mirror of
https://github.com/UpsilonNumworks/Upsilon.git
synced 2026-03-18 21:30:38 +01:00
[ion] Change LED API
This commit is contained in:
@@ -58,10 +58,9 @@ ExamPopUpController::ContentView::ContentView(Responder * parentResponder) :
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AppsContainer * container = (AppsContainer *)controller->app()->container();
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if (controller->isActivatingExamMode()) {
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container->reset();
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Ion::LED::setBlinking(0.5, true, false, false);
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Ion::LED::setLockState(true);
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Ion::LED::setColor(KDColorRed);
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Ion::LED::setBlinking(1.0f, 0.1f);
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} else {
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Ion::LED::setLockState(false);
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Ion::LED::setColor(KDColorBlack);
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}
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container->refreshPreferences();
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@@ -6,16 +6,9 @@
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namespace Ion {
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namespace LED {
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KDColor getColor();
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void setColor(KDColor c);
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void setBlinking(float blinkLength, bool red, bool green, bool blue);
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void setCharging(bool isPluggedIn, bool isCharging);
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/*
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* This is just a flag to see if we should mess with the LEDs on our own.
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* Especially useful for keeping the LED blinking while in exam mode.
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*/
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bool getLockState();
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void setLockState(bool state);
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void setBlinking(float period, float dutyCycle);
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}
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}
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@@ -169,7 +169,7 @@ void initPeripherals() {
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SWD::Device::init();
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}
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void shutdownPeripherals() {
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void shutdownPeripherals(bool keepLEDAwake) {
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SWD::Device::shutdown();
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Console::Device::shutdown();
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#if USE_SD_CARD
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@@ -177,7 +177,9 @@ void shutdownPeripherals() {
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#endif
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USB::Device::shutdown();
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Battery::Device::shutdown();
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LED::Device::shutdown();
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if (!keepLEDAwake) {
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LED::Device::shutdown();
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}
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Keyboard::Device::shutdown();
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Backlight::Device::shutdown();
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Display::Device::shutdown();
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@@ -279,16 +281,33 @@ void initClocks() {
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RCC.APB2ENR()->set(apb2enr);
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}
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void shutdownClocks() {
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void shutdownClocks(bool keepLEDAwake) {
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// APB2 bus
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RCC.APB2ENR()->set(0x00008000); // Reset value
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// APB1
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RCC.APB1ENR()->set(0x00000402);
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RCC.APB1LPENR()->setTIM3LPEN(true); // Keep the LED going
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if (keepLEDAwake) {
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/* TODO: enter sleep mode even if the LED is used and enable LED in low
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* power mode. */
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// Keep the LED going: peripheral clock enable in low power mode register
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/*RCC.APB1LPENR()->setTIM3LPEN(true);
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RCC.AHB1LPENR()->setGPIOBLPEN(true);
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RCC.AHB1LPENR()->setGPIOCLPEN(true);*/
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// AHB1 bus
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RCC.AHB1ENR()->set(0); // Reset value
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// APB1
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class RCC::APB1ENR apb1enr(0x00000400);
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apb1enr.setTIM3EN(true);
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RCC.APB1ENR()->set(apb1enr);
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// AHB1 bus
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class RCC::AHB1ENR ahb1enr(0); // Reset value
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ahb1enr.setGPIOBEN(true);
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ahb1enr.setGPIOCEN(true);
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RCC.AHB1ENR()->set(ahb1enr);
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} else {
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// APB1
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RCC.APB1ENR()->set(0x00000400);
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// AHB1 bus
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RCC.AHB1ENR()->set(0); // Reset value
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}
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RCC.AHB3ENR()->setFSMCEN(false);
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}
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@@ -14,9 +14,9 @@ void coreReset();
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void jumpReset();
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void initPeripherals();
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void shutdownPeripherals();
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void shutdownPeripherals(bool keepLEDAwake = false);
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void initClocks();
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void shutdownClocks();
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void shutdownClocks(bool keepLEDAwake = false);
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/* The serial number is 96 bits long. That's equal to 16 digits in base 64. We
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* expose a convenient "copySerialNumber" routine which can be called without
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@@ -6,35 +6,32 @@
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// Public Ion::LED methods
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void Ion::LED::setColor(KDColor c) {
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if (getLockState()) {
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return;
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}
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static KDColor sLedColor = KDColorBlack;
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initTimer(Ion::LED::Device::Mode::PWM);
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KDColor Ion::LED::getColor() {
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return sLedColor;
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}
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void Ion::LED::setColor(KDColor c) {
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sLedColor = c;
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Ion::LED::Device::setColorStatus(Ion::LED::Device::Color::RED, true);
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Ion::LED::Device::setColorStatus(Ion::LED::Device::Color::GREEN, true);
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Ion::LED::Device::setColorStatus(Ion::LED::Device::Color::BLUE, true);
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TIM3.CCR2()->set(Device::dutyCycleForUInt8(c.red()));
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TIM3.CCR3()->set(Device::dutyCycleForUInt8(c.blue()));
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TIM3.CCR4()->set(Device::dutyCycleForUInt8(c.green()));
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constexpr float maxColorValue = (float)((1 << 8) -1);
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Device::setPeriodAndDutyCycles(Device::Mode::PWM, c.red()/maxColorValue, c.green()/maxColorValue, c.blue()/maxColorValue);
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}
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void Ion::LED::setBlinking(float blinkPeriod, bool red, bool green, bool blue) {
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if (getLockState()) {
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return;
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}
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void Ion::LED::setBlinking(float period, float dutyCycle) {
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Ion::LED::Device::setColorStatus(Ion::LED::Device::Color::RED, sLedColor.red() > 0);
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Ion::LED::Device::setColorStatus(Ion::LED::Device::Color::GREEN, sLedColor.green() > 0);
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Ion::LED::Device::setColorStatus(Ion::LED::Device::Color::BLUE, sLedColor.blue() > 0);
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initTimer(Ion::LED::Device::Mode::BLINK, blinkPeriod);
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Ion::LED::Device::setColorStatus(Ion::LED::Device::Color::RED, red);
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Ion::LED::Device::setColorStatus(Ion::LED::Device::Color::GREEN, green);
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Ion::LED::Device::setColorStatus(Ion::LED::Device::Color::BLUE, blue);
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Device::setPeriodAndDutyCycles(Device::Mode::BLINK, dutyCycle, dutyCycle, dutyCycle, period);
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}
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void Ion::LED::setCharging(bool isPluggedIn, bool isCharging) {
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/*void Ion::LED::setCharging(bool isPluggedIn, bool isCharging) {
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if (!isPluggedIn) {
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Ion::LED::setColor(KDColorBlack);
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}
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@@ -46,17 +43,7 @@ void Ion::LED::setCharging(bool isPluggedIn, bool isCharging) {
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Ion::LED::setColor(KDColorGreen);
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}
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}
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}
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static bool lockState = false;
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bool Ion::LED::getLockState() {
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return lockState;
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}
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void Ion::LED::setLockState(bool state) {
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lockState = state;
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}
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}*/
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// Private Ion::Device::LED methods
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@@ -66,9 +53,12 @@ namespace Device {
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void init() {
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initGPIO();
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initTimer();
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}
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void shutdown() {
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shutdownTimer();
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shutdownGPIO();
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}
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void initGPIO() {
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@@ -88,68 +78,7 @@ void shutdownGPIO() {
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}
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}
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void initTimer(Mode mode, float blinkPeriod) {
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constexpr int TIM3_FREQ = 4*1000;
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/* Pulse width modulation mode allows you to generate a signal with a
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* frequency determined by the value of the TIMx_ARR register and a duty cycle
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* determined by the value of the TIMx_CCRx register. */
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switch (mode) {
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case Ion::LED::Device::Mode::PWM:
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/* Let's set the prescaler to 1. Increasing the prescaler would slow down the
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* modulation, which can be useful when debugging. */
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TIM3.PSC()->set(1);
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TIM3.ARR()->set(PWMPeriod);
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TIM3.CCR2()->set(0);
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TIM3.CCR3()->set(0);
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TIM3.CCR4()->set(0);
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break;
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case Ion::LED::Device::Mode::BLINK:
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/* We still want to do PWM, but at a rate slow enough to blink. */
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TIM3.PSC()->set(Ion::Device::SYSBUS_FREQ / TIM3_FREQ);
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TIM3.ARR()->set(blinkPeriod * TIM3_FREQ);
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TIM3.CCR2()->set(blinkPeriod * TIM3_FREQ / 2);
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TIM3.CCR3()->set(blinkPeriod * TIM3_FREQ / 2);
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TIM3.CCR4()->set(blinkPeriod * TIM3_FREQ / 2);
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break;
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}
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// Set Channels 2-4 as outputs, PWM mode 1
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TIM3.CCMR()->setOC2M(TIM<Register16>::CCMR::OCM::PWM1);
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TIM3.CCMR()->setOC3M(TIM<Register16>::CCMR::OCM::PWM1);
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TIM3.CCMR()->setOC4M(TIM<Register16>::CCMR::OCM::PWM1);
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// Output preload enable for channels 2-4
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TIM3.CCMR()->setOC2PE(true);
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TIM3.CCMR()->setOC3PE(true);
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TIM3.CCMR()->setOC4PE(true);
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// Auto-reload preload enable
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TIM3.CR1()->setARPE(true);
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// Enable Capture/Compare for channel 2 to 4
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TIM3.CCER()->setCC2E(true);
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TIM3.CCER()->setCC3E(true);
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TIM3.CCER()->setCC4E(true);
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TIM3.BDTR()->setMOE(true);
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TIM3.CR1()->setCEN(true);
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}
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void initTimerColor() {
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/* Let's set the prescaler to 1. Increasing the prescaler would slow down the
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* modulation, which can be useful when debugging. */
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TIM3.PSC()->set(1);
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/* Pulse width modulation mode allows you to generate a signal with a
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* frequency determined by the value of the TIMx_ARR register and a duty cycle
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* determined by the value of the TIMx_CCRx register. */
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TIM3.ARR()->set(PWMPeriod);
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TIM3.CCR2()->set(0);
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TIM3.CCR3()->set(0);
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TIM3.CCR4()->set(0);
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void initTimer() {
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// Output preload enable for channels 2-4
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TIM3.CCMR()->setOC2PE(true);
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TIM3.CCMR()->setOC3PE(true);
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@@ -174,6 +103,33 @@ void shutdownTimer() {
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setColorStatus(Ion::LED::Device::Color::BLUE, false);
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}
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/* Pulse width modulation mode allows you to generate a signal with a
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* frequency determined by the value of the TIMx_ARR register and a duty cycle
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* determined by the value of the TIMx_CCRx register. */
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void setPeriodAndDutyCycles(Mode mode, float dutyCycleRed, float dutyCycleGreen, float dutyCycleBlue, float period) {
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constexpr int TIM3_FREQ = 4*1000;
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switch (mode) {
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case Mode::PWM:
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/* Let's set the prescaler to 1. Increasing the prescaler would slow down the
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* modulation, which can be useful when debugging. */
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TIM3.PSC()->set(1);
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TIM3.ARR()->set(PWMPeriod);
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period = PWMPeriod;
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break;
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case Mode::BLINK:
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/* We still want to do PWM, but at a rate slow enough to blink. */
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TIM3.PSC()->set(Ion::Device::SYSBUS_FREQ / TIM3_FREQ);
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TIM3.ARR()->set(period * TIM3_FREQ);
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period *= TIM3_FREQ; // as we pre-scaled, we update the period
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break;
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}
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TIM3.CCR2()->set(dutyCycleRed*period);
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TIM3.CCR3()->set(dutyCycleBlue*period);
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TIM3.CCR4()->set(dutyCycleGreen*period);
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}
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void setColorStatus(Color color, bool enable) {
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switch (color) {
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case Ion::LED::Device::Color::RED:
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@@ -188,7 +144,7 @@ void setColorStatus(Color color, bool enable) {
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}
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}
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void enforceState(bool red, bool green, bool blue) {
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/*void enforceState(bool red, bool green, bool blue) {
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bool states[3] = {red, green, blue};
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for (int i=0; i<3; i++) {
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GPIOPin p = RGBPins[i];
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@@ -200,7 +156,7 @@ void enforceState(bool red, bool green, bool blue) {
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p.group().PUPDR()->setPull(p.pin(), GPIO::PUPDR::Pull::None);
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}
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}
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}
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}*/
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}
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}
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@@ -17,23 +17,24 @@ namespace Device {
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enum Mode {
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PWM,
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BLINK
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} ;
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};
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enum Color {
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RED,
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GREEN,
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BLUE
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} ;
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};
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void init();
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void shutdown();
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void setPeriodAndDutyCycles(Mode mode, float dutyCycleRed, float dutyCycleGreen, float dutyCycleBlue, float period = 0.0f);
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void setColorStatus(Color color, bool enable);
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/* This call bypasses the timer, and immediately enforces a given LED state. */
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void enforceState(bool red, bool green, bool blue);
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//void enforceState(bool red, bool green, bool blue);
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void initGPIO();
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void shutdownGPIO();
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void initTimer(Mode mode, float blinkPeriod = 0);
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void initTimer();
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void shutdownTimer();
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constexpr static GPIOPin RGBPins[] = {
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@@ -43,11 +44,6 @@ constexpr static GPIOPin RGBPins[] = {
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constexpr uint16_t PWMPeriod = 40000;
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inline uint16_t dutyCycleForUInt8(uint8_t value) {
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/* This function is a linear function from colors [0->255] to duty cycles [0->PWMPeriod].*/
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return ((uint32_t)value)*(PWMPeriod/255);
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}
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}
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}
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}
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@@ -9,6 +9,7 @@
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#include "regs/regs.h"
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void Ion::Power::suspend(bool checkIfPowerKeyReleased) {
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bool isLEDActive = Ion::LED::getColor() != KDColorBlack;
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if (checkIfPowerKeyReleased) {
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/* Wait until power is released to avoid restarting just after suspending */
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bool isPowerDown = true;
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@@ -17,11 +18,11 @@ void Ion::Power::suspend(bool checkIfPowerKeyReleased) {
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isPowerDown = scan.keyDown(Keyboard::Key::B2);
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}
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}
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Device::shutdownPeripherals();
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Device::shutdownPeripherals(isLEDActive);
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PWR.CR()->setLPDS(true); // Turn the regulator off. Takes longer to wake up.
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PWR.CR()->setFPDS(true); // Put the flash to sleep. Takes longer to wake up.
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CM4.SCR()->setSLEEPDEEP(!Ion::LED::getLockState());
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CM4.SCR()->setSLEEPDEEP(!isLEDActive);
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while (1) {
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#if EPSILON_LED_WHILE_CHARGING
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@@ -29,7 +30,7 @@ void Ion::Power::suspend(bool checkIfPowerKeyReleased) {
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* if the standby mode was stopped due to a "stop charging" event, we wait
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* a while to be sure that the plug state of the USB is up-to-date. */
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msleep(200);
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Ion::LED::setCharging(Ion::USB::isPlugged(), Ion::Battery::isCharging());
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//Ion::LED::setCharging(Ion::USB::isPlugged(), Ion::Battery::isCharging());
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#endif
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WakeUp::Device::onPowerKeyDown();
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@@ -38,7 +39,7 @@ void Ion::Power::suspend(bool checkIfPowerKeyReleased) {
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WakeUp::Device::onChargingEvent();
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#endif
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Device::shutdownClocks();
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Device::shutdownClocks(isLEDActive);
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/* To enter sleep, we need to issue a WFE instruction, which waits for the
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* event flag to be set and then clears it. However, the event flag might
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@@ -1,17 +1,9 @@
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#include <ion/led.h>
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void Ion::LED::setColor(KDColor c) {
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KDColor getColor() {
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return KDColorBlack;
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}
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void Ion::LED::setBlinking(float blinkPeriod, bool red, bool green, bool blue) {
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}
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void setColor(KDColor c) {}
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void Ion::LED::setCharging(bool isPlugged, bool isCharging) {
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}
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bool Ion::LED::getLockState() {
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return false;
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}
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void Ion::LED::setLockState(bool state) {
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}
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void setBlinking(float period, float dutyCycle) {}
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@@ -1,6 +1,5 @@
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objs += $(addprefix ion/src/simulator/, \
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init.o\
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led.o\
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)
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objs += $(addprefix ion/src/simulator/boot/, main.o)
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@@ -17,6 +16,7 @@ objs += $(addprefix ion/src/shared/, \
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dummy/backlight.o \
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dummy/battery.o \
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dummy/fcc_id.o \
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dummy/led.o \
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dummy/serial_number.o \
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dummy/usb.o \
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)
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@@ -1,17 +0,0 @@
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#include <ion/led.h>
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void Ion::LED::setColor(KDColor c) {
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}
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void Ion::LED::setBlinking(float blinkPeriod, bool red, bool green, bool blue) {
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}
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void Ion::LED::setCharging(bool isPlugged, bool isCharging) {
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}
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bool Ion::LED::getLockState() {
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return false;
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}
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void Ion::LED::setLockState(bool state) {
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}
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Block a user