#include "addressable_light.h" #include "esphome/core/log.h" namespace esphome { namespace light { static const char *TAG = "light.addressable"; const ESPColor ESPColor::BLACK = ESPColor(0, 0, 0, 0); const ESPColor ESPColor::WHITE = ESPColor(255, 255, 255, 255); ESPColor ESPHSVColor::to_rgb() const { // based on FastLED's hsv rainbow to rgb const uint8_t hue = this->hue; const uint8_t sat = this->saturation; const uint8_t val = this->value; // upper 3 hue bits are for branch selection, lower 5 are for values const uint8_t offset8 = (hue & 0x1F) << 3; // 0..248 // third of the offset, 255/3 = 85 (actually only up to 82; 164) const uint8_t third = esp_scale8(offset8, 85); const uint8_t two_thirds = esp_scale8(offset8, 170); ESPColor rgb(255, 255, 255, 0); switch (hue >> 5) { case 0b000: rgb.r = 255 - third; rgb.g = third; rgb.b = 0; break; case 0b001: rgb.r = 171; rgb.g = 85 + third; rgb.b = 0; break; case 0b010: rgb.r = 171 - two_thirds; rgb.g = 170 + third; rgb.b = 0; break; case 0b011: rgb.r = 0; rgb.g = 255 - third; rgb.b = third; break; case 0b100: rgb.r = 0; rgb.g = 171 - two_thirds; rgb.b = 85 + two_thirds; break; case 0b101: rgb.r = third; rgb.g = 0; rgb.b = 255 - third; break; case 0b110: rgb.r = 85 + third; rgb.g = 0; rgb.b = 171 - third; break; case 0b111: rgb.r = 170 + third; rgb.g = 0; rgb.b = 85 - third; break; default: break; } // low saturation -> add uniform color to orig. hue // high saturation -> use hue directly // scales with square of saturation // (r,g,b) = (r,g,b) * sat + (1 - sat)^2 rgb *= sat; const uint8_t desat = 255 - sat; rgb += esp_scale8(desat, desat); // (r,g,b) = (r,g,b) * val rgb *= val; return rgb; } void ESPRangeView::set(const ESPColor &color) { for (int32_t i = this->begin_; i < this->end_; i++) { (*this->parent_)[i] = color; } } ESPColorView ESPRangeView::operator[](int32_t index) const { index = interpret_index(index, this->size()); return (*this->parent_)[index]; } ESPRangeIterator ESPRangeView::begin() { return {*this, this->begin_}; } ESPRangeIterator ESPRangeView::end() { return {*this, this->end_}; } void ESPRangeView::set_red(uint8_t red) { for (auto c : *this) c.set_red(red); } void ESPRangeView::set_green(uint8_t green) { for (auto c : *this) c.set_green(green); } void ESPRangeView::set_blue(uint8_t blue) { for (auto c : *this) c.set_blue(blue); } void ESPRangeView::set_white(uint8_t white) { for (auto c : *this) c.set_white(white); } void ESPRangeView::set_effect_data(uint8_t effect_data) { for (auto c : *this) c.set_effect_data(effect_data); } void ESPRangeView::fade_to_white(uint8_t amnt) { for (auto c : *this) c.fade_to_white(amnt); } void ESPRangeView::fade_to_black(uint8_t amnt) { for (auto c : *this) c.fade_to_white(amnt); } void ESPRangeView::lighten(uint8_t delta) { for (auto c : *this) c.lighten(delta); } void ESPRangeView::darken(uint8_t delta) { for (auto c : *this) c.darken(delta); } ESPColorView ESPRangeIterator::operator*() const { return this->range_.parent_->get(this->i_); } int32_t HOT interpret_index(int32_t index, int32_t size) { if (index < 0) return size + index; return index; } void AddressableLight::call_setup() { this->setup_internal_(); this->setup(); #ifdef ESPHOME_LOG_HAS_VERY_VERBOSE this->set_interval(5000, [this]() { const char *name = this->state_parent_ == nullptr ? "" : this->state_parent_->get_name().c_str(); ESP_LOGVV(TAG, "Addressable Light '%s' (effect_active=%s next_show=%s)", name, YESNO(this->effect_active_), YESNO(this->next_show_)); for (int i = 0; i < this->size(); i++) { auto color = this->get(i); ESP_LOGVV(TAG, " [%2d] Color: R=%3u G=%3u B=%3u W=%3u", i, color.get_red_raw(), color.get_green_raw(), color.get_blue_raw(), color.get_white_raw()); } ESP_LOGVV(TAG, ""); }); #endif } } // namespace light } // namespace esphome