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4 Commits

Author SHA1 Message Date
ThePendulum
b9a6fecae7 Bumping keep alive when any button is pressed. 2026-05-01 22:55:33 +02:00
ThePendulum
dd1a90f437 Added KITT mode. 2026-05-01 06:57:29 +02:00
ThePendulum
65ef0734f6 Using separate animation frame for rainbow to prevent reset during indicators. 2026-05-01 06:01:58 +02:00
ThePendulum
abea37e15e Added brake light animation on pedal release. 2026-05-01 05:39:36 +02:00

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@@ -1,8 +1,8 @@
#include <Button.h> #include <Button.h>
#include <Adafruit_NeoPixel.h> #include <Adafruit_NeoPixel.h>
constexpr bool KEEPALIVE_ENABLE = false; constexpr bool KEEPALIVE_ENABLE = true;
constexpr int KEEPALIVE_TIMEOUT = 5000; // ms constexpr int KEEPALIVE_TIMEOUT = 30000; // ms
constexpr int LEDS_TAIL_PIN = PA6; constexpr int LEDS_TAIL_PIN = PA6;
constexpr int LEDS_TAIL_LENGTH = 10; constexpr int LEDS_TAIL_LENGTH = 10;
@@ -74,11 +74,12 @@ enum Mode {
MODE_HAZARD, MODE_HAZARD,
MODE_POLICE, MODE_POLICE,
MODE_RAINBOW, MODE_RAINBOW,
MODE_KITT,
MODE_COUNT, MODE_COUNT,
}; };
// Mode activeMode = MODE_HEAD; Mode activeMode = MODE_HEAD;
Mode activeMode = MODE_RAINBOW; // Mode activeMode = MODE_KITT;
uint32_t colorHSV(float hue, float sat = 1.0, float val = 1.0) { uint32_t colorHSV(float hue, float sat = 1.0, float val = 1.0) {
return Adafruit_NeoPixel::ColorHSV( return Adafruit_NeoPixel::ColorHSV(
@@ -92,15 +93,22 @@ const uint32_t COLOR_OFF = ledsTail.Color(0, 0, 0, 0);
const uint32_t COLOR_WHITE = ledsTail.Color(0, 0, 0, 255); const uint32_t COLOR_WHITE = ledsTail.Color(0, 0, 0, 255);
const uint32_t COLOR_WHITE_FULL = ledsTail.Color(255, 255, 255, 255); const uint32_t COLOR_WHITE_FULL = ledsTail.Color(255, 255, 255, 255);
const uint32_t COLOR_WHITE_DIM = ledsTail.Color(0, 0, 0, 100); const uint32_t COLOR_WHITE_DIM = ledsTail.Color(0, 0, 0, 100);
const uint32_t COLOR_RED_DIM = ledsTail.Color(150, 0, 0, 0);
const uint32_t COLOR_RED = ledsTail.Color(255, 0, 0, 0); const uint32_t COLOR_RED = ledsTail.Color(255, 0, 0, 0);
const uint32_t COLOR_AMBER = colorHSV(10); // easier value fade const uint32_t COLOR_AMBER = colorHSV(10); // easier value fade
const uint32_t COLOR_POLICE_BLUE = ledsTail.Color(0, 0, 255, 0); const uint32_t COLOR_POLICE_BLUE = ledsTail.Color(0, 0, 255, 0);
const uint32_t COLOR_POLICE_RED = ledsTail.Color(255, 0, 0, 0); const uint32_t COLOR_POLICE_RED = ledsTail.Color(255, 0, 0, 0);
const uint32_t COLOR_GREEN = ledsTail.Color(0, 255, 0, 0);
unsigned long animationFrame = 0; unsigned long animationFrame = 0;
unsigned long stableAnimationFrame = 0;
unsigned long lastFrame = 0; unsigned long lastFrame = 0;
unsigned long lastPedalPress = millis(); unsigned long lastPedalPress = millis();
unsigned long lastPedalRelease = 0;
unsigned long lastButtonPress = 0;
bool isReversing = false; bool isReversing = false;
unsigned long indicatorLeftStart = 0; unsigned long indicatorLeftStart = 0;
@@ -161,27 +169,39 @@ void animateHeadlights() {
} }
void animateTailLight() { void animateTailLight() {
ledsTail.fill(COLOR_RED); ledsTail.fill(COLOR_OFF, 0, LEDS_TAIL_LENGTH);
ledsTail.fill(COLOR_RED, LEDS_TAIL_SIDE_LENGTH, LEDS_TAIL_LENGTH - LEDS_TAIL_SIDE_LENGTH * 2);
} }
void animateRightTailSide(uint32_t color) { void animateRightTailSide(uint32_t color, bool withMargin = true) {
ledsTail.fill(color, 0, LEDS_TAIL_SIDE_LENGTH); ledsTail.fill(color, 0, LEDS_TAIL_SIDE_LENGTH);
if (withMargin) {
ledsTail.fill(COLOR_OFF, LEDS_TAIL_SIDE_LENGTH, LEDS_TAIL_SIDE_MARGIN); ledsTail.fill(COLOR_OFF, LEDS_TAIL_SIDE_LENGTH, LEDS_TAIL_SIDE_MARGIN);
}
} }
void animateLeftTailSide(uint32_t color) { void animateLeftTailSide(uint32_t color, bool withMargin = true) {
ledsTail.fill(color, LEDS_TAIL_LENGTH - LEDS_TAIL_SIDE_LENGTH, LEDS_TAIL_SIDE_LENGTH); ledsTail.fill(color, LEDS_TAIL_LENGTH - LEDS_TAIL_SIDE_LENGTH, LEDS_TAIL_SIDE_LENGTH);
if (withMargin) {
ledsTail.fill(COLOR_OFF, LEDS_TAIL_LENGTH - LEDS_TAIL_SIDE_LENGTH - LEDS_TAIL_SIDE_MARGIN, LEDS_TAIL_SIDE_MARGIN); ledsTail.fill(COLOR_OFF, LEDS_TAIL_LENGTH - LEDS_TAIL_SIDE_LENGTH - LEDS_TAIL_SIDE_MARGIN, LEDS_TAIL_SIDE_MARGIN);
}
} }
void animateDash() { void animateDash() {
ledsDash.clear(); ledsDash.fill(COLOR_GREEN);
} }
void animateReverse() { void animateReverse() {
ledsTail.fill(COLOR_WHITE); ledsTail.fill(COLOR_WHITE);
} }
void animateBrake() {
animateLeftTailSide(COLOR_RED, false);
animateRightTailSide(COLOR_RED, false);
}
constexpr int INDICATOR_DURATION = 3200; // total ms constexpr int INDICATOR_DURATION = 3200; // total ms
constexpr int INDICATOR_HOLD_FRAMES = 15; constexpr int INDICATOR_HOLD_FRAMES = 15;
constexpr int INDICATOR_OFF_FRAMES = 20; constexpr int INDICATOR_OFF_FRAMES = 20;
@@ -220,11 +240,7 @@ void animateIndicator(Direction direction) {
} }
} }
const int* tailRange = direction == LEFT void (*animateTailSide)(uint32_t, bool) = direction == LEFT
? LEDS_TAIL_LEFT_RANGE
: LEDS_TAIL_RIGHT_RANGE;
void (*animateTailSide)(uint32_t) = direction == LEFT
? animateLeftTailSide ? animateLeftTailSide
: animateRightTailSide; : animateRightTailSide;
@@ -235,13 +251,13 @@ void animateIndicator(Direction direction) {
if (indicatorFrame < sweepEnd) { if (indicatorFrame < sweepEnd) {
const int colorAmberFaded = colorHSV(10, 1, (float)indicatorFrame / sweepEnd); const int colorAmberFaded = colorHSV(10, 1, (float)indicatorFrame / sweepEnd);
animateTailSide(colorAmberFaded); animateTailSide(colorAmberFaded, true);
ledsDash.setPixelColor(dashIndex, colorAmberFaded); ledsDash.setPixelColor(dashIndex, colorAmberFaded);
} else if (indicatorFrame < holdEnd) { } else if (indicatorFrame < holdEnd) {
animateTailSide(COLOR_AMBER); animateTailSide(COLOR_AMBER, true);
ledsDash.setPixelColor(dashIndex, COLOR_AMBER); ledsDash.setPixelColor(dashIndex, COLOR_AMBER);
} else { } else {
animateTailSide(COLOR_OFF); animateTailSide(COLOR_OFF, true);
ledsDash.setPixelColor(dashIndex, COLOR_OFF); ledsDash.setPixelColor(dashIndex, COLOR_OFF);
} }
} }
@@ -308,32 +324,126 @@ void animatePolice() {
} }
constexpr float RAINBOW_SPEED = 2.0; constexpr float RAINBOW_SPEED = 2.0;
constexpr float RAINBOW_DENSITY = 5.0; constexpr float RAINBOW_DENSITY = 10.0;
void animateRainbow() { void animateRainbow() {
for (int ledIndex = 0; ledIndex < LEDS_HEAD_LENGTH; ledIndex++) { // EDGES, flowing color
const uint32_t pixelColor = colorHSV((animationFrame * RAINBOW_SPEED) + (ledIndex * RAINBOW_DENSITY)); for (int ledIndex = LEDS_TOP_LENGTH - 1; ledIndex >= 0; ledIndex--) {
const uint32_t pixelColor = colorHSV((stableAnimationFrame * RAINBOW_SPEED) + (ledIndex * RAINBOW_DENSITY));
ledsHeadLeft.setPixelColor(ledIndex, pixelColor); ledsHeadLeft.setPixelColor(ledIndex, pixelColor);
ledsHeadLeft.setPixelColor(LEDS_EDGE_LENGTH - ledIndex, pixelColor);
ledsHeadRight.setPixelColor(ledIndex, pixelColor); ledsHeadRight.setPixelColor(ledIndex, pixelColor);
ledsHeadRight.setPixelColor(LEDS_EDGE_LENGTH - ledIndex, pixelColor);
} }
/* // RINGS, single color
ledsHeadLeft.fill(colorHSV(stableAnimationFrame * RAINBOW_SPEED), LEDS_EDGE_LENGTH, LEDS_RING_LENGTH);
ledsHeadRight.fill(colorHSV(stableAnimationFrame * RAINBOW_SPEED), LEDS_EDGE_LENGTH, LEDS_RING_LENGTH);
for (int ledIndex = 0; ledIndex < LEDS_TAIL_LENGTH; ledIndex++) { for (int ledIndex = 0; ledIndex < LEDS_TAIL_LENGTH; ledIndex++) {
const uint32_t pixelColor = ledsHeadLeft.ColorHSV((animationFrame * 1000 * RAINBOW_SPEED) + (ledIndex * 1000 * RAINBOW_DENSITY * 5), 255, 255); const int distFromCenter = abs(ledIndex * 2 - (LEDS_TAIL_LENGTH - 1));
const uint32_t pixelColor = colorHSV((stableAnimationFrame * RAINBOW_SPEED) - (distFromCenter * RAINBOW_DENSITY * 2));
if (ledIndex <= 5) {
ledsTail.setPixelColor(ledIndex, pixelColor); ledsTail.setPixelColor(ledIndex, pixelColor);
}
ledsDash.setPixelColor(1, colorHSV(stableAnimationFrame * RAINBOW_SPEED));
ledsDash.setPixelColor(0, colorHSV(stableAnimationFrame * RAINBOW_SPEED + 90));
}
constexpr float KITT_SPEED = 0.5;
constexpr int KITT_TRAIL = 4;
constexpr float KITT_TAIL_SPEED = 3.0f;
int kittScanPos(int vPos) {
if (vPos < LEDS_RING_LENGTH) {
// first ring — reversed so it flows naturally into the edge
return LEDS_EDGE_LENGTH + (LEDS_RING_LENGTH - 1 - vPos);
} else if (vPos < LEDS_RING_LENGTH + LEDS_EDGE_LENGTH) {
// edge forward
return vPos - LEDS_RING_LENGTH;
} else if (vPos < 2 * LEDS_RING_LENGTH + LEDS_EDGE_LENGTH) {
// second ring
return LEDS_EDGE_LENGTH + (vPos - LEDS_RING_LENGTH - LEDS_EDGE_LENGTH);
} else { } else {
ledsTail.setPixelColor(LEDS_TAIL_LENGTH - ledIndex, pixelColor); // edge backward
return LEDS_EDGE_LENGTH - 1 - (vPos - 2 * LEDS_RING_LENGTH - LEDS_EDGE_LENGTH);
} }
}
void animateKitt() {
const long kittFrame = lround(stableAnimationFrame * KITT_SPEED);
const int cycleLength = 2 * LEDS_EDGE_LENGTH + 2 * LEDS_RING_LENGTH;
const int vPos = kittFrame % cycleLength;
ledsHeadLeft.fill(COLOR_OFF);
ledsHeadRight.fill(COLOR_OFF);
// trail behind
for (int t = 0; t < KITT_TRAIL; t++) {
const int pastVPos = ((vPos - t) % cycleLength + cycleLength) % cycleLength;
const int scanPos = kittScanPos(pastVPos);
const uint32_t color = colorHSV(0, 1, 1.0f - (float)t / KITT_TRAIL);
ledsHeadLeft.setPixelColor(scanPos, color);
ledsHeadRight.setPixelColor(scanPos, color);
} }
*/
ledsTail.fill(colorHSV(animationFrame * RAINBOW_SPEED)); // lead ahead — shorter and dimmer than trail
constexpr int KITT_LEAD = 2;
for (int t = 1; t <= KITT_LEAD; t++) {
const int futureVPos = ((vPos + t) % cycleLength + cycleLength) % cycleLength;
const int scanPos = kittScanPos(futureVPos);
ledsDash.setPixelColor(1, colorHSV(animationFrame * RAINBOW_SPEED)); const uint32_t color = colorHSV(0, 1, 0.3f * (1.0f - (float)t / KITT_LEAD));
ledsDash.setPixelColor(0, colorHSV(animationFrame * RAINBOW_SPEED + 90)); ledsHeadLeft.setPixelColor(scanPos, color);
ledsHeadRight.setPixelColor(scanPos, color);
}
const int scanPos = kittScanPos(vPos);
// normalized cycle (01), sped up
float tailCycle = (float)vPos * KITT_TAIL_SPEED / cycleLength;
tailCycle -= (int)tailCycle; // wrap to 01
// triangle wave: 0 → 1 → 0 (KITT bounce)
float tailT = tailCycle * 2.0f;
if (tailT > 1.0f) tailT = 2.0f - tailT;
// optional smoothing (gives that analog feel)
tailT = tailT * tailT * (3.0f - 2.0f * tailT); // smoothstep
// map to LED index
const int tailPos = lround(tailT * (LEDS_TAIL_LENGTH - 1));
// draw tail with falloff
for (int i = 0; i < LEDS_TAIL_LENGTH; i++) {
const int dist = abs(i - tailPos);
float brightness = 0.0f;
if (dist < KITT_TRAIL) {
brightness = 1.0f - (float)dist / KITT_TRAIL;
}
ledsTail.setPixelColor(i, colorHSV(0, 1, brightness));
}
ledsDash.fill(COLOR_OFF);
float speed = 3.0;
float dashCycle = (float)vPos * speed / cycleLength;
dashCycle -= (int)dashCycle; // keep it in 01
// triangle wave: 0→1→0 over the cycle
float t = dashCycle * 2.0;
if (t > 1.0) t = 2.0 - t;
ledsDash.setPixelColor(0, colorHSV(0, 1, t));
ledsDash.setPixelColor(1, colorHSV(0, 1, 1.0 - t));
} }
void animate(long now) { void animate(long now) {
@@ -355,6 +465,14 @@ void animate(long now) {
animateIndicator(RIGHT); animateIndicator(RIGHT);
} }
if (activeMode == MODE_KITT) {
animateKitt();
}
if (now - lastPedalRelease < 1500) {
animateBrake();
}
if (activeMode == MODE_RAINBOW) { if (activeMode == MODE_RAINBOW) {
animateRainbow(); animateRainbow();
} }
@@ -397,6 +515,7 @@ void shutdown() {
void restart() { void restart() {
lastFrame = millis(); lastFrame = millis();
animationFrame = 0; animationFrame = 0;
stableAnimationFrame = 0;
isOff = false; isOff = false;
digitalWrite(PIN_BUCK, BUCK_ON); digitalWrite(PIN_BUCK, BUCK_ON);
@@ -416,6 +535,8 @@ void loop() {
activeMode = (Mode)((activeMode + 1) % MODE_COUNT); activeMode = (Mode)((activeMode + 1) % MODE_COUNT);
animationFrame = 0; // ensures animations start cleanly instead of halfway animationFrame = 0; // ensures animations start cleanly instead of halfway
lastButtonPress = now;
Serial.print("BUTTON MODE "); Serial.print("BUTTON MODE ");
Serial.println(activeMode); Serial.println(activeMode);
} }
@@ -437,6 +558,8 @@ void loop() {
indicatorRightActive = false; indicatorRightActive = false;
indicatorRightStart = 0; indicatorRightStart = 0;
lastButtonPress = now;
Serial.println("BUTTON LEFT"); Serial.println("BUTTON LEFT");
} }
@@ -449,6 +572,8 @@ void loop() {
indicatorLeftActive = false; indicatorLeftActive = false;
indicatorLeftStart = 0; indicatorLeftStart = 0;
lastButtonPress = now;
Serial.println("BUTTON RIGHT"); Serial.println("BUTTON RIGHT");
} }
@@ -473,17 +598,22 @@ void loop() {
} }
Serial.println("PEDAL FORWARD"); Serial.println("PEDAL FORWARD");
}`3
if (pedal.released()) {
lastPedalRelease = now;
} }
if (!isOff && now - lastFrame >= ANIMATION_INTERVAL) { if (!isOff && now - lastFrame >= ANIMATION_INTERVAL) {
lastFrame += ANIMATION_INTERVAL; lastFrame += ANIMATION_INTERVAL;
animationFrame += 1; animationFrame += 1;
stableAnimationFrame += 1;
animate(now); animate(now);
render(); render();
} }
if (KEEPALIVE_ENABLE && now - lastPedalPress > KEEPALIVE_TIMEOUT) { if (KEEPALIVE_ENABLE && now - lastPedalPress > KEEPALIVE_TIMEOUT && now - lastButtonPress > KEEPALIVE_TIMEOUT) {
shutdown(); shutdown();
} }
} }