Don't use EEPROM for now
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16f71c888b
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6bcc22c045
@ -26,6 +26,13 @@ constexpr long maximumTemperature = temperatureShiftForStorage + 255 * 500;
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constexpr uint8_t temperatureMaximumValue = 255;
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enum class StorageFlags: uint8_t {
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HasInitializedEEPROM = 1,
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FailedToInitEEPROM = 2,
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FailedToWriteEEPROM = 4,
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RTCStorageOverflow = 5,
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};
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void storageConfigure(bool isFirstRun);
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/**
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@ -50,4 +57,6 @@ uint16_t getTimeSinceValidTemperature(uint8_t sensorIndex);
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uint16_t getRecordedBytesAtOffset(uint8_t* buffer, uint16_t offset, uint16_t count);
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void discardAllRecordedBytes();
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void discardAllRecordedBytes();
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uint8_t getStorageErrorFlags();
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@ -5,8 +5,7 @@
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constexpr uint8_t absoluteTemperatureIndicator = 0xFF;
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// The number of bytes to accumulate in RTC memory before writing it to EEPROM
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constexpr uint32_t eepromChunkSize = 100;
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RTC_DATA_ATTR uint8_t storageFlags = 0;
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// Storage for temperature measurements in RTC memory that survives deep sleep
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RTC_DATA_ATTR uint8_t data[rtcStorageSize];
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@ -18,31 +17,47 @@ RTC_DATA_ATTR uint32_t numberOfDiscardedMeasurements = 0;
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RTC_DATA_ATTR uint32_t eepromIndex = 0;
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RTC_DATA_ATTR bool isFirstRunAfterPowerOn = true;
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constexpr uint16_t eepromOffset = sizeof(uint16_t);
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constexpr uint16_t eepromDataSize = eepromSize - eepromOffset;
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// Keeps the last valid temperatures for each sensor
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RTC_DATA_ATTR Temperature lastTemperatures[temperatureSensorCount];
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RTC_DATA_ATTR uint32_t lastValidTemperatureTime[temperatureSensorCount];
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RTC_DATA_ATTR uint8_t lastMeasurements[temperatureSensorCount] = {0, 0};
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bool didSetupEEPROM = false;
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void setStorageFlag(StorageFlags flag) {
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storageFlags |= static_cast<uint8_t>(flag);
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}
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// On first boot, this is set to true; Afterwards it's remembered to be false
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RTC_DATA_ATTR bool eepromIsConsideredEmpty = true;
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void clearStorageFlag(StorageFlags flag) {
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storageFlags &= ~static_cast<uint8_t>(flag);
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}
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constexpr uint16_t eepromOffset = sizeof(uint16_t);
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constexpr uint16_t eepromDataSize = eepromSize - eepromOffset;
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bool hasStorageFlag(StorageFlags flag) {
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return storageFlags & static_cast<uint8_t>(flag);
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}
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bool hasInitializedEEPROM() {
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return hasStorageFlag(StorageFlags::HasInitializedEEPROM);
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}
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void didInitializeEEPROM() {
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setStorageFlag(StorageFlags::HasInitializedEEPROM);
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}
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void setupEEPROMIfNeeded() {
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if (didSetupEEPROM) {
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if (hasInitializedEEPROM()) {
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return;
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}
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bool success = EEPROM.begin(eepromSize);
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if (!success) {
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Serial.println("Failed to set up EEPROM");
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didSetupEEPROM = false;
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setStorageFlag(StorageFlags::FailedToInitEEPROM);
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}
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Serial.print("EEPROM size: ");
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Serial.println(eepromSize);
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didSetupEEPROM = true;
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clearStorageFlag(StorageFlags::FailedToInitEEPROM);
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setStorageFlag(StorageFlags::HasInitializedEEPROM);
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}
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void resetLastMeasurements() {
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@ -59,29 +74,18 @@ void storageConfigure(bool isFirstRun) {
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// Ensure that first values are stored
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resetLastMeasurements();
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}
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}
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uint16_t getNumberOfBytesStoredInEEPROM() {
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if (eepromIsConsideredEmpty) {
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return 0; // Discard any previous bytes
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}
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setupEEPROMIfNeeded();
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return EEPROM.readShort(0);
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// Initialize EEPROM on every wake
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// setupEEPROMIfNeeded();
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//setStorageFlag(StorageFlags::HasInitializedEEPROM);
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}
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void moveDataToEEPROMIfNeeded() {
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if (dataIndex < eepromChunkSize) {
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return; // Wait until more bytes are available
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if (dataIndex < rtcStorageSize) {
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return;
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}
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// Determine EEPROM start address
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uint16_t eepromIndex = getNumberOfBytesStoredInEEPROM() + eepromOffset;
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if (eepromIndex >= eepromDataSize) {
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return; // No more space in EEPROM, keep filling RTC memory
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}
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// Preparing to write new data, so set to false
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eepromIsConsideredEmpty = false;
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setupEEPROMIfNeeded();
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if (!didSetupEEPROM) {
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if (!hasInitializedEEPROM()) {
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return;
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}
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@ -89,7 +93,6 @@ void moveDataToEEPROMIfNeeded() {
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uint16_t bytesRemaining = eepromDataSize - eepromIndex;
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uint16_t bytesToWrite = min(dataIndex, bytesRemaining);
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EEPROM.writeBytes(eepromIndex, data, bytesToWrite); // TODO: Check that result == bytesToWrite
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EEPROM.writeShort(0, eepromIndex + bytesToWrite);
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EEPROM.commit();
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// Move remaining data to front of array (if any)
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@ -99,8 +102,13 @@ void moveDataToEEPROMIfNeeded() {
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}
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void saveByteAtCurrentIndex(uint8_t byte) {
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if (dataIndex >= rtcStorageSize) {
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setStorageFlag(StorageFlags::RTCStorageOverflow);
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return;
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}
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data[dataIndex] = byte;
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dataIndex += 1;
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//moveDataToEEPROMIfNeeded();
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}
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uint8_t byteForAbsoluteTemperature(Temperature* temp) {
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@ -199,13 +207,11 @@ void saveTemperatures(Temperature* temperatures) {
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saveByteAtCurrentIndex(valueToStore);
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}
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}
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moveDataToEEPROMIfNeeded();
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numberOfMeasurements += 1;
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}
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uint16_t getTotalNumberOfStoredBytes() {
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return getNumberOfBytesStoredInEEPROM() + dataIndex;
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return dataIndex; // + eepromIndex;
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}
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uint16_t getNumberOfMeasurements() {
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@ -225,8 +231,14 @@ uint16_t getTimeSinceValidTemperature(uint8_t sensorIndex) {
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}
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uint16_t getRecordedBytesAtOffset(uint8_t* buffer, uint16_t offset, uint16_t count) {
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// Copy remaining bytes from RTC memory
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uint16_t remainingBytes = dataIndex - offset;
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uint16_t bytesToCopy = min(count, remainingBytes);
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memcpy(buffer, data + offset, count);
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return bytesToCopy;
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/*
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// TODO: Check limits
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uint16_t eepromByteCount = getNumberOfBytesStoredInEEPROM();
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uint16_t eepromByteCount = eepromIndex;
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uint16_t endIndex = offset + count;
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uint16_t eepromStart = min(offset, eepromByteCount);
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uint16_t eepromEnd = min(endIndex, eepromByteCount);
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@ -242,11 +254,16 @@ uint16_t getRecordedBytesAtOffset(uint8_t* buffer, uint16_t offset, uint16_t cou
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uint16_t bytesToCopyFromRTC = min(count, dataIndex);
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memcpy(buffer + bytesToCopyFromEEPROM, data + offset, bytesToCopyFromRTC);
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return bytesToCopyFromEEPROM + bytesToCopyFromRTC;
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*/
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}
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void discardAllRecordedBytes() {
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eepromIsConsideredEmpty = true;
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eepromIndex = 0;
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dataIndex = 0;
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numberOfDiscardedMeasurements += numberOfMeasurements;
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numberOfMeasurements = 0;
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}
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uint8_t getStorageErrorFlags() {
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return storageFlags;
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}
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