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leds.cpp
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leds.cpp
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//
//
//
//#define FASTLED_DISABELED
// ******** IDEAS
// FFT adjuster +-1,10,50 on trigger value
// FFT Delay py frame, would need another buffer
// FFT auto mode 2... lock ratio of channels to each other and just move it + or minus automatically
// FFT Booster on each color to brighten it up by x
// make a new color creator from fft!
// add fire animation link it to FFT if possible!
#include "config_TPM.h" // Load the main config
#include "leds.h"
#include "leds_def_values.h" // include the default values for led settings
#include "tools.h"
#include "wifi-ota.h"
#include "config_fs.h"
#include "tpm_artnet.h"
#include "osc.h"
//#include "msgeq7_fft.h"
//#define FASTLED_ALLOW_INTERRUPTS 0
#define FASTLED_ESP32_FLASH_LOCK 1
//#define FASTLED_RMT_MAX_CHANNELS 1
//#define FASTLED_RMT_BUILTIN_DRIVER
#include <FastLED.h>
#include <RunningAverage.h> // For Auto FFT
#include <QueueArray.h> // For buffering incoming FFT packets
#include <TPM-FX.h>
tpm_fx tpm_fx; //load the FX lib
#define ANALOG_IN_DEVIDER 16 // devide analog in by this value to get into a 0-255 range
/*#include <SPI.h>
byte address = 0x00;
SPIClass * hspi = NULL;
void Test()
{
hspi = new SPIClass(HSPI);
hspi->begin(SPI_SCK_PIN,-1,SPI_MOSI_PIN,AUDIO_DPOT_CS);
Serial.println("END Setup");
}
*/
// -- The core to run FastLED.show()
#define FASTLED_SHOW_CORE 1
void LEDS_G_artnet_master_out();
void LEDS_run_layers(uint8_t deckSelected);
void LEDS_G_run_LOAD_SAVE_SHOW_Loop();
uint8_t LEDS_fft_calc_fxbin_result(uint8_t fxbin);
extern void osc_StC_FFT_vizIt(); // of open stage controll to send the fft data
// -- Task handles for use in the notifications
static TaskHandle_t FastLEDshowTaskHandle = 0;
static TaskHandle_t userTaskHandle = 0;
// *************** External Functions
// from wifi-ota.cpp
extern artnet_struct artnet_cfg;
extern artnet_node_struct artnetNode[ARTNET_NR_NODES_TPM];
//CRGB GlobalColor_result;
// ***************** the 2 decks
deck_struct deck[1] ;
//save_struct saves[8];
// ***************** the 16 Saves in memory
//deck_cfg_struct *mem_confs[8] ;
//deck_cfg_struct mem_confs[8] ;
// ************** FFT Variables
// FFT Average Buffers for Auto FFT
uint8_t FFT_stage1_sample_count = 0; // used to count the samples in FFT Stage 1 for pulling into Stage 2
#define FFT_AVERAGE_SAMPLES 30 //30 //60 // How many samples to take for the FFT average = Stage 1
RunningAverage fft_bin0(FFT_AVERAGE_SAMPLES); // Buffers for the FFT values
RunningAverage fft_bin1(FFT_AVERAGE_SAMPLES);
RunningAverage fft_bin2(FFT_AVERAGE_SAMPLES);
RunningAverage fft_bin3(FFT_AVERAGE_SAMPLES);
RunningAverage fft_bin4(FFT_AVERAGE_SAMPLES);
RunningAverage fft_bin5(FFT_AVERAGE_SAMPLES);
RunningAverage fft_bin6(FFT_AVERAGE_SAMPLES);
#define FFT_AVERAGE_SAMPLES_STAGE2 6 // How many samples to take in Stage 2 auto FFT average
RunningAverage fft_bin0stage2(FFT_AVERAGE_SAMPLES_STAGE2); // Buffers for auto FFT Stage 2
RunningAverage fft_bin1stage2(FFT_AVERAGE_SAMPLES_STAGE2); // one stage to is keppt every second. so with 10 samples we have an average+max of the last 10 seconds.
RunningAverage fft_bin2stage2(FFT_AVERAGE_SAMPLES_STAGE2);
RunningAverage fft_bin3stage2(FFT_AVERAGE_SAMPLES_STAGE2);
RunningAverage fft_bin4stage2(FFT_AVERAGE_SAMPLES_STAGE2);
RunningAverage fft_bin5stage2(FFT_AVERAGE_SAMPLES_STAGE2);
RunningAverage fft_bin6stage2(FFT_AVERAGE_SAMPLES_STAGE2);
// FFT
QueueArray <uint8_t> FFT_fifo;
uint8_t fft_fps;
uint8_t fft_bin_results[7];
// ********************* LED Setup FastLed
CRGBArray<MAX_NUM_LEDS> tmp_array; // used as a buffer before mirroring reversing.
led_controls_struct led_cnt = { 150,30 }; // global
led_cfg_struct led_cfg = { DEF_MAX_BRI ,DEF_MAX_BRI,0, 0, 1,1,1 ,DEF_LED_MODE, NUM_LEDS ,DEF_PLAY_MODE, {DEF_DATA1_START_NR,DEF_DATA2_START_NR, DEF_DATA3_START_NR, DEF_DATA4_START_NR}, {DEF_DATA1_NR_LEDS, DEF_DATA2_NR_LEDS, DEF_DATA3_NR_LEDS,DEF_DATA4_NR_LEDS }, DEF_APA102_DATARATE, 5 , 0,15, POT_SENSE_DEF ,0 }; // The basic led config
uint16_t play_conf_time_min[MAX_NR_SAVES] = {5,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16};
uint8_t squencer_bool[NR_Confbits] = {0,0}; // to hold what saves o play in sequence mode
/** show() for ESP32
* Call this function instead of FastLED.show(). It signals core 0 to issue a show,
* then waits for a notification that it is done.
*/
void FastLEDshowESP32()
{
if (userTaskHandle == 0) {
// -- Store the handle of the current task, so that the show task can
// notify it when it's done
userTaskHandle = xTaskGetCurrentTaskHandle();
// -- Trigger the show task
xTaskNotifyGive(FastLEDshowTaskHandle);
// -- Wait to be notified that it's done
const TickType_t xMaxBlockTime = pdMS_TO_TICKS( 200 );
ulTaskNotifyTake(pdTRUE, xMaxBlockTime);
userTaskHandle = 0;
}
}
/** show Task
* This function runs on core 0 and just waits for requests to call FastLED.show()
*/
void FastLEDshowTask(void *pvParameters)
{
// -- Run forever...
for(;;) {
// -- Wait for the trigger
ulTaskNotifyTake(pdTRUE, portMAX_DELAY);
// -- Do the show (synchronously)
FastLED.show();
// -- Notify the calling task
xTaskNotifyGive(userTaskHandle);
}
}
void LEDS_show()
{
if(deck[0].cfg.fft_config.fft_menu_bri != 0)
FastLED.setBrightness(LEDS_get_real_bri() );
else
FastLED.setBrightness(deck[0].cfg.led_master_cfg.bri);
if (get_bool(ARTNET_SEND) == true) LEDS_G_artnet_master_out(); // Send out the artnet data if enabled
else FastLEDshowESP32();
//FastLED.show();
//FastLED[0].showLeds(deck[0].led_master_cfg.bri);
//FastLED[1].showLeds(deck[0].led_master_cfg.bri);
//FastLED[2].showLeds(deck[0].led_master_cfg.bri);
}
void LEDS_setLED_show(uint8_t ledNr, uint8_t color[3])
{
deck[0].run.leds[ledNr].r = color[0];
deck[0].run.leds[ledNr].g = color[1];
deck[0].run.leds[ledNr].b = color[2];
LEDS_show();
}
// ************* FUNCTIONS
void LEDS_fadeout()
{
// make a fadout loop goddamit!
deck[0].run.leds.fadeToBlackBy(255);
yield();
FastLED.show();
yield();
}
/*
void LEDS_Copy_strip(uint16_t start_LED, int nr_LED, uint16_t ref_LED)
{
// copy a strip to somewhere else
if (nr_LED != 0 && (nr_LED + start_LED <= MAX_NUM_LEDS))
{
if (nr_LED < 0) leds((start_LED - nr_LED - 1), (start_LED)) = leds((ref_LED), (ref_LED - nr_LED - 1));
else leds((start_LED), (start_LED + nr_LED - 1)) = leds((ref_LED), (ref_LED + nr_LED - 1));
}
}
// global effects
void LEDS_G_flipstrip(uint16_t start_LED, uint16_t nr_leds)
{
// a function to reverse a strip
CRGB buffer_strip[nr_leds];
for (int i = 0; i < nr_leds; i++)
{
//leds[start_LED + i] = buffer_strip[nr_leds - i - 1];
buffer_strip[nr_leds - i - 1] = leds[start_LED + i];
}
memcpy8(&leds[start_LED], &buffer_strip, nr_leds * 3);
//memmove8
//memcpy8(dest, src, bytecount)
}
*/
void LED_master_rgb(uint16_t Start_led , uint16_t number_of_leds )
{
// fade RGB if we are not on full
if (deck[0].cfg.led_master_cfg.r != 255)
for (int i = Start_led; i < Start_led + number_of_leds; i++)
deck[0].run.leds[i].r = deck[0].run.leds[i].r * deck[0].cfg.led_master_cfg.r / 255;
if (deck[0].cfg.led_master_cfg.g != 255)
for (int i = Start_led; i < Start_led + number_of_leds; i++)
deck[0].run.leds[i].g = deck[0].run.leds[i].g * deck[0].cfg.led_master_cfg.g / 255;
if (deck[0].cfg.led_master_cfg.b != 255)
for (int i = Start_led; i < Start_led + number_of_leds; i++)
deck[0].run.leds[i].b = deck[0].run.leds[i].b * deck[0].cfg.led_master_cfg.b / 255;
}
void LEDS_G_AutoCalcPal(uint8_t deckNo, uint8_t iform)
{
//deck[0].cfg.form_fx_pal[formNr].index_add_led
//deck[0].cfg.form_fx_pal[formNr].index_add_frame );
uint16_t leds = 1;
switch (deck[deckNo].cfg.form_fx_pal[iform].autoPalMode)
{
case Ap_M1: leds = (deck[deckNo].cfg.form_cfg[iform].nr_leds); break;
case Ap_M2: leds = (deck[deckNo].cfg.form_cfg[iform].nr_leds / 2); break;
case Ap_M3: leds = (deck[deckNo].cfg.form_cfg[iform].nr_leds / 3); break;
case Ap_M4: leds = (deck[deckNo].cfg.form_cfg[iform].nr_leds / 4); break;
case Ap_M5: leds = (deck[deckNo].cfg.form_cfg[iform].nr_leds / 5); break;
case Ap_M6: leds = (deck[deckNo].cfg.form_cfg[iform].nr_leds / 6); break;
case Ap_M7: leds = (deck[deckNo].cfg.form_cfg[iform].nr_leds / 7); break;
case Ap_M8: leds = (deck[deckNo].cfg.form_cfg[iform].nr_leds / 8); break;
case Ap_M9: leds = (deck[deckNo].cfg.form_cfg[iform].nr_leds / 9); break;
case Ap_M10: leds = (deck[deckNo].cfg.form_cfg[iform].nr_leds / 10); break;
case Ap_D2: leds = (deck[deckNo].cfg.form_cfg[iform].nr_leds * 2); break;
case Ap_D3: leds = (deck[deckNo].cfg.form_cfg[iform].nr_leds * 3); break;
case Ap_D4: leds = (deck[deckNo].cfg.form_cfg[iform].nr_leds * 4); break;
case Ap_D5: leds = (deck[deckNo].cfg.form_cfg[iform].nr_leds * 5); break;
case Ap_D6: leds = (deck[deckNo].cfg.form_cfg[iform].nr_leds * 6); break;
case Ap_D7: leds = (deck[deckNo].cfg.form_cfg[iform].nr_leds * 7); break;
case Ap_D8: leds = (deck[deckNo].cfg.form_cfg[iform].nr_leds * 8); break;
case Ap_D9: leds = (deck[deckNo].cfg.form_cfg[iform].nr_leds * 9); break;
case Ap_D10: leds = (deck[deckNo].cfg.form_cfg[iform].nr_leds * 10); break;
default: break;
}
debugMe(String(leds) + " xxxx " + String(iform) + " x " + String(deck[deckNo].cfg.form_cfg[iform].nr_leds) );
if (leds != 0 && deck[deckNo].cfg.form_fx_pal[iform].autoPalMode != Ap_MANUAL ) deck[deckNo].cfg.form_fx_pal[iform].index_add_led = calc_rounded_devision(MAX_INDEX_LONG , leds);
osc_queu_MSG_int("/ostc/form/pal/ald/" + String(iform), deck[0].cfg.form_fx_pal[iform].index_add_led );
}
void LEDS_G_LoadSAveFade(boolean Save, uint8_t confNr)
{
write_bool(FADE_INOUT, true);
write_bool(FADE_INOUT_FADEBACK, false);
write_bool(FADE_INOUT_SAVE, Save);
led_cfg.fade_inout_val = 0;
led_cfg.next_config_loadsave = confNr;
led_cfg.confSwitch_time = micros() ;
}
void LEDS_FX1_increment_indexes(uint8_t DeckNo)
{
for (uint8_t z=0 ; z< NR_FX_BYTES ; z++)
{
if (deck[DeckNo].fx1_cfg.form_menu_strobe[z] != 0)
{
deck[DeckNo].run.form_fx_strobe[z].frame_pos++;
if (deck[DeckNo].run.form_fx_strobe[z].frame_pos >= deck[DeckNo].fx1_cfg.form_fx_strobe_bytes[z].on_frames + deck[DeckNo].fx1_cfg.form_fx_strobe_bytes[z].off_frames)
deck[DeckNo].run.form_fx_strobe[z].frame_pos = 0;
}
}
}
void LEDS_G_pre_show_processing()
{ // the leds pre show prcessing
// run the effects and set the brightness.
LEDS_FX1_increment_indexes(0);
if(led_cfg.ledMode == 0 || led_cfg.ledMode == 2 || led_cfg.ledMode == 4 )
{
LED_master_rgb(0, led_cfg.NrLeds );
}
else
{
if(get_bool(DATA1_ENABLE)) LED_master_rgb(led_cfg.DataStart_leds[0] , led_cfg.DataNR_leds[0] );
if(get_bool(DATA2_ENABLE)) LED_master_rgb(led_cfg.DataStart_leds[1] , led_cfg.DataNR_leds[1] );
if(get_bool(DATA3_ENABLE)) LED_master_rgb(led_cfg.DataStart_leds[2] , led_cfg.DataNR_leds[2] );
if(get_bool(DATA4_ENABLE)) LED_master_rgb(led_cfg.DataStart_leds[3] , led_cfg.DataNR_leds[3] );
}
if(!get_bool(POT_DISABLE) || get_bool(POTS_LVL_MASTER))
{
//uint8_t bri = led_cfg.max_bri * deck[0].led_master_cfg.bri / 255;
uint8_t bri = analogRead(POTI_BRI_PIN) / ANALOG_IN_DEVIDER;
if (bri > led_cnt.PotBriLast + led_cfg.PotSens || bri < led_cnt.PotBriLast - led_cfg.PotSens)
{
deck[0].cfg.led_master_cfg.bri = map(bri, 0, 255, 0, led_cfg.max_bri);
led_cnt.PotBriLast = bri;
}
//FastLED.setBrightness(deck[0].led_master_cfg.bri); moved to show
//debugMe(deck[0].led_master_cfg.bri);
uint8_t fps = analogRead(POTI_FPS_PIN) / ANALOG_IN_DEVIDER;
//deck[0].led_master_cfg.pal_fps = fps /4;
///*
if (fps > led_cnt.PotFPSLast + led_cfg.PotSens || fps < led_cnt.PotFPSLast - led_cfg.PotSens)
{
deck[0].cfg.led_master_cfg.pal_fps = map(fps, 0, 255, 1, MAX_PAL_FPS); //*/
led_cnt.PotFPSLast = fps;
}
//Serial.println(fps);
}
//LED_G_bit_run();
//= led_cfg.max_br * deck[0].led_master_cfg.bri / 255
}
boolean LEDS_checkIfAudioSelected()
{ // check if there are audi strips if so return true
//for (byte zp = 0; zp < _M_NR_STRIP_BYTES_; zp++) if (strip_menu[zp][_M_AUDIO_] != 0) return true;
for (byte zf = 0; zf < _M_NR_FORM_BYTES_; zf++) if ((deck[0].cfg.form_menu_fft[zf][_M_FORM_FFT_RUN] != 0) ) return true;
if(deck[0].cfg.fft_config.fft_menu_bri != 0) return true;
if(deck[0].cfg.fft_config.fft_fxbin[0].menu_select != 0) return true;
if(deck[0].cfg.fft_config.fft_fxbin[1].menu_select != 0) return true;
if(deck[0].cfg.fft_config.fft_fxbin[2].menu_select != 0) return true;
if(deck[0].cfg.fft_config.fft_menu_fps != 0) return true;
for (byte zf = 0; zf < NR_FX_BYTES; zf++)
{
if ((deck[0].fx1_cfg.form_menu_fx1[zf][_M_FORM_FX1_RUN] != 0) ) return true;
if ((deck[0].fx1_cfg.form_menu_strobe[zf][_M_FORM_STROBE_RUN] != 0) ) return true;
if ((deck[0].fx1_cfg.form_menu_clock[zf][_M_FORM_CLOCK_RUN] != 0) ) return true;
if ((deck[0].fx1_cfg.form_menu_eyes[zf][_M_FORM_EYES_RUN] != 0) ) return true;
}
return false;
}
// **************************Pallets **************
void LEDS_pal_load(CRGBPalette16* palref, uint8_t pal_no, uint8_t pal_menu)
{
// deck_struct localDEckCopy;
// localDEckCopy = *deckref;
//*deckref = localDEckCopy;
// load a pallete from the default (FastLed)
//debugMe("Load pal" + String(pal_menu));
if (pal_no < NR_PALETTS && pal_menu < NR_PALETTS_SELECT + 1 )
switch (pal_menu)
{
case 0: *palref = deck[0].cfg.LEDS_pal_cur[0]; break;
case 1: *palref = deck[0].cfg.LEDS_pal_cur[1]; break;
case 2: *palref = deck[0].cfg.LEDS_pal_cur[2]; break;
case 3: *palref = deck[0].cfg.LEDS_pal_cur[3]; break;
case 4: *palref = deck[0].cfg.LEDS_pal_cur[4]; break;
case 5: *palref = deck[0].cfg.LEDS_pal_cur[5]; break;
case 6: *palref = deck[0].cfg.LEDS_pal_cur[6]; break;
case 7: *palref = deck[0].cfg.LEDS_pal_cur[7]; break;
/* case 8: *palref = deck[0].cfg.LEDS_pal_cur[8]; break;
case 9: *palref = deck[0].cfg.LEDS_pal_cur[9]; break;
case 10: *palref = deck[0].cfg.LEDS_pal_cur[10]; break;
case 11: *palref = deck[0].cfg.LEDS_pal_cur[11]; break;
case 12: *palref = deck[0].cfg.LEDS_pal_cur[12]; break;
case 13: *palref = deck[0].cfg.LEDS_pal_cur[13]; break;
case 14: *palref = deck[0].cfg.LEDS_pal_cur[14]; break;
case 15: *palref = deck[0].cfg.LEDS_pal_cur[15]; break;
*/
case 19: for (int i = 0; i < 16; i++) { *palref[i] = CHSV(random8(), 255, random8());} break;
case 20: *palref = RainbowColors_p; break;
case 21: *palref = RainbowStripeColors_p; break;
case 22: *palref = CloudColors_p; break;
case 23: *palref = PartyColors_p; break;
case 24: *palref = OceanColors_p; break;
case 25: *palref = ForestColors_p; break;
case 26: *palref = HeatColors_p; break;
case 27: *palref = LavaColors_p; break;
case 28: *palref = pal_red_green; break;
case 29: *palref = pal_red_blue; break;
case 30: *palref = pal_green_blue; break;
case 31: *palref = pal_black_white_Narrow; break;
case 32: *palref = pal_black_white_wide; break;
default: *palref = RainbowColors_p; break;
//*deckref = localDEckCopy;
}
}
void LEDS_pal_load(deck_struct* deckref, uint8_t pal_no, uint8_t pal_menu)
{
// NOK not loading!
deck_struct localDEckCopy;
localDEckCopy = *deckref;
//*deckref = localDEckCopy;
// load a pallete from the default (FastLed)
//debugMe("Load pal" + String(pal_menu));
if (pal_no < NR_PALETTS && pal_menu < NR_PALETTS_SELECT + 1 )
switch (pal_menu)
{
case 0: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = localDEckCopy.cfg.LEDS_pal_cur[0]; break;
case 1: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = localDEckCopy.cfg.LEDS_pal_cur[1]; break;
case 2: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = localDEckCopy.cfg.LEDS_pal_cur[2]; break;
case 3: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = localDEckCopy.cfg.LEDS_pal_cur[3]; break;
case 4: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = localDEckCopy.cfg.LEDS_pal_cur[4]; break;
case 5: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = localDEckCopy.cfg.LEDS_pal_cur[5]; break;
case 6: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = localDEckCopy.cfg.LEDS_pal_cur[6]; break;
case 7: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = localDEckCopy.cfg.LEDS_pal_cur[7]; break;
/* case 8: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = localDEckCopy.cfg.LEDS_pal_cur[8]; break;
case 9: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = localDEckCopy.cfg.LEDS_pal_cur[9]; break;
case 10: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = localDEckCopy.cfg.LEDS_pal_cur[10]; break;
case 11: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = localDEckCopy.cfg.LEDS_pal_cur[11]; break;
case 12: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = localDEckCopy.cfg.LEDS_pal_cur[12]; break;
case 13: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = localDEckCopy.cfg.LEDS_pal_cur[13]; break;
case 14: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = localDEckCopy.cfg.LEDS_pal_cur[14]; break;
case 15: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = localDEckCopy.cfg.LEDS_pal_cur[15]; break;
*/
case 19: for (int i = 0; i < 16; i++) { localDEckCopy.cfg.LEDS_pal_cur[pal_no][i] = CHSV(random8(), 255, random8());} break;
case 20: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = RainbowColors_p; break;
case 21: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = RainbowStripeColors_p; break;
case 22: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = CloudColors_p; break;
case 23: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = PartyColors_p; break;
case 24: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = OceanColors_p; break;
case 25: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = ForestColors_p; break;
case 26: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = HeatColors_p; break;
case 27: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = LavaColors_p; break;
case 28: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = pal_red_green; break;
case 29: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = pal_red_blue; break;
case 30: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = pal_green_blue; break;
case 31: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = pal_black_white_Narrow; break;
case 32: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = pal_black_white_wide; break;
default: localDEckCopy.cfg.LEDS_pal_cur[pal_no] = RainbowColors_p; break;
*deckref = localDEckCopy;
}
}
void LEDS_pal_reset_index()
{ // reset all the pallete indexes
// Should only be stuff in the RUN Struct.
for (int z = 0; z < _M_NR_FORM_BYTES_; z++)
{
for (int i = 0; i < 8; i++) {
deck[0].run.form_fx_pal[i+(z * 8)].index = constrain(deck[0].cfg.form_fx_pal[i+ (z * 8)].index_start,0,255);
deck[0].run.form_fx_pal[i + (z * 8)].indexLong = deck[0].cfg.form_fx_pal[i + (z * 8)].index_start;
deck[0].run.form_fx_modify[i+(z * 8)].RotateFramePos = 0;
deck[0].run.form_fx_fft[i+(z * 8)].extend_tick = 0;
//debugMe(String(i + (z * 8) ) + " -- " + String(deck[0].form_fx_pal[i + (z * 8)].indexLong));
//(deck[0].run.form_fx_pal[i + (z * 8)].indexLong >= 4096) deck[0].run.form_fx_pal[i + (z * 8)].indexLong = deck[0].run.form_fx_pal[i + (z * 8)].indexLong -4096;
}
}
for (int z = 0; z < NR_FX_PARTS; z++)
{
deck[0].run.form_fx_clock[z].pal_index = deck[0].fx1_cfg.form_fx_clock[z].offset;
deck[0].run.form_fx_dots[z].indexLong = 0;
}
//for (int z = 0; z < NR_FX_BYTES; z++)
}
void LEDS_PAL_invert(uint8_t pal = 0)
{
for(int pal_pos = 0; pal_pos < 16; pal_pos++)
{
deck[0].cfg.LEDS_pal_cur[pal][pal_pos].r = qsub8(255, deck[0].cfg.LEDS_pal_cur[pal][pal_pos].r );
deck[0].cfg.LEDS_pal_cur[pal][pal_pos].g = qsub8(255, deck[0].cfg.LEDS_pal_cur[pal][pal_pos].g );
deck[0].cfg.LEDS_pal_cur[pal][pal_pos].b = qsub8(255, deck[0].cfg.LEDS_pal_cur[pal][pal_pos].b );
}
}
void LEDS_pal_write(uint8_t pal, uint8_t no, uint8_t color , uint8_t value)
{
// write incoming color information into a pallete entry
switch (color)
{
case 0:
deck[0].cfg.LEDS_pal_cur[pal][no].r = value;
break;
case 1:
deck[0].cfg.LEDS_pal_cur[pal][no].g = value;
break;
case 2:
deck[0].cfg.LEDS_pal_cur[pal][no].b = value;
break;
}
}
void LEDS_pal_write(CRGBPalette16* palref, uint8_t pal, uint8_t no, uint8_t color , uint8_t value)
{
CRGBPalette16 LocalPalCopy;
LocalPalCopy = *palref;
// write incoming color information into a pallete entry
switch (color)
{
case 0:
LocalPalCopy[no].r = value;
break;
case 1:
LocalPalCopy[no].g = value;
break;
case 2:
LocalPalCopy[no].b = value;
break;
}
*palref = LocalPalCopy;
}
uint8_t LEDS_pal_read(uint8_t pal, uint8_t no, uint8_t color)
{ // read the color info for 1 color in a pallete
if (pal < NR_PALETTS)
{
switch(color)
{
case 0:
return deck[0].cfg.LEDS_pal_cur[pal][no].r;
break;
case 1:
return deck[0].cfg.LEDS_pal_cur[pal][no].g;
break;
case 2:
return deck[0].cfg.LEDS_pal_cur[pal][no].b;
break;
}
return 0;
}
if (pal >=NR_PALETTS && pal <= 32)
{
CRGBPalette16 TempPal;
switch (pal)
{
case 16: TempPal = RainbowColors_p; break;
case 17: TempPal = RainbowStripeColors_p; break;
case 18: TempPal = CloudColors_p; break;
case 19: TempPal = PartyColors_p; break;
case 20: TempPal = OceanColors_p; break;
case 21: TempPal = ForestColors_p; break;
case 22: TempPal = HeatColors_p; break;
case 23: TempPal = LavaColors_p; break;
case 24: TempPal = pal_red_green; break;
case 25: TempPal = pal_red_blue; break;
case 26: TempPal = pal_green_blue; break;
case 27: TempPal = pal_black_white_Narrow; break;
case 28: TempPal = pal_black_white_wide; break;
}
switch(color)
{
case 0:
return TempPal[no].r;
break;
case 1:
return TempPal[no].g;
break;
case 2:
return TempPal[no].b;
break;
}
return 0;
}
return 0;
}
uint8_t LEDS_pal_read(CRGBPalette16* palref, uint8_t pal, uint8_t no, uint8_t color)
{ // read the color info for 1 color in a pallete
CRGBPalette16 LocalPalCopy;
LocalPalCopy = *palref;
if (pal < NR_PALETTS)
{
switch(color)
{
case 0:
return LocalPalCopy[no].r;
break;
case 1:
return LocalPalCopy[no].g;
break;
case 2:
return LocalPalCopy[no].b;
break;
}
return 0;
}
if (pal >=NR_PALETTS && pal <= 32)
{
CRGBPalette16 TempPal;
switch (pal)
{
case 16: TempPal = RainbowColors_p; break;
case 17: TempPal = RainbowStripeColors_p; break;
case 18: TempPal = CloudColors_p; break;
case 19: TempPal = PartyColors_p; break;
case 20: TempPal = OceanColors_p; break;
case 21: TempPal = ForestColors_p; break;
case 22: TempPal = HeatColors_p; break;
case 23: TempPal = LavaColors_p; break;
case 24: TempPal = pal_red_green; break;
case 25: TempPal = pal_red_blue; break;
case 26: TempPal = pal_green_blue; break;
case 27: TempPal = pal_black_white_Narrow; break;
case 28: TempPal = pal_black_white_wide; break;
}
switch(color)
{
case 0:
return TempPal[no].r;
break;
case 1:
return TempPal[no].g;
break;
case 2:
return TempPal[no].b;
break;
}
return 0;
}
return 0;
}
// ****************************** ARTNET
void LEDS_G_artnet_send_universe(uint8_t node_Nr,uint8_t universe, uint16_t in_pixel , uint8_t nr_pixels = 170)
{
// Set the out universe and IP
ARTNET_set_node( node_Nr, artnetNode[node_Nr].startU + universe );
for (uint16_t set_pixel = 0; set_pixel < nr_pixels; set_pixel++)
{
ARNET_set_pixel( set_pixel, scale8(deck[0].run.leds[in_pixel].r ,deck[0].cfg.led_master_cfg.bri ) , scale8(deck[0].run.leds[in_pixel].g,deck[0].cfg.led_master_cfg.bri ) , scale8(deck[0].run.leds[in_pixel].b, deck[0].cfg.led_master_cfg.bri));
//ARNET_set_pixel( set_pixel, 255 , 125 , 10 );
in_pixel++;
}
// Send out the Artnet Frame
ARTNET_send_node(node_Nr);
}
void LEDS_G_artnet_master_out()
{
uint16_t pixel = 0;
uint8_t universeCounter = 0;
for (uint8_t nodeNR = 0; nodeNR < ARTNET_NR_NODES_TPM; nodeNR++ )
{
for (uint8_t setUni = 0; setUni < artnetNode[nodeNR].numU; setUni++ )
{
LEDS_G_artnet_send_universe(nodeNR,setUni, pixel , 170 ) ;
universeCounter++;
pixel = universeCounter * 170;
//pixel = universeCounter * 170;
}
}
}
void LEDS_artnet_in(uint16_t universe, uint16_t length, uint8_t sequence, uint8_t* data)
{ // process the ARTNET information and send it to the leds
//debugMe("in artnet uni:" + String(universe));
//debugMe(String( artnet_cfg.startU));
if ((universe >= artnet_cfg.startU) && (universe < artnet_cfg.startU + artnet_cfg.numU))
{
//FastLED.show();
byte internal_universe = universe - artnet_cfg.startU;
uint8_t max_length = length / 3;
//debugMe(max_length);
// read universe and put into the right part of the display buffer
for (int i = 0; i < max_length ; i++)
{
int led = i + (internal_universe * 170);
//debugMe(led);
if (led < MAX_NUM_LEDS)
{
if (!get_bool(ARTNET_REMAPPING))
{
deck[0].run.leds[led].r = data[i * 3];
deck[0].run.leds[led].g = data[i * 3 + 1];
deck[0].run.leds[led].b = data[i * 3 + 2];
}
else
{
tpm_fx.fadeLedArray(deck[0].run.leds, 0, led_cfg.NrLeds, 255 );
deck[0].run.leds_FFT_history[led].r = data[i * 3];
deck[0].run.leds_FFT_history[led].g = data[i * 3 + 1];
deck[0].run.leds_FFT_history[led].b = data[i * 3 + 2];
}
//debugMe(leds[led].r);
}
}
yield();
//LED_G_bit_run();
}
yield();
if(get_bool(ARTNET_REMAPPING)) {if (universe == artnet_cfg.startU + artnet_cfg.numU-1 ) { LEDS_run_layers(0);LEDS_G_pre_show_processing(); LEDS_G_run_LOAD_SAVE_SHOW_Loop();} }
// Only run show and process on the last universe.
else FastLEDshowESP32(); // if not remapping show as it comes in.
//FastLED.show();
yield();
}
// ********************* FFT Functions
void LEDS_FFT_enqueue(uint8_t invalue)
{ // put the invalue into the FFT buffer
FFT_fifo.enqueue(invalue);
}
void LEDS_FFT_auto()
{ // automatically calculate the trigger value and set it
uint8_t DeckNo = 0;
if (FFT_stage1_sample_count >= deck[DeckNo].cfg.led_master_cfg.pal_fps) // trigger on the FPS so that we get one stage 2 sammple a second
{
fft_bin0stage2.addValue(deck[DeckNo].run.fft_data[0].avarage);
fft_bin1stage2.addValue(deck[DeckNo].run.fft_data[1].avarage);
fft_bin2stage2.addValue(deck[DeckNo].run.fft_data[2].avarage);
fft_bin3stage2.addValue(deck[DeckNo].run.fft_data[3].avarage);
fft_bin4stage2.addValue(deck[DeckNo].run.fft_data[4].avarage);
fft_bin5stage2.addValue(deck[DeckNo].run.fft_data[5].avarage);
fft_bin6stage2.addValue(deck[DeckNo].run.fft_data[6].avarage);
if (bitRead(deck[DeckNo].cfg.fft_config.fft_bin_autoTrigger, 0)) deck[DeckNo].cfg.fft_config.trigger[0] = constrain((fft_bin0stage2.getFastAverage() + fft_bin0stage2.GetMaxInBuffer()) / 2, deck[0].cfg.fft_config.fftAutoMin, deck[0].cfg.fft_config.fftAutoMax);
if (bitRead(deck[DeckNo].cfg.fft_config.fft_bin_autoTrigger, 1)) deck[DeckNo].cfg.fft_config.trigger[1] = constrain((fft_bin1stage2.getFastAverage() + fft_bin1stage2.GetMaxInBuffer()) / 2, deck[0].cfg.fft_config.fftAutoMin, deck[0].cfg.fft_config.fftAutoMax);
if (bitRead(deck[DeckNo].cfg.fft_config.fft_bin_autoTrigger, 2)) deck[DeckNo].cfg.fft_config.trigger[2] = constrain((fft_bin2stage2.getFastAverage() + fft_bin2stage2.GetMaxInBuffer()) / 2, deck[0].cfg.fft_config.fftAutoMin, deck[0].cfg.fft_config.fftAutoMax);
if (bitRead(deck[DeckNo].cfg.fft_config.fft_bin_autoTrigger, 3)) deck[DeckNo].cfg.fft_config.trigger[3] = constrain((fft_bin3stage2.getFastAverage() + fft_bin3stage2.GetMaxInBuffer()) / 2, deck[0].cfg.fft_config.fftAutoMin, deck[0].cfg.fft_config.fftAutoMax);
if (bitRead(deck[DeckNo].cfg.fft_config.fft_bin_autoTrigger, 4)) deck[DeckNo].cfg.fft_config.trigger[4] = constrain((fft_bin4stage2.getFastAverage() + fft_bin4stage2.GetMaxInBuffer()) / 2, deck[0].cfg.fft_config.fftAutoMin, deck[0].cfg.fft_config.fftAutoMax);
if (bitRead(deck[DeckNo].cfg.fft_config.fft_bin_autoTrigger, 5)) deck[DeckNo].cfg.fft_config.trigger[5] = constrain((fft_bin5stage2.getFastAverage() + fft_bin5stage2.GetMaxInBuffer()) / 2, deck[0].cfg.fft_config.fftAutoMin, deck[0].cfg.fft_config.fftAutoMax);
if (bitRead(deck[DeckNo].cfg.fft_config.fft_bin_autoTrigger, 6)) deck[DeckNo].cfg.fft_config.trigger[6] = constrain((fft_bin6stage2.getFastAverage() + fft_bin6stage2.GetMaxInBuffer()) / 2, deck[0].cfg.fft_config.fftAutoMin, deck[0].cfg.fft_config.fftAutoMax);
//fft_data[7].trigger = fft_bin7stage2.getFastAverage();
// debugMe("max bin 0" + String(fft_bin0stage2.GetMaxInBuffer()));
FFT_stage1_sample_count = 0;
}
}
void LEDS_FFT_calc_avarage()
{ // automatically calculate the average fft values
uint8_t deckNo = 0;
fft_bin0.addValue(fft_bin_results[0]);
fft_bin1.addValue(fft_bin_results[1]);
fft_bin2.addValue(fft_bin_results[2]);
fft_bin3.addValue(fft_bin_results[3]);
fft_bin4.addValue(fft_bin_results[4]);
fft_bin5.addValue(fft_bin_results[5]);
fft_bin6.addValue(fft_bin_results[6]);
deck[deckNo].run.fft_data[0].avarage = fft_bin0.getFastAverage();
deck[deckNo].run.fft_data[1].avarage = fft_bin1.getFastAverage();
deck[deckNo].run.fft_data[2].avarage = fft_bin2.getFastAverage();
deck[deckNo].run.fft_data[3].avarage = fft_bin3.getFastAverage();
deck[deckNo].run.fft_data[4].avarage = fft_bin4.getFastAverage();
deck[deckNo].run.fft_data[5].avarage = fft_bin5.getFastAverage();
deck[deckNo].run.fft_data[6].avarage = fft_bin6.getFastAverage();
deck[deckNo].run.fft_data[0].max = fft_bin0.GetMaxInBuffer();
deck[deckNo].run.fft_data[1].max = fft_bin1.GetMaxInBuffer();
deck[deckNo].run.fft_data[2].max = fft_bin2.GetMaxInBuffer();
deck[deckNo].run.fft_data[3].max = fft_bin3.GetMaxInBuffer();
deck[deckNo].run.fft_data[4].max = fft_bin4.GetMaxInBuffer();
deck[deckNo].run.fft_data[5].max = fft_bin5.GetMaxInBuffer();
deck[deckNo].run.fft_data[6].max = fft_bin6.GetMaxInBuffer();
/*
fft_data[0].max = fft_bin0stage2.GetMaxInBuffer();
fft_data[1].max = fft_bin1stage2.GetMaxInBuffer();
fft_data[2].max = fft_bin2stage2.GetMaxInBuffer();
fft_data[3].max = fft_bin3stage2.GetMaxInBuffer();
fft_data[4].max = fft_bin4stage2.GetMaxInBuffer();
fft_data[5].max = fft_bin5stage2.GetMaxInBuffer();
fft_data[6].max = fft_bin6stage2.GetMaxInBuffer();
*/
//if (get_bool(FFT_AUTO))
{
FFT_stage1_sample_count++;
LEDS_FFT_auto();
}
}
void LEDS_MSGEQ7_setup() {
pinMode(MSGEQ7_INPUT_PIN, INPUT);
pinMode(MSGEQ7_STROBE_PIN, OUTPUT);
pinMode(MSGEQ7_RESET_PIN, OUTPUT);
digitalWrite(MSGEQ7_RESET_PIN, LOW);
digitalWrite(MSGEQ7_STROBE_PIN, HIGH);
}
void LEDS_MSGEQ7_get() // get the FFT data and put it in fft_data[i].value
{
//noInterrupts();
digitalWrite(MSGEQ7_STROBE_PIN, LOW);
digitalWrite(MSGEQ7_RESET_PIN, HIGH);
digitalWrite(MSGEQ7_RESET_PIN, LOW);
//delayMicroseconds(36);
for (int i = 0; i<7; i++)
{
digitalWrite(MSGEQ7_STROBE_PIN, HIGH);
digitalWrite(MSGEQ7_STROBE_PIN, LOW);
delayMicroseconds(36);
fft_bin_results[i] = analogRead(MSGEQ7_INPUT_PIN) / ANALOG_IN_DEVIDER; //
//digitalWrite(MSGEQ7_STROBE_PIN, HIGH);
//delayMicroseconds(40);
}
//interrupts();
/*
for (int i = 0; i < 7; i++)
{
debugMe(fft_data[i].value, false);
debugMe(" - ", false);
}
debugMe(" x ", true);
//*/
}
void LEDS_FFT_process()
{ // process the fft data and genereat a color