infinityledclock/vscode/infclock/src/led_clock.cpp

211 lines
6.7 KiB
C++

#include "led_clock.hpp"
void led_clock::init( unsigned test_at_start)
{
init(COLOR_SECS , COLOR_MINS , COLOR_HOURS , COLOR_NUMS, test_at_start);
}
void led_clock::init(hue_color color_secs, hue_color color_mins, hue_color color_hours, hue_color color_nums, unsigned test_at_start)
{
pixels_test = test_at_start;
color[COL_SECOND] = color_secs;
color[COL_MINUTE] = color_mins;
color[COL_HOUR] = color_hours;
color[COL_NUM] = color_nums;
init_test_pixel();
init_ringsecs();
init_ringmins();
init_pointers();
init_numbers();
//Serial.printf("Init pixels - first:%d last:%d number:%d outsidetoinside:%d\n", element_first_pixel, element_last_pixel, element_number_pixels, element_outside2inside);
}
void led_clock::init_ringmins() {
// init all the seconds shown on the ring
Serial.println("Init minutes on outer ring ...");
unsigned int current_first_led = 1;
for(uint8_t num = 0; num < NUM_MINUTES; num++)
{
ringmins[num].init(pixels, current_first_led, NUM_RING_MIN_PIXELS, color[COL_MINUTE]);
ringmins[num].clean();
if(pixels_test & TEST_MINS)
ringmins[num].test(true);
current_first_led += NUM_RING_PIXELS/NUM_MINUTES;
}
}
void led_clock::init_ringsecs() {
// init all the seconds shown on the ring
Serial.println("Init seconds on outer ring ...");
unsigned int current_first_led = 0;
for(uint8_t num = 0; num < NUM_SECONDS; num++)
{
ringsecs[num].init(pixels, current_first_led, NUM_RING_SEC_PIXELS, color[COL_SECOND]);
ringsecs[num].clean();
if(pixels_test & TEST_SECS)
ringsecs[num].test(true);
current_first_led += NUM_RING_SEC_PIXELS;
}
}
void led_clock::init_numbers() {
// init all the numbers
Serial.println("Init numbers ...");
unsigned int current_first_led = NUM_RING_PIXELS + NUM_POINTERS_PIXELS;
for(uint8_t num = 0; num < NUM_NUMBERS; num++)
{
uint8_t real_num = num == 11? 0 : num + 1;
number[real_num].init(pixels, current_first_led, NUM_NUMBER_PIXELS[num],color[COL_NUM]);
number[real_num].clean();
if(pixels_test & TEST_NUMS)
number[real_num].test(true);
current_first_led += NUM_NUMBER_PIXELS[num];
}
}
void led_clock::init_pointers() {
Serial.println("Init pointers ...");
// init all the pointers - each as 6 leds, starts at 12,11,10 ... 1, each even is inversed (goes from outside into center)
unsigned int current_first_led = NUM_RING_PIXELS;
bool is_insideoutside = false;
for(int8_t num = NUM_POINTERS-1; num >= 0; num--)
{
uint8_t real_num = num == 11? 0 : num + 1;
is_insideoutside = num%2==0? false:true;
pointer[real_num].init(pixels, current_first_led, NUM_POINTER_PIXELS ,color[COL_MINUTE],is_insideoutside);
pointer[real_num].clean();
if(pixels_test & TEST_PTRS)
pointer[real_num].test();
current_first_led += NUM_POINTER_PIXELS;
}
}
void led_clock::init_test_pixel()
{
pixels = (CRGB*) malloc(NUM_ALL_PIXELS * sizeof(CRGB) );
FastLED.clearData();
FastLED.addLeds<WS2812B, PIN_PIXELS, RGB>(pixels, NUM_ALL_PIXELS); // GRB ordering is typical
FastLED.clear(true);
Serial.printf("Init LED pixels %d \n",NUM_ALL_PIXELS);
if(pixels_test & TEST_PIXELS)
for(unsigned char col = COL_SECOND; col < COL_LAST; col++)
{
unsigned int pixel = 0;
for(pixel = 0; pixel < NUM_ALL_PIXELS; pixel++)
{
if(pixel > 0)
{
pixels[pixel-1] = CHSV(0,0,0);
}
pixels[pixel] = CHSV(color[col].hue, color[col].sat, color[col].bright);
show();
}
FastLED.clear(true);
}
}
void led_clock::show_minute( uint8_t minute )
{
for(uint8_t minnr = 0; minnr < minute; minnr++)
{
if(minnr % 5 == 0)
{
ringmins[minnr].fill(ringmins[minnr].elements_huecolor.hue, ringmins[minnr].elements_huecolor.sat, ringmins[minnr].elements_huecolor.bright/2);
}
else
{
ringmins[minnr].fill(ringmins[minnr].elements_huecolor.hue, ringmins[minnr].elements_huecolor.sat, ringmins[minnr].elements_huecolor.bright/8);
}
}
ringmins[minute].fill();
}
void led_clock::animate_new_minute( uint8_t minute , uint8_t second, uint8_t hour)
{
uint8_t old_minute = minute==0?NUM_MINUTES-1:minute-1;
FastLED.clearData();
show_minute( old_minute );
show_hour( hour, old_minute);
ringsecs[second].fill();
show();
for(uint8_t minnr = 1; minnr < minute; minnr++)
{
ringmins[minnr].fill();
if(minnr > 1){
if(minnr-1 % 5 != 0)
ringmins[minnr-1].fill(ringmins[minnr-1].elements_huecolor.hue, ringmins[minnr-1].elements_huecolor.sat, ringmins[minnr-1].elements_huecolor.bright/8);
else
ringmins[minnr-1].fill(ringmins[minnr-1].elements_huecolor.hue, ringmins[minnr-1].elements_huecolor.sat, ringmins[minnr-1].elements_huecolor.bright/2);
}
show();
}
}
void led_clock::animate_new_hour( uint8_t minute , uint8_t second, uint8_t hour)
{
uint8_t old_hour = hour==0?11:hour-1;
uint8_t old_minute = NUM_MINUTES-1;
FastLED.clearData();
show_minute( old_minute );
show_hour( old_hour, old_minute);
ringsecs[second].fill();
show();
for(uint8_t minnr = 1; minnr < NUM_MINUTES; minnr++)
{
ringmins[minnr].clean();
show();
}
}
void led_clock::show_hour( uint8_t hour, uint8_t minute)
{
uint8_t next_hour = hour == 11? 0:hour+1;
uint8_t brightness = number[hour].elements_huecolor.bright;
uint8_t basebrightness = brightness/6;
uint8_t minutebrightness = (brightness-basebrightness)/NUM_MINUTES;
uint8_t fractionbrightness = minutebrightness * minute;
uint8_t numbrightness = (uint8_t)(basebrightness + fractionbrightness);
//Serial.printf("Show hour: minute=%d, basebright=%d, mintebright=%d, fractionbright=%d, bright=%d\n", minute, basebrightness, minutebrightness, fractionbrightness, numbrightness );
number[hour].fill(number[hour].elements_huecolor.hue, number[hour].elements_huecolor.sat,brightness-numbrightness);
number[next_hour].fill(number[next_hour].elements_huecolor.hue, number[next_hour].elements_huecolor.sat,numbrightness);
pointer[hour].ffill(NUM_MINUTES-minute, NUM_MINUTES);
pointer[next_hour].ffill(minute, NUM_MINUTES);
}
void led_clock::showtime(uint8_t hour, uint8_t minute, uint8_t second)
{
if(second == 0)
{
if(minute!=0)
{
animate_new_minute( minute , second, hour);
}
else
{
animate_new_hour( minute , second, hour);
}
}
else
{
FastLED.clearData();
show_minute( minute );
ringsecs[second].fill();
show_hour( hour, minute);
show();
}
}