait5 0-254 0.1 Seconds
{159, soundM}, // Switch Mode
{160, 17}, // Switch Pin5
{161, 0}, // Not Used
{162, delayM}, // Wait1 0-254 0.1 Seconds // switch SET 2-3
{163, servoM}, // Switch Mode // 0=NOP,1=0/1,2=RND,3=WRND,4=SND,5=SRVO,6=Dual Pin,7=Next SS,8=Next SS Conditional
{164, servoendM}, // Switch Pin1
{165, delayM}, // Wait2 0-254 0.1 Seconds
{166, soundM}, // Switch Mode
{167, 0}, // Switch Pin2
{168, delayM}, // Wait3 0-254 0.1 Seconds
{169, servoM}, // Switch Mode
{170, servostartM}, // Switch Pin3
{171, delayM}, // Wait4 0-254 0.1 Seconds
{172, soundM}, // Switch Mode
{173, 0}, // Switch Pin4
{174, delayM}, // Wait5 0-254 0.1 Seconds
{175, servoM}, // Switch Mode
{176, servoendM}, // Switch Pin5
{177, 0}, // Not Used
{178, delayM}, // Wait1 0-254 0.1 Seconds // switch SET 2-4
{179, soundM}, // Switch Mode // 0=NOP,1=0/1,2=RND,3=WRND,4=SND,5=SRVO,6=Dual Pin,7=Next SS,8=Next SS Conditional
{180, 0}, // Switch Pin1
{181, delayM}, // Wait2 0-254 0.1 Seconds
{182, servoM}, // Switch Mode
{183, servostartM}, // Switch Pin2
{184, delayM}, // Wait3 0-254 0.1 Seconds
{185, soundM}, // Switch Mode
{186, 0}, // Switch Pin3
{187, delayM}, // Wait4 0-254 0.1 Seconds
{188, servoM}, // Switch Mode
{189, servoendM}, // Switch Pin4
{190, delayM}, // Wait5 0-254 0.1 Seconds
{191, soundM}, // Switch Mode
{192, 0}, // Switch Pin5
{193, 0}, // Not Used
{194, delayM}, // Wait1 0-254 0.1 Seconds // switch SET 2-5
{195, servoM}, // Switch Mode // 0=NOP,1=0/1,2=RND,3=WRND,4=SND,5=SRVO,6=Dual Pin,7=Next SS,8=Next SS Conditional
{196, servostartM}, // Switch Pin1
{197, delayM}, // Wait2 0-254 0.1 Seconds
{198, soundM}, // Switch Mode
{199, 0}, // Switch Pin2
{200, delayM}, // Wait3 0-254 0.1 Seconds
{201, servoM}, // Switch Mode
{202, servoendM}, // Switch Pin3
{203, delayM}, // Wait4 0-254 0.1 Seconds
{204, soundM}, // Switch Mode
{205, 0}, // Switch Pin4
{206, delayM}, // Wait5 0-254 0.1 Seconds
{207, servoM}, // Switch Mode
{208, 90}, // Switch Pin5
{209, 0}, // Not Used
//252,252 CV_DECODER_MASTER_RESET
{253, 0}, // Extra
};
uint8_t FactoryDefaultCVIndex = sizeof(FactoryDefaultCVs)/sizeof(CVPair);
void notifyCVResetFactoryDefault()
{
// Make FactoryDefaultCVIndex non-zero and equal to num CV's to be reset
// to flag to the loop() function that a reset to Factory Defaults needs to be done
FactoryDefaultCVIndex = sizeof(FactoryDefaultCVs)/sizeof(CVPair);
};
// NOTE: NO PROGRAMMING ACK IS SET UP TO MAXIMAIZE
// OUTPUT PINS FOR FUNCTIONS
void setup() //******************************************************
{
pinMode (MasterDecoderDisablePin,INPUT_PULLUP); //Master Decoder Disable Input Active LOW
// initialize the digital pins as outputs
for (int i=0; i < numfpins; i++) {
pinMode(fpins[i], OUTPUT);
digitalWrite(fpins[i], 0); // All OUPUT pins initialized LOW
}
// initialize the digital pins as inputs
for (int i=0; i < numINpins; i++) {
pinMode(inputpins[i], INPUT_PULLUP);
}
#ifdef DEBUG
Serial.begin(115200);
#endif
#ifdef SOUND_PLAYER15
DFSerial1.begin (9600);
delay(40);
Player1.begin (DFSerial1);
delay(80);
setVolumeOnChannel (Dcc.getCV(starting_volume_CV));
#endif
#ifdef USE_SERVO14
sservo.attach(default_servo_pin); // Start Servo on default_servo_pin //Position Servo
delay(50);
sservo.write(servo_start_position); // Set starting position
servo_pos.current_position = servo_start_position;
servo_pos.delta = 0;
servo_pos.target_position = servo_start_position;
delay(500);
SoftwareServo::refresh();
#endif
// Setup which External Interrupt, the Pin it's associated with that we're using
Dcc.pin(0, 2, 0);
// Call the main DCC Init function to enable the DCC Receiver
Dcc.init( MAN_ID_DIY, 61, FLAGS_MY_ADDRESS_ONLY, 0 );
delay(800);
#if defined(DECODER_LOADED)
if ( Dcc.getCV(CV_DECODER_MASTER_RESET)== CV_DECODER_MASTER_RESET )
#endif
{
for (int j=0; j < FactoryDefaultCVIndex; j++ )
Dcc.setCV( FactoryDefaultCVs[j].CV, FactoryDefaultCVs[j].Value);
}
// Master Decoder Disable
MasterDecoderDisable = 0;
if (digitalRead(MasterDecoderDisablePin)==LOW) MasterDecoderDisable = 1;
#ifdef DEBUG
Serial.println("CV Dump:");
for (i=30; i<41; i++) { Serial.print(i,DEC); Serial.print("\t"); }
Serial.println("");
for (i=30; i<41; i++) { Serial.print(Dcc.getCV(i),DEC); Serial.print("\t"); }
Serial.println("");
Serial.println("Large Switch Set 1");
for (i=50; i<66; i++) { Serial.print(i,DEC); Serial.print("\t"); }
Serial.println("");
for (i=50; i<66; i++) { Serial.print(Dcc.getCV(i),DEC); Serial.print("\t"); }
Serial.println("");
for (i=66; i<82; i++) { Serial.print(i,DEC); Serial.print("\t"); }
Serial.println("");
for (i=66; i<82; i++) { Serial.print(Dcc.getCV(i),DEC); Serial.print("\t"); }
Serial.println("");
for (i=82; i<98; i++) { Serial.print(i,DEC); Serial.print("\t"); }
Serial.println("");
for (i=82; i<98; i++) { Serial.print(Dcc.getCV(i),DEC); Serial.print("\t"); }
Serial.println("");
for (i=98; i<114; i++) { Serial.print(i,DEC); Serial.print("\t"); }
Serial.println("");
for (i=98; i<114; i++) { Serial.print(Dcc.getCV(i),DEC); Serial.print("\t"); }
Serial.println("");
for (i=114; i<130; i++) { Serial.print(i,DEC); Serial.print("\t"); }
Serial.println("");
for (i=114; i<130; i++) { Serial.print(Dcc.getCV(i),DEC); Serial.print("\t"); }
Serial.println("");
Serial.println("Large Switch Set 2");
for (i=130; i<146; i++) { Serial.print(i,DEC); Serial.print("\t"); }
Serial.println("");
for (i=130; i<146; i++) { Serial.print(Dcc.getCV(i),DEC); Serial.print("\t"); }
Serial.println("");
for (i=146; i<162; i++) { Serial.print(i,DEC); Serial.print("\t"); }
Serial.println("");
for (i=146; i<162; i++) { Serial.print(Dcc.getCV(i),DEC); Serial.print("\t"); }
Serial.println("");
for (i=162; i<178; i++) { Serial.print(i,DEC); Serial.print("\t"); }
Serial.println("");
for (i=162; i<178; i++) { Serial.print(Dcc.getCV(i),DEC); Serial.print("\t"); }
Serial.println("");
for (i=178; i<194; i++) { Serial.print(i,DEC); Serial.print("\t"); }
Serial.println("");
for (i=178; i<194; i++) { Serial.print(Dcc.getCV(i),DEC); Serial.print("\t"); }
Serial.println("");
for (i=194; i<210; i++) { Serial.print(i,DEC); Serial.print("\t"); }
Serial.println("");
for (i=194; i<210; i++) { Serial.print(Dcc.getCV(i),DEC); Serial.print("\t"); }
Serial.println("");
#endif
}
void loop() //***********************************************************************************
{
//MUST call the NmraDcc.process() method frequently from the Arduino loop() function for correct library operation
Dcc.process();
#ifdef USE_SERVO14
SoftwareServo::refresh();
if (servo_slow_counter > Dcc.getCV(servo_master_slowdown_CV) ) update_servos();
else servo_slow_counter++;
#endif
//delay(1);
// INPUT OVER RIDES
// Check Master Input Over ride
MasterDecoderDisable = 0;
if (digitalRead(MasterDecoderDisablePin)==LOW) MasterDecoderDisable = 1;
else MasterDecoderDisable = Function0_value & 1;
if (MasterDecoderDisable == 1) {
for (i=0; i < numfpins; i++) digitalWrite(fpins[i], 0); // All LEDs set LOW
}
// ********************************************************************************
if (MasterDecoderDisable == 0) {
for (i=0; i < num_active_functions; i++) {
cv_value = Dcc.getCV(30+i) ;
#ifdef DEBUG
//Serial.print(" cv_value: ");
//Serial.println(cv_value, DEC) ;
#endif
switch ( cv_value ) {
case 0: // Master Decoder Disable
MasterDecoderDisable = 0;
if (digitalRead(MasterDecoderDisablePin)==LOW) MasterDecoderDisable = 1;
break;
case 1: //
if (((digitalRead(3)==LOW)||(function_value[cv_value]==1)) && !run_switch_set[cv_value]) {
ss1[0]=1; run_switch_set[cv_value]=true;
}
break;
case 2: //
if (((digitalRead(4)==LOW)||(function_value[cv_value]==1)) && !run_switch_set[cv_value]) {
ss2[0]=1; run_switch_set[cv_value]=true;
}
break;
default: // Extra
break;
}
}
}
// ========================== Large switch Set 1 Start Run
if (ss1[0]==1) {
ss1delay=millis()+(long(Dcc.getCV(50)*MasterTimeConstant)); // Wait1
ss1[0]=0; ss1[1]=1;
}
if ((ss1[1]==1)&&(ss1delay<=millis())) {
ttemp=(Dcc.getCV(52));
exec_switch_function(Dcc.getCV(51),ttemp&0x7f,ttemp>>7); // execute switch function 1
ss1delay=millis()+(long(Dcc.getCV(53)*MasterTimeConstant)); // Wait2
ss1[1]=0; ss1[2]=1;
}
if ((ss1[2]==1)&&(ss1delay<=millis())) {
ttemp=(Dcc.getCV(55));
exec_switch_function (Dcc.getCV(54),ttemp&0x7f,ttemp>>7); // execute switch function 2
ss1delay=millis()+(long(Dcc.getCV(56)*MasterTimeConstant)); // Wait3
ss1[2]=0; ss1[3]=1;
}
if ((ss1[3]==1)&&(ss1delay<=millis())) {
ttemp=(Dcc.getCV(58));
exec_switch_function(Dcc.getCV(57),ttemp&0x7f,ttemp>>7); // execute switch function 3
ss1delay=millis()+(long(Dcc.getCV(59)*MasterTimeConstant)); // Wait4
ss1[3]=0; ss1[4]=1;
}
if ((ss1[4]==1)&&(ss1delay<=millis())) {
ttemp=(Dcc.getCV(61));
exec_switch_function(Dcc.getCV(60),ttemp&0x7f,ttemp>>7); // execute switch function 4
ss1delay=millis()+(long(Dcc.getCV(62)*MasterTimeConstant)); // Wait5
ss1[4]=0; ss1[5]=1;
}
if ((ss1[5]==1)&&(ss1delay<=millis())) {
ttemp=(Dcc.getCV(64));
exec_switch_function(Dcc.getCV(63),ttemp&0x7f,ttemp>>7); // execute switch function 5
ss1[5]=0; ss1[6]=1;
}
// ========================== Large switch Set 1 continues
if (ss1[6]==1) {
ss1delay=millis()+(long(Dcc.getCV(66)*MasterTimeConstant)); // Wait1
ss1[6]=0; ss1[7]=1;
}
if ((ss1[7]==1)&&(ss1delay<=millis())) {
ttemp=(Dcc.getCV(68));
exec_switch_function(Dcc.getCV(67),ttemp&0x7f,ttemp>>7); // execute switch function 1
ss1delay=millis()+(long(Dcc.getCV(69)*MasterTimeConstant)); // Wait2
ss1[7]=0; ss1[8]=1;
}
if ((ss1[8]==1)&&(ss1delay<=millis())) {
ttemp=(Dcc.getCV(71));
exec_switch_function(Dcc.getCV(70),ttemp&0x7f,ttemp>>7); // execute switch function 2
ss1delay=millis()+(long(Dcc.getCV(72)*MasterTimeConstant)); // Wait3
ss1[8]=0; ss1[9]=1;
}
if ((ss1[9]==1)&&(ss1delay<=millis())) {
ttemp=(Dcc.getCV(74));
exec_switch_function(Dcc.getCV(73),ttemp&0x7f,ttemp>>7); // execute switch function 3
ss1delay=millis()+(long(Dcc.getCV(75)*MasterTimeConstant)); // Wait4
ss1[9]=0; ss1[10]=1;
}
if ((ss1[10]==1)&&(ss1delay<=millis())) {
ttemp=(Dcc.getCV(77));
exec_switch_function(Dcc.getCV(76),ttemp&0x7f,ttemp>>7); // execute switch function 4
ss1delay=millis()+(long(Dcc.getCV(78)*MasterTimeConstant)); // Wait5
ss1[10]=0; ss1[11]=1;
}
if ((ss1[11]==1)&&(ss1delay<=millis())) {
ttemp=(Dcc.getCV(80));
exec_switch_function(Dcc.getCV(79),ttemp&0x7f,ttemp>>7); // execute switch function 5
ss1[11]=0; ss1[12]=1;
}
// ========================== Large switch Set 1 continues
if (ss1[12]==1) {
ss1delay=millis()+(long(Dcc.getCV(82)*MasterTimeConstant)); // Wait1
ss1[12]=0; ss1[13]=1;
}
if ((ss1[13]==1)&&(ss1delay<=millis())) {
ttemp=(Dcc.getCV(84));
exec_switch_function(Dcc.getCV(83),ttemp&0x7f,ttemp>>7); // execute switch function 1
ss1delay=millis()+(long(Dcc.getCV(85)*MasterTimeConstant)); // Wait2
ss1[13]=0; ss1[14]=1;
}
if ((ss1[14]==1)&&(ss1delay<=millis())) {
ttemp=(Dcc.getCV(87));
exec_switch_function(Dcc.getCV(86),ttemp&0x7f,ttemp>>7); // execute switch function 2
ss1delay=millis()+(long(Dcc.getCV(88)*MasterTimeConstant)); // Wait3
ss1[14]=0; ss1[15]=1;
}
if ((ss1[15]==1)&&(ss1delay<=millis())) {
ttemp=(Dcc.getCV(90));
exec_switch_function(Dcc.getCV(89),ttemp&0x7f,ttemp>>7); // execute switch function 3
ss1delay=millis()+(long(Dcc.getCV(91)*MasterTimeConstant)); // Wait4
ss1[15]=0; ss1[16]=1;
}
if ((ss1[16]==1)&&(ss1delay<=millis())) {
ttemp=(Dcc.getCV(93));
exec_switch_function(Dcc.getCV(92),ttemp&0x7f,ttemp>>7); // execute switch function 4
ss1delay=millis()+(long(Dcc.getCV(94)*MasterTimeConstant)); // Wait5
ss1[16]=0; ss1[17]=1;
}
if ((ss1[17]==1)&&(ss1delay<=millis())) {
ttemp=(Dcc.getCV(96));
exec_switch_function(Dcc.getCV(95),ttemp&0x7f,ttemp>>7); // execute switch function 5
ss1[17]=0; ss1[18]=1;
}
// ========================== Large switch Set 1 continues
if (ss1[18]==1) {
ss1delay=millis()+(long(Dcc.getCV(98)*MasterTimeConstant)); // Wait1
ss1[18]=0; ss1[19]=1;
}
if ((ss1[19]==1)&&(ss1delay<=millis())) {
ttemp=(Dcc.getCV(100));
exec_switch_function(Dcc.getCV(99),ttemp&0x7f,ttemp>>7); // execute switch function 1
ss1delay=millis()+(long(Dcc.getCV(101)*MasterTimeConstant)); // Wait2
ss1[19]=0; ss1[20]=1;
}
if ((ss1[20]==1)&&(ss1delay<=millis())) {
ttemp=(Dcc.getCV(103));
exec_switch_function(Dcc.getCV(102),ttemp&0x7f,ttemp>>7); // execute switch function 2
ss1delay=millis()+(long(Dcc.getCV(104)*MasterTimeConstant)); // Wait3
ss1[20]=0; ss1[21]=1;
}
if ((ss1[21]==1)&&(ss1delay<=millis())) {
ttemp=(Dcc.getCV(106));
exec_switch_function(Dcc.getCV(105),ttemp&0x7f,ttemp>>7); // execute switch function 3
ss1delay=millis()+(long(Dcc.getCV(107)*MasterTimeConstant)); // Wait4
ss1[21]=0; ss1[22]=1;
}
if ((ss1[22]==1)&&(ss1delay<=millis())) {
ttemp=(Dcc.getCV(109));
exec_switch_function(Dcc.getCV(108),ttemp&0x7f,ttemp>>7); // execute switch function 4
ss1delay=millis()+(long(Dcc.getCV(110)*MasterTimeConstant)); // Wait5
ss1[22]=0; ss1[23]=1;
}
if ((ss1[23]==1)&&(ss1delay<=millis())) {
ttemp=(Dcc.getCV(112));
exec_switch_function(Dcc.getCV(111),ttemp&0x7f,ttemp>>7); // execute switch function 5
ss1[23]=0; ss1[24]=1;
}
// ========================== Large switch Set 1 continues
if (ss1[24]==1) {
ss1delay=millis()+(long(Dcc.getCV(114)*MasterTimeConstant)); // Wait1
ss1[24]=0; ss1[25]=1;
}
if ((ss1[25]==1)&&(ss1delay<=millis())) {
ttemp=(Dcc.getCV(116));
exec_switch_function(Dcc.getCV(115),ttemp&0x7f,ttemp>>7); // execute switch function 1
ss1delay=millis()+(long(Dcc.getCV(117)*MasterTimeConstant)); // Wait2
ss1[25]=0; ss1[26]=1;
}
if ((ss1[26]==1)&&(ss1delay<=millis())) {
ttemp=(Dcc.getCV(119));
exec_switch_function(Dcc.getCV(118),ttemp&0x7f,ttemp>>7); // execute switch function 2
ss1delay=millis()+(long(Dcc.getCV(120)*MasterTimeConstant)); // Wait3
ss1[26]=0; ss1[27]=1;
}
if ((ss1[27]==1)&&(ss1delay<=millis())) {
ttemp=(Dcc.getCV(122));
exec_switch_function(Dcc.getCV(121),ttemp&0x7f,ttemp>>7); // execute switch function 3
ss1delay=millis()+(long(Dcc.getCV(123)*MasterTimeConstant)); // Wait4
ss1[27]=0; ss1[28]=1;
}
if ((ss1[28]==1)&&(ss1delay<=millis())) {
ttemp=(Dcc.getCV(125));
exec_switch_function(Dcc.getCV(124),ttemp&0x7f,ttemp>>7); // execute switch function 4
ss1delay=millis()+(long(Dcc.getCV(126)*MasterTimeConstant)); // Wait5
ss1[28]=0; ss1[29]=1;
}
if ((ss1[29]==1)&&(ss1delay<=millis())) {
ttemp=(Dcc.getCV(128));
exec_switch_function(Dcc.getCV(127),ttemp&0x7f,ttemp>>7); // execute switch function 5
ss1[29]=0; run_switch_set[1]=false;
}
// ========================== Large switch Set 2 Start Run
if (ss2[0]==1) {
ss2delay=millis()+(long(Dcc.getCV(130)*MasterTimeConstant)); // Wait1
ss2[0]=0; ss2[1]=1;
}
if ((ss2[1]==1)&&(ss2delay<=millis())) {
ttemp=(Dcc.getCV(132));
exec_switch_function(Dcc.getCV(131),ttemp&0x7f,ttemp>>7); // execute switch function 1
ss2delay=millis()+(long(Dcc.getCV(133)*MasterTimeConstant)); // Wait2
ss2[1]=0; ss2[2]=1;
}
if ((ss2[2]==1)&&(ss2delay<=millis())) {
ttemp=(Dcc.getCV(135));
exec_switch_function(Dcc.getCV(134),ttemp&0x7f,ttemp>>7); // execute switch function 2
ss2delay=millis()+(long(Dcc.getCV(136)*MasterTimeConstant)); // Wait3
ss2[2]=0; ss2[3]=1;
}
if ((ss2[3]==1)&&(ss2delay<=millis())) {
ttemp=(Dcc.getCV(138));
exec_switch_function(Dcc.getCV(137),ttemp&0x7f,ttemp>>7); // execute switch function 3
ss2delay=millis()+(long(Dcc.getCV(139)*MasterTimeConstant)); // Wait4
ss2[3]=0; ss2[4]=1;
}
if ((ss2[4]==1)&&(ss2delay<=millis())) {
ttemp=(Dcc.getCV(141));
exec_switch_function(Dcc.getCV(140),ttemp&0x7f,ttemp>>7); // execute switch function 4
ss2delay=millis()+(long(Dcc.getCV(142)*MasterTimeConstant)); // Wait5
ss2[4]=0; ss2[5]=1;
}
if ((ss2[5]==1)&&(ss2delay<=millis())) {
ttemp=(Dcc.getCV(144));
exec_switch_function(Dcc.getCV(143),ttemp&0x7f,ttemp>>7); // execute switch function 5
ss2[5]=0; ss2[6]=1;
}
// ========================== switch Set 7 Start Run
if (ss2[6]==1) {
ss2delay=millis()+(long(Dcc.getCV(146)*MasterTimeConstant)); // Wait1
ss2[6]=0; ss2[7]=1;
}
if ((ss2[7]==1)&&(ss2delay<=millis())) {
ttemp=(Dcc.getCV(148));
exec_switch_function(Dcc.getCV(147),ttemp&0x7f,ttemp>>7); // execute switch function 1
ss2delay=millis()+(long(Dcc.getCV(149)*MasterTimeConstant)); // Wait2
ss2[7]=0; ss2[8]=1;
}
if ((ss2[8]==1)&&(ss2delay<=millis())) {
ttemp=(Dcc.getCV(151));
exec_switch_function(Dcc.getCV(150),ttemp&0x7f,ttemp>>7); // execute switch function 2
ss2delay=millis()+(long(Dcc.getCV(152)*MasterTimeConstant)); // Wait3
ss2[8]=0; ss2[9]=1;
}
if ((ss2[9]==1)&&(ss2delay<=millis())) {
ttemp=(Dcc.getCV(154));
exec_switch_function(Dcc.getCV(153),ttemp&0x7f,ttemp>>7); // execute switch function 3
ss2delay=millis()+(long(Dcc.getCV(155)*MasterTimeConstant)); // Wait4
ss2[9]=0; ss2[10]=1;
}
if ((ss2[10]==1)&&(ss2delay<=millis())) {
ttemp=(Dcc.getCV(157));
exec_switch_function(Dcc.getCV(156),ttemp&0x7f,ttemp>>7); // execute switch function 4
ss2delay=millis()+(long(Dcc.getCV(158)*MasterTimeConstant)); // Wait5
ss2[10]=0; ss2[11]=1;
}
if ((ss2[11]==1)&&(ss2delay<=millis())) {
ttemp=(Dcc.getCV(160));
exec_switch_function(Dcc.getCV(159),ttemp&0x7f,ttemp>>7); // execute switch function 5
ss2[11]=0; ss2[12]=1;
}
// ========================== switch Set 8 Start Run
if (ss2[12]==1) {
ss2delay=millis()+(long(Dcc.getCV(162)*MasterTimeConstant)); // Wait1
ss2[12]=0; ss2[13]=1;
}
if ((ss2[13]==1)&&(ss2delay<=millis())) {
ttemp=(Dcc.getCV(164));
exec_switch_function(Dcc.getCV(163),ttemp&0x7f,ttemp>>7); // execute switch function 1
ss2delay=millis()+(long(Dcc.getCV(165)*MasterTimeConstant)); // Wait2
ss2[13]=0; ss2[14]=1;
}
if ((ss2[14]==1)&&(ss2delay<=millis())) {
ttemp=(Dcc.getCV(167));
exec_switch_function(Dcc.getCV(166),ttemp&0x7f,ttemp>>7); // execute switch function 2
ss2delay=millis()+(long(Dcc.getCV(168)*MasterTimeConstant)); // Wait3
ss2[14]=0; ss2[15]=1;
}
if ((ss2[15]==1)&&(ss2delay<=millis())) {
ttemp=(Dcc.getCV(170));
exec_switch_function(Dcc.getCV(169),ttemp&0x7f,ttemp>>7); // execute switch function 3
ss2delay=millis()+(long(Dcc.getCV(171)*MasterTimeConstant)); // Wait4
ss2[15]=0; ss2[16]=1;
}
if ((ss2[16]==1)&&(ss2delay<=millis())) {
ttemp=(Dcc.getCV(173));
exec_switch_function(Dcc.getCV(172),ttemp&0x7f,ttemp>>7); // execute switch function 4
ss2delay=millis()+(long(Dcc.getCV(174)*MasterTimeConstant)); // Wait5
ss2[16]=0; ss2[17]=1;
}
if ((ss2[17]==1)&&(ss2delay<=millis())) {
ttemp=(Dcc.getCV(176));
exec_switch_function(Dcc.getCV(175),ttemp&0x7f,ttemp>>7); // execute switch function 5
ss2[17]=0; ss2[18]=1;
}
// ========================== switch Set 9 Start Run
if (ss2[18]==1) {
ss2delay=millis()+(long(Dcc.getCV(178)*MasterTimeConstant)); // Wait1
ss2[18]=0; ss2[19]=1;
}
if ((ss2[19]==1)&&(ss2delay<=millis())) {
ttemp=(Dcc.getCV(180));
exec_switch_function(Dcc.getCV(179),ttemp&0x7f,ttemp>>7); // execute switch function 1
ss2delay=millis()+(long(Dcc.getCV(181)*MasterTimeConstant)); // Wait2
ss2[19]=0; ss2[20]=1;
}
if ((ss2[20]==1)&&(ss2delay<=millis())) {
ttemp=(Dcc.getCV(183));
exec_switch_function(Dcc.getCV(182),ttemp&0x7f,ttemp>>7); // execute switch function 2
ss2delay=millis()+(long(Dcc.getCV(184)*MasterTimeConstant)); // Wait3
ss2[20]=0; ss2[21]=1;
}
if ((ss2[21]==1)&&(ss2delay<=millis())) {
ttemp=(Dcc.getCV(186));
exec_switch_function(Dcc.getCV(185),ttemp&0x7f,ttemp>>7); // execute switch function 3
ss2delay=millis()+(long(Dcc.getCV(187)*MasterTimeConstant)); // Wait4
ss2[21]=0; ss2[22]=1;
}
if ((ss2[22]==1)&&(ss2delay<=millis())) {
ttemp=(Dcc.getCV(189));
exec_switch_function(Dcc.getCV(188),ttemp&0x7f,ttemp>>7); // execute switch function 4
ss2delay=millis()+(long(Dcc.getCV(190)*MasterTimeConstant)); // Wait5
ss2[22]=0; ss2[23]=1;
}
if ((ss2[23]==1)&&(ss2delay<=millis())) {
ttemp=(Dcc.getCV(192));
exec_switch_function(Dcc.getCV(191),ttemp&0x7f,ttemp>>7); // execute switch function 5
ss2[23]=0; ss2[24]=1;
}
// ========================== switch Set 10 Start Run
if (ss2[24]==1) {
ss2delay=millis()+(long(Dcc.getCV(194)*MasterTimeConstant)); // Wait1
ss2[24]=0; ss2[25]=1;
}
if ((ss2[25]==1)&&(ss2delay<=millis())) {
ttemp=(Dcc.getCV(196));
exec_switch_function(Dcc.getCV(195),ttemp&0x7f,ttemp>>7); // execute switch function 1
ss2delay=millis()+(long(Dcc.getCV(197)*MasterTimeConstant)); // Wait2
ss2[25]=0; ss2[26]=1;
}
if ((ss2[26]==1)&&(ss2delay<=millis())) {
ttemp=(Dcc.getCV(199));
exec_switch_function(Dcc.getCV(198),ttemp&0x7f,ttemp>>7); // execute switch function 2
ss2delay=millis()+(long(Dcc.getCV(200)*MasterTimeConstant)); // Wait3
ss2[26]=0; ss2[27]=1;
}
if ((ss2[27]==1)&&(ss2delay<=millis())) {
ttemp=(Dcc.getCV(202));
exec_switch_function(Dcc.getCV(201),ttemp&0x7f,ttemp>>7); // execute switch function 3
ss2delay=millis()+(long(Dcc.getCV(203)*MasterTimeConstant)); // Wait4
ss2[27]=0; ss2[28]=1;
}
if ((ss2[28]==1)&&(ss2delay<=millis())) {
ttemp=(Dcc.getCV(205));
exec_switch_function(Dcc.getCV(204),ttemp&0x7f,ttemp>>7); // execute switch function 4
ss2delay=millis()+(long(Dcc.getCV(206)*MasterTimeConstant)); // Wait5
ss2[28]=0; ss2[29]=1;
}
if ((ss2[29]==1)&&(ss2delay<=millis())) {
ttemp=(Dcc.getCV(208));
exec_switch_function(Dcc.getCV(207),ttemp&0x7f,ttemp>>7); // execute switch function 5
ss2[29]=0; run_switch_set[2]=false;
}
} // end loop()
void exec_switch_function (byte switch_function, byte fpin,byte fbit) {
byte arg;
if (MasterDecoderDisable == 1) return;
arg = fpin|(fbit<<7); // 8 bits of argument passed
// 0=NOP,1=0/1,2=RND,3=WRND,4=SND,5=SRVO,6=Dual Pin,7=Next
switch ( switch_function ) { // find the switch function to execute
case 0: // 0 == No function
default:
break;
case 1: //
digitalWrite ( fpin,fbit ); // Simple pin switch on/off
break;
case 2: //
if (fbit!=0) digitalWrite ( fpin, random ( 0,2) ); // Random pin switch on/off
else digitalWrite ( fpin, 0 ); // Force the bit OFF
break;
case 3: //
if (fbit!=0) digitalWrite ( fpin, Weighted_ON() ); // Weighted Random pin switch on/off
else digitalWrite ( fpin, 0 ); // Force the bit OFF
break;
case 4: //
#ifdef SOUND_PLAYER15
//setVolumeOnChannel (default_volume * fbit); // set volume level
playTrackOnChannel(fpin); // play sound track fpin 1-127
#endif
break;
case 5: //
#ifdef USE_SERVO14
set_servo(arg); // Position Servo
#endif
break;
case 6: //
digitalWrite ( fpin,fbit ); // Dual pin on/off alternate blink
digitalWrite ( fpin+1,(~fbit)&0x01 ); // Dual pin on/off alternate blink
break;
case 7: // Start up another switch set
{
switch ( fpin ) { // Start another Switching set based on the fpin argument
case 0: //
default:
break;
case 1: // Start Switch Set 1
ss1[0] = 1; run_switch_set[fpin]=true;
break;
case 2: // Start Switch Set 2
ss2[0] = 1; run_switch_set[fpin]=true;
break;
}
}
break;
case 8: // Start Switching set if not already started
{
switch ( fpin ) { // Start another Switching set based on the fpin argument
case 0: //
default:
break;
case 1: // Start Switch Set 1
if( run_switch_set[fpin]==false) {ss1[0] = 1; run_switch_set[fpin]=true;}
break;
case 2: // Start Switch Set 2
if( run_switch_set[fpin]==false) {ss2[0] = 1; run_switch_set[fpin]=true;}
break;
}
}
break;
}
SoftwareServo::refresh();
} // end exec_switch_function()
boolean Weighted_ON() {
if (random (0, 100 ) > 40) return true; //This will reyrn ON/true 60% of the time
return false;
} // end Weighted_ON()
#ifdef USE_SERVO14
void set_servo (byte position) {
if (servo_pos.current_position == position) {
servo_pos.delta = 0;
servo_pos.target_position = position;
return;
}
if (servo_pos.current_position < position) servo_pos.delta = 1+servo_unit_faster;
else servo_pos.delta = -1-servo_unit_faster;
servo_pos.target_position = position;
} // end set_servo()
void update_servos() {
servo_slow_counter = 1;
if (servo_pos.delta != 0 ) {
servo_pos.current_position=servo_pos.current_position+servo_pos.delta;
if ((servo_pos.delta > 0)&&(servo_pos.current_position > servo_pos.target_position))
{
servo_pos.current_position = servo_pos.target_position;
servo_pos.delta = 0;
}
if ((servo_pos.delta < 0)&&(servo_pos.current_position < servo_pos.target_position))
{
servo_pos.current_position = servo_pos.target_position;
servo_pos.delta = 0;
}
if (servo_pos.current_position == servo_pos.target_position) servo_pos.delta = 0;
}
sservo.write ( servo_pos.current_position );
} // end update_servos()
#endif
void playTrackOnChannel ( byte dtrack) {
#ifdef SOUND_PLAYER15
if (dtrack == 0) return;
if (dtrack!=127) {Player1.play(dtrack); } //delay(audiocmddelay); }
else {Player1.play(random(First_Track,Last_Track+1)); } //delay(audiocmddelay); }
#endif
} // end playTrackOnChannel()
void setVolumeOnChannel ( byte dvolume) {
#ifdef SOUND_PLAYER15
if(dvolume>30) return; // Don't change the volume if out of range
Player1.volume(dvolume);
delay(audiocmddelay);
#endif
} // end setVolumeOnChannel()
void notifyCVChange( uint16_t CV, uint8_t Value) {
#ifdef DEBUG
//Serial.print("CV= ");
//Serial.println(CV, DEC) ;
//Serial.print("Value= ");
//Serial.println(Value, DEC) ;
#endif
if ( CV==49 ) setVolumeOnChannel (Value);
}
void notifyDccFunc( uint16_t Addr, DCC_ADDR_TYPE AddrType, FN_GROUP FuncGrp, uint8_t FuncState) {
#ifdef DEBUG
//Serial.print("Addr= ");
//Serial.println(Addr, DEC) ;
//Serial.print("FuncState= ");
//Serial.println(FuncState, DEC) ;
#endif
switch(FuncGrp)
{
case FN_0_4: //Function Group 1 F0 F4 F3 F2 F1
exec_function( 0, FunctionPin0, (FuncState & FN_BIT_00)>>4 );
exec_function( 1, FunctionPin1, (FuncState & FN_BIT_01));
exec_function( 2, FunctionPin2, (FuncState & FN_BIT_02)>>1);
exec_function( 3, FunctionPin3, (FuncState & FN_BIT_03)>>2 );
exec_function( 4, FunctionPin4, (FuncState & FN_BIT_04)>>3 );
break;
case FN_5_8: //Function Group 1 S FFFF == 1 F8 F7 F6 F5 & == 0 F12 F11 F10 F9 F8
exec_function( 5, FunctionPin5, (FuncState & FN_BIT_05));
exec_function( 6, FunctionPin6, (FuncState & FN_BIT_06)>>1 );
exec_function( 7, FunctionPin7, (FuncState & FN_BIT_07)>>2 );
exec_function( 8, FunctionPin8, (FuncState & FN_BIT_08)>>3 );
break;
case FN_9_12:
exec_function( 9, FunctionPin9, (FuncState & FN_BIT_09));
exec_function( 10, FunctionPin10, (FuncState & FN_BIT_10)>>1 );
exec_function( 11, FunctionPin11, (FuncState & FN_BIT_11)>>2 );
exec_function( 12, FunctionPin12, (FuncState & FN_BIT_12)>>3 );
break;
case FN_13_20: //Function Group 2 FuncState == F20-F13 Function Control
exec_function( 13, FunctionPin13, (FuncState & FN_BIT_13));
exec_function( 14, FunctionPin14, (FuncState & FN_BIT_14)>>1 );
//exec_function( 15, FunctionPin15, (FuncState & FN_BIT_15)>>2 );
//exec_function( 16, FunctionPin16, (FuncState & FN_BIT_16)>>3 );
break;
case FN_21_28:
break;
}
} // end notifyDccFunc
void exec_function (int function, int pin, int FuncState) {
#ifdef DEBUG
//Serial.print("ex function= ");
//Serial.println(function, DEC) ;
//Serial.print("FuncState= ");
//Serial.println(FuncState, DEC) ;
#endif
switch ( Dcc.getCV( 30+function) ) { // Config
case 0: // Master Disable
Function0_value = byte(FuncState);
break;
case 1: // run switch set [ function ]
case 2: // run switch set [ function ]
case 3: // run switch set [ function ]
case 4: // run switch set [ function ]
case 5: // run switch set [ function ]
case 6: // run switch set [ function ]
case 7: // run switch set [ function ]
case 8: // run switch set [ function ]
case 9: // run switch set [ function ]
case 10: // run switch set [ function ]
function_value[function] = byte(FuncState);
break;
default:
break;;
}
} // end exec_function
/* DFPlayer Commands
//----Set volume----
myDFPlayer.volume(10); //Set volume value (0~30).
myDFPlayer.volumeUp(); //Volume Up
myDFPlayer.volumeDown(); //Volume Down
//----Set different EQ----
myDFPlayer.EQ(DFPLAYER_EQ_NORMAL);
// myDFPlayer.EQ(DFPLAYER_EQ_POP);
// myDFPlayer.EQ(DFPLAYER_EQ_ROCK);
// myDFPlayer.EQ(DFPLAYER_EQ_JAZZ);
// myDFPlayer.EQ(DFPLAYER_EQ_CLASSIC);
// myDFPlayer.EQ(DFPLAYER_EQ_BASS);
//----Set device we use SD as default----
// myDFPlayer.outputDevice(DFPLAYER_DEVICE_U_DISK);
myDFPlayer.outputDevice(DFPLAYER_DEVICE_SD);
// myDFPlayer.outputDevice(DFPLAYER_DEVICE_AUX);
// myDFPlayer.outputDevice(DFPLAYER_DEVICE_SLEEP);
// myDFPlayer.outputDevice(DFPLAYER_DEVICE_FLASH);
//----Mp3 control----
// myDFPlayer.sleep(); //sleep
// myDFPlayer.reset(); //Reset the module
// myDFPlayer.enableDAC(); //Enable On-chip DAC
// myDFPlayer.disableDAC(); //Disable On-chip DAC
// myDFPlayer.outputSetting(true, 15); //output setting, enable the output and set the gain to 15
//----Mp3 play----
myDFPlayer.next(); //Play next mp3
myDFPlayer.previous(); //Play previous mp3
myDFPlayer.play(1); //Play the first mp3
myDFPlayer.loop(1); //Loop the first mp3
myDFPlayer.pause(); //pause the mp3
myDFPlayer.start(); //start the mp3 from the pause
myDFPlayer.playFolder(15, 4); //play specific mp3 in SD:/15/004.mp3; Folder Name(1~99); File Name(1~255)
myDFPlayer.enableLoopAll(); //loop all mp3 files.
myDFPlayer.disableLoopAll(); //stop loop all mp3 files.
myDFPlayer.playMp3Folder(4); //play specific mp3 in SD:/MP3/0004.mp3; File Name(0~65535)
myDFPlayer.advertise(3); //advertise specific mp3 in SD:/ADVERT/0003.mp3; File Name(0~65535)
myDFPlayer.stopAdvertise(); //stop advertise
myDFPlayer.playLargeFolder(2, 999); //play specific mp3 in SD:/02/004.mp3; Folder Name(1~10); File Name(1~1000)
myDFPlayer.loopFolder(5); //loop all mp3 files in folder SD:/05.
myDFPlayer.randomAll(); //Random play all the mp3.
myDFPlayer.enableLoop(); //enable loop.
myDFPlayer.disableLoop(); //disable loop.
*/
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