frodovdr/hyperion.ng
1
0
Fork 0
mirror of https://github.com/hyperion-project/hyperion.ng.git synced 2023-10-10 13:36:59 +02:00
Code Issues Releases Wiki Activity

Fix WLED & Smoothing (#1567)

Browse Source 
* WLED - Fix empty segment element in DB

* WLED - Fix to not overwrite on state when not isStayOnAfterStreaming

* Refactor ProviderRestApi, increase default timeout

* Fix Smoothing - Fix empty updates, consider smoothing configs for effects

* UI - Fix not removed priority

* Add missing header and code updates

* setRedirectPolicy was only introduced in Qt 5.9

* Adalight - Align to HyperSerial v9.0.0

* HyperSerial Hyperion with awa protocol v8.0.0

* Correct line-endings
This commit is contained in:
LordGrey 2023-02-12 21:20:50 +01:00 committed by GitHub
parent a57bcbc2b8
commit bf418686e3
No known key found for this signature in database
GPG Key ID: 4AEE18F83AFDEB23
11 changed files with 1594 additions and 203 deletions
Show Stats Download Patch File Download Diff File Expand all files Collapse all files

655
assets/firmware/HyperSerial/HyperSerialESP32_Neopixel/HyperSerialESP32_Neopixel.ino Normal file
View File

@ -0,0 +1,655 @@
#include <NeoPixelBus.h>
////////////////////////////////////////////////////////////////////////////////////////////////////
///////////////////////// CONFIG SECTION STARTS /////////////////////////////
////////////////////////////////////////////////////////////////////////////////////////////////////
#define THIS_IS_RGBW // RGBW SK6812, otherwise comment it
#define COLD_WHITE // for RGBW (THIS_IS_RGBW enabled) select COLD version, comment it if NEUTRAL
const bool skipFirstLed = false; // if set the first led in the strip will be set to black (for level shifters using sacrifice LED)
const int serialSpeed = 2000000; // serial port speed
#define DATA_PIN 2 // PIN: data output for LED strip
const bool reportStats = false; // Send back processing statistics
const int reportStatInterval_s = 10; // Send back processing every interval in seconds
/* Statistics breakdown:
FPS: Updates to the LEDs per second
F-FPS: Frames identified per second
S: Shown (Done) updates to the LEDs per given interval
F: Frames identified per interval (garbled grames cannot be counted)
G: Good frames identified per interval
B: Total bad frames of all types identified per interval
BF: Bad frames identified per interval
BS: Skipped incomplete frames
BC: Frames failing CRC check per interval
BFL Frames failing Fletcher content validation per interval
*/
//Developer configs
#define ENABLE_STRIP
#define ENABLE_CHECK_FLETCHER
const int SERIAL_SIZE_RX = 4096;
#ifndef ENABLE_STRIP
const int serial2Speed = 460800;
const bool reportInput = false;
#endif
////////////////////////////////////////////////////////////////////////////////////////////////////
///////////////////////// CONFIG SECTION ENDS /////////////////////////////
////////////////////////////////////////////////////////////////////////////////////////////////////
const String version = "8.0";
#ifdef THIS_IS_RGBW
float whiteLimit = 1.0f;
#ifdef COLD_WHITE
uint8_t rCorrection = 0xA0; // adjust red -> white in 0-0xFF range
uint8_t gCorrection = 0xA0; // adjust green -> white in 0-0xFF range
uint8_t bCorrection = 0xA0; // adjust blue -> white in 0-0xFF range
#else
uint8_t rCorrection = 0xB0; // adjust red -> white in 0-0xFF range
uint8_t gCorrection = 0xB0; // adjust green -> white in 0-0xFF range
uint8_t bCorrection = 0x70; // adjust blue -> white in 0-0xFF range
#endif
#endif
int ledCount = 0; // This is dynamic, don't change it
int pixelCount = 0; // This is dynamic, don't change it
#ifdef THIS_IS_RGBW
#define LED_TYPE NeoGrbwFeature
#if defined(ARDUINO_LOLIN_S2_MINI)
#define LED_METHOD NeoEsp32I2s0Sk6812Method
#else
#define LED_METHOD NeoEsp32I2s1Sk6812Method
#endif
#else
#define LED_TYPE NeoGrbFeature
#if defined(ARDUINO_LOLIN_S2_MINI)
#define LED_METHOD NeoEsp32I2s0Ws2812xMethod
#else
#define LED_METHOD NeoEsp32I2s1Ws2812xMethod
#endif
#endif
#define LED_DRIVER NeoPixelBus<LED_TYPE, LED_METHOD>
uint8_t* ledBuffer;
int ledBufferSize;
#ifdef ENABLE_STRIP
LED_DRIVER* strip = NULL;
#endif
enum class AwaProtocol
{
HEADER_A,
HEADER_w,
HEADER_a,
HEADER_HI,
HEADER_LO,
HEADER_CRC,
CHANNELCALIB_GAIN,
CHANNELCALIB_RED,
CHANNELCALIB_GREEN,
CHANNELCALIB_BLUE,
PIXEL,
FLETCHER1,
FLETCHER2,
FLETCHER_EXT
};
AwaProtocol state = AwaProtocol::HEADER_A;
const int headerSize = 6;
const int trailerSize = 3;
const int calibInfoSize = 4;
int bytesRead = 0;
bool isVersion2 = false;
bool isChannelCalib = false;
uint8_t CRC = 0;
int count = 0;
int currentPixel = 0;
uint16_t fletcher1 = 0;
uint16_t fletcher2 = 0;
uint16_t fletcherExt = 0;
#ifdef THIS_IS_RGBW
RgbwColor inputColor;
uint8_t wChannel[256];
uint8_t rChannel[256];
uint8_t gChannel[256];
uint8_t bChannel[256];
#else
RgbColor inputColor;
#endif
bool ledsComplete = false;
// statistics
const int reportStatInterval_ms = reportStatInterval_s * 1000;
unsigned long curTime;
unsigned long stat_start = 0;
uint16_t stat_shown = 0;
uint16_t stat_frames = 0;
uint16_t stat_good = 0;
uint16_t stat_bad = 0;
uint16_t stat_bad_frame = 0;
uint16_t stat_bad_skip = 0;
uint16_t stat_bad_crc = 0;
uint16_t stat_bad_fletcher = 0;
uint16_t stat_final_shown = 0;
uint16_t stat_final_frames = 0;
uint16_t stat_final_good = 0;
uint16_t stat_final_bad = 0;
uint16_t stat_final_bad_frame = 0;
uint16_t stat_final_bad_skip = 0;
uint16_t stat_final_bad_crc = 0;
uint16_t stat_final_bad_fletcher = 0;
//Debugging
String inputString;
String inputErrorString;
String debugString;
void printStringHex(String string)
{
#ifndef ENABLE_STRIP
Serial2.println(string.length());
for (int i = 0; i < string.length(); ++i)
{
if (i % 36 == 0)
{
Serial2.println();
Serial2.print("[");
Serial2.print(i);
Serial2.print("] ");
}
if (string[i] < 16)
Serial2.print("0");
Serial2.print(string[i], HEX);
Serial2.print(":");
}
#endif
}
inline void showMe()
{
#ifdef ENABLE_STRIP
if (strip != NULL && strip->CanShow())
{
stat_shown++;
strip->Show();
}
#endif
}
// statistics
inline void showStats()
{
if (reportStats)
{
if (stat_frames > 0)
{
stat_final_shown = stat_shown;
stat_final_frames = stat_frames;
stat_final_good = stat_good;
stat_final_bad = stat_bad;
stat_final_bad_frame = stat_bad_frame;
stat_final_bad_skip = stat_bad_skip;
stat_final_bad_crc = stat_bad_crc;
stat_final_bad_fletcher = stat_bad_fletcher;
}
stat_start = curTime;
stat_shown = 0;
stat_frames = 0;
stat_good = 0;
stat_bad = 0;
stat_bad_frame = 0;
stat_bad_skip = 0;
stat_bad_crc = 0;
stat_bad_fletcher = 0;
String summary = String("FPS: ") + (stat_final_shown / reportStatInterval_s) +
" F-FPS: " + (stat_final_frames / reportStatInterval_s) +
" S: " + stat_final_shown +
" F: " + stat_final_frames +
" G: " + stat_final_good +
" B: " + stat_final_bad +
" (BF: " + stat_final_bad_frame +
" BS: " + stat_final_bad_skip +
" BC: " + stat_final_bad_crc +
" BFL: " + stat_final_bad_fletcher +
")";
#ifdef ENABLE_STRIP
Serial.println(summary);
#else
Serial2.println(summary);
#endif
}
}
void InitLeds(uint16_t ledCount, int pixelCount, bool channelCalibration = false)
{
if (ledBuffer != NULL)
delete ledBuffer;
ledBufferSize = pixelCount + (channelCalibration ? calibInfoSize : 0);
ledBuffer = new uint8_t[ledBufferSize];
#ifdef ENABLE_STRIP
if (strip != NULL)
delete strip;
strip = new LED_DRIVER(ledCount, DATA_PIN);
strip->Begin();
#endif
}
inline void processSerialData()
{
while (Serial.available()) {
char input = Serial.read();
++bytesRead;
#ifndef ENABLE_STRIP
if (reportInput)
inputString += input;
#endif
switch (state)
{
case AwaProtocol::HEADER_A:
if (input == 'A')
{
state = AwaProtocol::HEADER_w;
}
break;
case AwaProtocol::HEADER_w:
if (input == 'w')
state = AwaProtocol::HEADER_a;
else
{
state = AwaProtocol::HEADER_A;
}
break;
case AwaProtocol::HEADER_a:
if (input == 'a')
{
isVersion2 = false;
state = AwaProtocol::HEADER_HI;
}
else if (input == 'A')
{
state = AwaProtocol::HEADER_HI;
isVersion2 = true;
}
else
{
state = AwaProtocol::HEADER_A;
}
break;
case AwaProtocol::HEADER_HI:
stat_frames++;
count = input << 8;
CRC = input;
fletcher1 = 0;
fletcher2 = 0;
fletcherExt = 0;
state = AwaProtocol::HEADER_LO;
break;
case AwaProtocol::HEADER_LO:
count += input + 1;
if (ledCount != count || isChannelCalib != isVersion2)
{
ledCount = count;
isChannelCalib = isVersion2;
pixelCount = ledCount * 3;
if (isChannelCalib)
prepareCalibration();
InitLeds(ledCount, pixelCount, isChannelCalib);
}
CRC = CRC ^ input ^ 0x55;
state = AwaProtocol::HEADER_CRC;
break;
case AwaProtocol::HEADER_CRC:
// Check, if incomplete package information was skipped, set bytesread to headersize and skip wrong input
if (bytesRead != headerSize)
{
stat_bad_skip++;
bytesRead = headerSize;
}
currentPixel = 0;
if (CRC == input)
{
state = AwaProtocol::PIXEL;
}
else
{
// CRC failure
stat_bad++;
stat_bad_crc++;
state = AwaProtocol::HEADER_A;
}
break;
case AwaProtocol::PIXEL:
ledBuffer[currentPixel++] = input;
if (currentPixel == pixelCount)
{
if (isChannelCalib)
state = AwaProtocol::CHANNELCALIB_GAIN;
else
state = AwaProtocol::FLETCHER1;
}
break;
case AwaProtocol::CHANNELCALIB_GAIN:
ledBuffer[currentPixel++] = input;
state = AwaProtocol::CHANNELCALIB_RED;
break;
case AwaProtocol::CHANNELCALIB_RED:
ledBuffer[currentPixel++] = input;
state = AwaProtocol::CHANNELCALIB_GREEN;
break;
case AwaProtocol::CHANNELCALIB_GREEN:
ledBuffer[currentPixel++] = input;
state = AwaProtocol::CHANNELCALIB_BLUE;
break;
case AwaProtocol::CHANNELCALIB_BLUE:
ledBuffer[currentPixel++] = input;
state = AwaProtocol::FLETCHER1;
break;
case AwaProtocol::FLETCHER1:
fletcher1 = input;
state = AwaProtocol::FLETCHER2;
break;
case AwaProtocol::FLETCHER2:
fletcher2 = input;
state = AwaProtocol::FLETCHER_EXT;
break;
case AwaProtocol::FLETCHER_EXT:
fletcherExt = input;
ledsComplete = true;
state = AwaProtocol::HEADER_A;
break;
}
}
}
void setup()
{
// Init serial port
int bufSize = Serial.setRxBufferSize(SERIAL_SIZE_RX);
Serial.begin(serialSpeed);
Serial.setTimeout(50);
#ifndef ENABLE_STRIP
Serial2.begin(serial2Speed);
Serial2.println();
Serial2.println("Welcome!");
Serial2.println("Hyperion Awa driver " + version);
Serial2.println("!!! Debug Output !!!");
#endif
// Display config
Serial.println();
Serial.println("Welcome!");
Serial.println("Hyperion Awa driver " + version);
Serial.print("(Build: ");
Serial.print(__DATE__);
Serial.print(" ");
Serial.print(__TIME__);
Serial.println(")");
// first LED info
if (skipFirstLed)
Serial.println("First LED: disabled");
else
Serial.println("First LED: enabled");
// RGBW claibration info
#ifdef THIS_IS_RGBW
#ifdef COLD_WHITE
Serial.println("Default color mode: RGBW cold");
#else
Serial.println("Default color mode: RGBW neutral");
#endif
prepareCalibration();
#else
Serial.println("Color mode: RGB");
#endif
InitLeds(ledCount, pixelCount);
}
void prepareCalibration()
{
#ifdef THIS_IS_RGBW
// prepare LUT calibration table, cold white is much better than "neutral" white
for (uint32_t i = 0; i < 256; i++)
{
// color calibration
float red = rCorrection * i; // adjust red
float green = gCorrection * i; // adjust green
float blue = bCorrection * i; // adjust blue
wChannel[i] = (uint8_t)round(min(whiteLimit * i, 255.0f));
rChannel[i] = (uint8_t)round(min(red / 0xFF, 255.0f));
gChannel[i] = (uint8_t)round(min(green / 0xFF, 255.0f));
bChannel[i] = (uint8_t)round(min(blue / 0xFF, 255.0f));
}
Serial.write("RGBW calibration. White limit(%): ");
Serial.print(whiteLimit * 100.0f);
Serial.write(" %, red: ");
Serial.print(rCorrection);
Serial.write(" , green: ");
Serial.print(gCorrection);
Serial.write(" , blue: ");
Serial.print(bCorrection);
Serial.println();
#endif
}
void loop()
{
curTime = millis();
#ifdef __AVR__
// nothing , USART Interrupt is implemented
ESPserialEvent();
#else
// ESP8266 polling
ESPserialEvent();
#endif
if (ledsComplete)
{
#ifndef ENABLE_STRIP
if (reportInput)
{
Serial2.println();
Serial2.print("<input> L: ");
printStringHex(inputString);
Serial2.println("<\input>");
inputString = "";
Serial2.print("bytesRead: ");
Serial2.print(bytesRead);
Serial2.print(" , currentPixel: ");
Serial2.print(currentPixel);
Serial2.print(" ,pixelCount: ");
Serial2.print(pixelCount);
Serial2.println();
}
#endif
int frameSize = headerSize + ledBufferSize + trailerSize;
if (bytesRead > frameSize)
{
//Add number of frames ignored on top of frame
int frames = bytesRead / frameSize;
stat_frames += frames;
//Count frame plus frames ignored as bad frames
int badFrames = frames + 1;
stat_bad += badFrames;
stat_bad_frame += badFrames;
}
else
{
#ifdef ENABLE_CHECK_FLETCHER
//Test if content is valid
uint16_t item = 0;
uint16_t fletch1 = 0;
uint16_t fletch2 = 0;
uint16_t fletchExt = 0;
while (item < ledBufferSize)
{
fletch1 = (fletch1 + (uint16_t)ledBuffer[item]) % 255;
fletch2 = (fletch2 + fletch1) % 255;
fletcherExt = (fletcherExt + ((uint16_t)ledBuffer[item] ^ (item))) % 255;
++item;
}
if ((fletch1 == fletcher1) && (fletch2 == fletcher2) && (ledBuffer[item-1] == (fletcherExt != 0x41) ? fletcherExt : 0xaa))
{
#endif
stat_good++;
uint16_t startLed = 0;
if (skipFirstLed)
{
#ifdef ENABLE_STRIP
#ifdef THIS_IS_RGBW
strip->SetPixelColor(startLed, RgbwColor(0, 0, 0, 0));
#else
strip->SetPixelColor(startLed, RgbColor(0, 0, 0));
#endif
#endif
startLed = 1;
}
for (uint16_t led = startLed; led < ledCount; ++led)
{
inputColor.R = ledBuffer[led * 3];
inputColor.G = ledBuffer[led * 3 + 1];
inputColor.B = ledBuffer[led * 3 + 2];
#ifdef THIS_IS_RGBW
inputColor.W = min(rChannel[inputColor.R],
min(gChannel[inputColor.G],
bChannel[inputColor.B]));
inputColor.R -= rChannel[inputColor.W];
inputColor.G -= gChannel[inputColor.W];
inputColor.B -= bChannel[inputColor.W];
inputColor.W = wChannel[inputColor.W];
#endif
#ifdef ENABLE_STRIP
strip->SetPixelColor(led, inputColor);
#endif
}
showMe();
yield();
#ifdef THIS_IS_RGBW
if (isChannelCalib)
{
uint8_t incoming_gain = ledBuffer[pixelCount];
uint8_t incoming_red = ledBuffer[pixelCount + 1];
uint8_t incoming_green = ledBuffer[pixelCount + 2];
uint8_t incoming_blue = ledBuffer[pixelCount + 3];
float final_limit = (incoming_gain != 255) ? incoming_gain / 255.0f : 1.0f;
if (rCorrection != incoming_red || gCorrection != incoming_green || bCorrection != incoming_blue || whiteLimit != final_limit)
{
rCorrection = incoming_red;
gCorrection = incoming_green;
bCorrection = incoming_blue;
whiteLimit = final_limit;
prepareCalibration();
}
}
#endif
#ifdef ENABLE_CHECK_FLETCHER
}
else
{
stat_bad++;
stat_bad_fletcher++;
}
#endif
}
bytesRead = 0;
state = AwaProtocol::HEADER_A;
ledsComplete = false;
}
if ((curTime - stat_start > reportStatInterval_ms))
{
if (stat_frames > 0)
{
showStats();
}
}
}
#ifdef __AVR__
void serialEvent()
{
processSerialData();
}
#elif defined(ARDUINO_ARCH_ESP8266) || defined(ARDUINO_ARCH_ESP32)
void ESPserialEvent()
{
processSerialData();
}
#endif

646
assets/firmware/HyperSerial/HyperSerialESP8266_Neopixel/HyperSerialESP8266_Neopixel.ino Normal file
View File

@ -0,0 +1,646 @@
#include <NeoPixelBus.h>
////////////////////////////////////////////////////////////////////////////////////////////////////
///////////////////////// CONFIG SECTION STARTS /////////////////////////////
////////////////////////////////////////////////////////////////////////////////////////////////////
#define THIS_IS_RGBW // RGBW SK6812, otherwise comment it
#define COLD_WHITE // for RGBW (THIS_IS_RGBW enabled) select COLD version, comment it if NEUTRAL
const bool skipFirstLed = false; // if set the first led in the strip will be set to black (for level shifters using sacrifice LED)
const int serialSpeed = 2000000; // serial port speed
const bool reportStats = false; // Send back processing statistics
const int reportStatInterval_s = 10; // Send back processing every interval in seconds
/* Statistics breakdown:
FPS: Updates to the LEDs per second
F-FPS: Frames identified per second
S: Shown (Done) updates to the LEDs per given interval
F: Frames identified per interval (garbled grames cannot be counted)
G: Good frames identified per interval
B: Total bad frames of all types identified per interval
BF: Bad frames identified per interval
BS: Skipped incomplete frames
BC: Frames failing CRC check per interval
BFL Frames failing Fletcher content validation per interval
*/
//Developer configs
#define ENABLE_STRIP
#define ENABLE_CHECK_FLETCHER
const int SERIAL_SIZE_RX = 4096;
#ifndef ENABLE_STRIP
const int serial2Speed = 460800;
const bool reportInput = false;
#endif
////////////////////////////////////////////////////////////////////////////////////////////////////
///////////////////////// CONFIG SECTION ENDS /////////////////////////////
////////////////////////////////////////////////////////////////////////////////////////////////////
const String version = "8.0";
#ifdef THIS_IS_RGBW
float whiteLimit = 1.0f;
#ifdef COLD_WHITE
uint8_t rCorrection = 0xA0; // adjust red -> white in 0-0xFF range
uint8_t gCorrection = 0xA0; // adjust green -> white in 0-0xFF range
uint8_t bCorrection = 0xA0; // adjust blue -> white in 0-0xFF range
#else
uint8_t rCorrection = 0xB0; // adjust red -> white in 0-0xFF range
uint8_t gCorrection = 0xB0; // adjust green -> white in 0-0xFF range
uint8_t bCorrection = 0x70; // adjust blue -> white in 0-0xFF range
#endif
#endif
int ledCount = 0; // This is dynamic, don't change it
int pixelCount = 0; // This is dynamic, don't change it
#ifdef THIS_IS_RGBW
#define LED_TYPE NeoGrbwFeature
#define LED_METHOD NeoEsp8266Uart1Sk6812Method
#else
#define LED_TYPE NeoGrbFeature
#define LED_METHOD NeoEsp8266Uart1Ws2812xMethod
#endif
#define LED_DRIVER NeoPixelBus<LED_TYPE, LED_METHOD>
uint8_t* ledBuffer;
int ledBufferSize;
#ifdef ENABLE_STRIP
LED_DRIVER* strip = NULL;
#endif
enum class AwaProtocol
{
HEADER_A,
HEADER_w,
HEADER_a,
HEADER_HI,
HEADER_LO,
HEADER_CRC,
CHANNELCALIB_GAIN,
CHANNELCALIB_RED,
CHANNELCALIB_GREEN,
CHANNELCALIB_BLUE,
PIXEL,
FLETCHER1,
FLETCHER2,
FLETCHER_EXT
};
AwaProtocol state = AwaProtocol::HEADER_A;
const int headerSize = 6;
const int trailerSize = 3;
const int calibInfoSize = 4;
int bytesRead = 0;
bool isVersion2 = false;
bool isChannelCalib = false;
uint8_t CRC = 0;
int count = 0;
int currentPixel = 0;
uint16_t fletcher1 = 0;
uint16_t fletcher2 = 0;
uint16_t fletcherExt = 0;
#ifdef THIS_IS_RGBW
RgbwColor inputColor;
uint8_t wChannel[256];
uint8_t rChannel[256];
uint8_t gChannel[256];
uint8_t bChannel[256];
#else
RgbColor inputColor;
#endif
bool ledsComplete = false;
// statistics
const int reportStatInterval_ms = reportStatInterval_s * 1000;
unsigned long curTime;
unsigned long stat_start = 0;
uint16_t stat_shown = 0;
uint16_t stat_frames = 0;
uint16_t stat_good = 0;
uint16_t stat_bad = 0;
uint16_t stat_bad_frame = 0;
uint16_t stat_bad_skip = 0;
uint16_t stat_bad_crc = 0;
uint16_t stat_bad_fletcher = 0;
uint16_t stat_final_shown = 0;
uint16_t stat_final_frames = 0;
uint16_t stat_final_good = 0;
uint16_t stat_final_bad = 0;
uint16_t stat_final_bad_frame = 0;
uint16_t stat_final_bad_skip = 0;
uint16_t stat_final_bad_crc = 0;
uint16_t stat_final_bad_fletcher = 0;
//Debugging
String inputString;
String inputErrorString;
String debugString;
void printStringHex(String string)
{
#ifndef ENABLE_STRIP
Serial2.println(string.length());
for (int i = 0; i < string.length(); ++i)
{
if (i % 36 == 0)
{
Serial2.println();
Serial2.print("[");
Serial2.print(i);
Serial2.print("] ");
}
if (string[i] < 16)
Serial2.print("0");
Serial2.print(string[i], HEX);
Serial2.print(":");
}
#endif
}
inline void showMe()
{
#ifdef ENABLE_STRIP
if (strip != NULL && strip->CanShow())
{
stat_shown++;
strip->Show();
}
#endif
}
// statistics
inline void showStats()
{
if (reportStats)
{
if (stat_frames > 0)
{
stat_final_shown = stat_shown;
stat_final_frames = stat_frames;
stat_final_good = stat_good;
stat_final_bad = stat_bad;
stat_final_bad_frame = stat_bad_frame;
stat_final_bad_skip = stat_bad_skip;
stat_final_bad_crc = stat_bad_crc;
stat_final_bad_fletcher = stat_bad_fletcher;
}
stat_start = curTime;
stat_shown = 0;
stat_frames = 0;
stat_good = 0;
stat_bad = 0;
stat_bad_frame = 0;
stat_bad_skip = 0;
stat_bad_crc = 0;
stat_bad_fletcher = 0;
String summary = String("FPS: ") + (stat_final_shown / reportStatInterval_s) +
" F-FPS: " + (stat_final_frames / reportStatInterval_s) +
" S: " + stat_final_shown +
" F: " + stat_final_frames +
" G: " + stat_final_good +
" B: " + stat_final_bad +
" (BF: " + stat_final_bad_frame +
" BS: " + stat_final_bad_skip +
" BC: " + stat_final_bad_crc +
" BFL: " + stat_final_bad_fletcher +
")";
#ifdef ENABLE_STRIP
Serial.println(summary);
#else
Serial2.println(summary);
#endif
}
}
void InitLeds(uint16_t ledCount, int pixelCount, bool channelCalibration = false)
{
if (ledBuffer != NULL)
delete ledBuffer;
ledBufferSize = pixelCount + (channelCalibration ? calibInfoSize : 0);
ledBuffer = new uint8_t[ledBufferSize];
#ifdef ENABLE_STRIP
if (strip != NULL)
delete strip;
strip = new LED_DRIVER(ledCount);
strip->Begin();
#endif
}
inline void processSerialData()
{
while (Serial.available()) {
char input = Serial.read();
++bytesRead;
#ifndef ENABLE_STRIP
if (reportInput)
inputString += input;
#endif
switch (state)
{
case AwaProtocol::HEADER_A:
if (input == 'A')
{
state = AwaProtocol::HEADER_w;
}
break;
case AwaProtocol::HEADER_w:
if (input == 'w')
state = AwaProtocol::HEADER_a;
else
{
state = AwaProtocol::HEADER_A;
}
break;
case AwaProtocol::HEADER_a:
if (input == 'a')
{
isVersion2 = false;
state = AwaProtocol::HEADER_HI;
}
else if (input == 'A')
{
state = AwaProtocol::HEADER_HI;
isVersion2 = true;
}
else
{
state = AwaProtocol::HEADER_A;
}
break;
case AwaProtocol::HEADER_HI:
stat_frames++;
count = input << 8;
CRC = input;
fletcher1 = 0;
fletcher2 = 0;
fletcherExt = 0;
state = AwaProtocol::HEADER_LO;
break;
case AwaProtocol::HEADER_LO:
count += input + 1;
if (ledCount != count || isChannelCalib != isVersion2)
{
ledCount = count;
isChannelCalib = isVersion2;
pixelCount = ledCount * 3;
if (isChannelCalib)
prepareCalibration();
InitLeds(ledCount, pixelCount, isChannelCalib);
}
CRC = CRC ^ input ^ 0x55;
state = AwaProtocol::HEADER_CRC;
break;
case AwaProtocol::HEADER_CRC:
// Check, if incomplete package information was skipped, set bytesread to headersize and skip wrong input
if (bytesRead != headerSize)
{
stat_bad_skip++;
bytesRead = headerSize;
}
currentPixel = 0;
if (CRC == input)
{
state = AwaProtocol::PIXEL;
}
else
{
// CRC failure
stat_bad++;
stat_bad_crc++;
state = AwaProtocol::HEADER_A;
}
break;
case AwaProtocol::PIXEL:
ledBuffer[currentPixel++] = input;
if (currentPixel == pixelCount)
{
if (isChannelCalib)
state = AwaProtocol::CHANNELCALIB_GAIN;
else
state = AwaProtocol::FLETCHER1;
}
break;
case AwaProtocol::CHANNELCALIB_GAIN:
ledBuffer[currentPixel++] = input;
state = AwaProtocol::CHANNELCALIB_RED;
break;
case AwaProtocol::CHANNELCALIB_RED:
ledBuffer[currentPixel++] = input;
state = AwaProtocol::CHANNELCALIB_GREEN;
break;
case AwaProtocol::CHANNELCALIB_GREEN:
ledBuffer[currentPixel++] = input;
state = AwaProtocol::CHANNELCALIB_BLUE;
break;
case AwaProtocol::CHANNELCALIB_BLUE:
ledBuffer[currentPixel++] = input;
state = AwaProtocol::FLETCHER1;
break;
case AwaProtocol::FLETCHER1:
fletcher1 = input;
state = AwaProtocol::FLETCHER2;
break;
case AwaProtocol::FLETCHER2:
fletcher2 = input;
state = AwaProtocol::FLETCHER_EXT;
break;
case AwaProtocol::FLETCHER_EXT:
fletcherExt = input;
ledsComplete = true;
state = AwaProtocol::HEADER_A;
break;
}
}
}
void setup()
{
// Init serial port
int bufSize = Serial.setRxBufferSize(SERIAL_SIZE_RX);
Serial.begin(serialSpeed);
Serial.setTimeout(50);
#ifndef ENABLE_STRIP
Serial2.begin(serial2Speed);
Serial2.println();
Serial2.println("Welcome!");
Serial2.println("Hyperion Awa driver " + version);
Serial2.println("!!! Debug Output !!!");
#endif
// Display config
Serial.println();
Serial.println("Welcome!");
Serial.println("Hyperion Awa driver " + version);
Serial.print("(Build: ");
Serial.print(__DATE__);
Serial.print(" ");
Serial.print(__TIME__);
Serial.println(")");
// first LED info
if (skipFirstLed)
Serial.println("First LED: disabled");
else
Serial.println("First LED: enabled");
// RGBW claibration info
#ifdef THIS_IS_RGBW
#ifdef COLD_WHITE
Serial.println("Default color mode: RGBW cold");
#else
Serial.println("Default color mode: RGBW neutral");
#endif
prepareCalibration();
#else
Serial.println("Color mode: RGB");
#endif
InitLeds(ledCount, pixelCount);
}
void prepareCalibration()
{
#ifdef THIS_IS_RGBW
// prepare LUT calibration table, cold white is much better than "neutral" white
for (uint32_t i = 0; i < 256; i++)
{
// color calibration
float red = rCorrection * i; // adjust red
float green = gCorrection * i; // adjust green
float blue = bCorrection * i; // adjust blue
wChannel[i] = (uint8_t)round(min(whiteLimit * i, 255.0f));
rChannel[i] = (uint8_t)round(min(red / 0xFF, 255.0f));
gChannel[i] = (uint8_t)round(min(green / 0xFF, 255.0f));
bChannel[i] = (uint8_t)round(min(blue / 0xFF, 255.0f));
}
Serial.write("RGBW calibration. White limit(%): ");
Serial.print(whiteLimit * 100.0f);
Serial.write(" %, red: ");
Serial.print(rCorrection);
Serial.write(" , green: ");
Serial.print(gCorrection);
Serial.write(" , blue: ");
Serial.print(bCorrection);
Serial.println();
#endif
}
void loop()
{
curTime = millis();
#ifdef __AVR__
// nothing , USART Interrupt is implemented
ESPserialEvent();
#else
// ESP8266 polling
ESPserialEvent();
#endif
if (ledsComplete)
{
#ifndef ENABLE_STRIP
if (reportInput)
{
Serial2.println();
Serial2.print("<input> L: ");
printStringHex(inputString);
Serial2.println("<\input>");
inputString = "";
Serial2.print("bytesRead: ");
Serial2.print(bytesRead);
Serial2.print(" , currentPixel: ");
Serial2.print(currentPixel);
Serial2.print(" ,pixelCount: ");
Serial2.print(pixelCount);
Serial2.println();
}
#endif
int frameSize = headerSize + ledBufferSize + trailerSize;
if (bytesRead > frameSize)
{
//Add number of frames ignored on top of frame
int frames = bytesRead / frameSize;
stat_frames += frames;
//Count frame plus frames ignored as bad frames
int badFrames = frames + 1;
stat_bad += badFrames;
stat_bad_frame += badFrames;
}
else
{
#ifdef ENABLE_CHECK_FLETCHER
//Test if content is valid
uint16_t item = 0;
uint16_t fletch1 = 0;
uint16_t fletch2 = 0;
uint16_t fletchExt = 0;
while (item < ledBufferSize)
{
fletch1 = (fletch1 + (uint16_t)ledBuffer[item]) % 255;
fletch2 = (fletch2 + fletch1) % 255;
fletcherExt = (fletcherExt + ((uint16_t)ledBuffer[item] ^ (item))) % 255;
++item;
}
if ((fletch1 == fletcher1) && (fletch2 == fletcher2) && (ledBuffer[item-1] == (fletcherExt != 0x41) ? fletcherExt : 0xaa))
{
#endif
stat_good++;
uint16_t startLed = 0;
if (skipFirstLed)
{
#ifdef ENABLE_STRIP
#ifdef THIS_IS_RGBW
strip->SetPixelColor(startLed, RgbwColor(0, 0, 0, 0));
#else
strip->SetPixelColor(startLed, RgbColor(0, 0, 0));
#endif
#endif
startLed = 1;
}
for (uint16_t led = startLed; led < ledCount; ++led)
{
inputColor.R = ledBuffer[led * 3];
inputColor.G = ledBuffer[led * 3 + 1];
inputColor.B = ledBuffer[led * 3 + 2];
#ifdef THIS_IS_RGBW
inputColor.W = min(rChannel[inputColor.R],
min(gChannel[inputColor.G],
bChannel[inputColor.B]));
inputColor.R -= rChannel[inputColor.W];
inputColor.G -= gChannel[inputColor.W];
inputColor.B -= bChannel[inputColor.W];
inputColor.W = wChannel[inputColor.W];
#endif
#ifdef ENABLE_STRIP
strip->SetPixelColor(led, inputColor);
#endif
}
showMe();
yield();
#ifdef THIS_IS_RGBW
if (isChannelCalib)
{
uint8_t incoming_gain = ledBuffer[pixelCount];
uint8_t incoming_red = ledBuffer[pixelCount + 1];
uint8_t incoming_green = ledBuffer[pixelCount + 2];
uint8_t incoming_blue = ledBuffer[pixelCount + 3];
float final_limit = (incoming_gain != 255) ? incoming_gain / 255.0f : 1.0f;
if (rCorrection != incoming_red || gCorrection != incoming_green || bCorrection != incoming_blue || whiteLimit != final_limit)
{
rCorrection = incoming_red;
gCorrection = incoming_green;
bCorrection = incoming_blue;
whiteLimit = final_limit;
prepareCalibration();
}
}
#endif
#ifdef ENABLE_CHECK_FLETCHER
}
else
{
stat_bad++;
stat_bad_fletcher++;
}
#endif
}
bytesRead = 0;
state = AwaProtocol::HEADER_A;
ledsComplete = false;
}
if ((curTime - stat_start > reportStatInterval_ms))
{
if (stat_frames > 0)
{
showStats();
}
}
}
#ifdef __AVR__
void serialEvent()
{
processSerialData();
}
#elif defined(ARDUINO_ARCH_ESP8266) || defined(ARDUINO_ARCH_ESP32)
void ESPserialEvent()
{
processSerialData();
}
#endif

16
assets/webconfig/js/content_leds.js
View File

@ -2379,23 +2379,29 @@ function updateElementsWled(ledType, key) {
} else {
//If failed to get properties
var hardwareLedCount;
var segmentConfig = false;
if (configuredDeviceType == ledType && configuredHost == host) {
// Populate elements from existing configuration
if (window.serverConfig.device.segments) {
segmentConfig = true;
}
hardwareLedCount = window.serverConfig.device.hardwareLedCount;
} else {
// Populate elements with default values
hardwareLedCount = 1;
}
if (segmentConfig) {
var configuredstreamSegmentId = window.serverConfig.device.segments.streamSegmentId.toString();
enumSegSelectVals = [configuredstreamSegmentId];
enumSegSelectTitleVals = ["Segment " + configuredstreamSegmentId];
enumSegSelectDefaultVal = configuredstreamSegmentId;
hardwareLedCount = window.serverConfig.device.hardwareLedCount;
} else {
// Populate elements with default values
defaultSegmentId = "-1";
enumSegSelectVals.push(defaultSegmentId);
enumSegSelectTitleVals.push($.i18n('edt_dev_spec_segments_disabled_title'));
enumSegSelectDefaultVal = defaultSegmentId;
hardwareLedCount = 1;
}
conf_editor.getEditor("root.generalOptions.hardwareLedCount").setValue(hardwareLedCount);
}

2
assets/webconfig/js/content_remote.js
View File

@ -97,7 +97,7 @@ $(document).ready(function () {
}
function updateInputSelect() {
$('.sstbody').html("");
$('.sstbody').empty();
var prios = window.serverInfo.priorities;
var clearAll = false;

3
include/hyperion/LinearColorSmoothing.h
View File

@ -289,6 +289,9 @@ private:
int _currentConfigId;
bool _enabled;
//The system enable state, to restore smoothing state after effect with smoothing ran
bool _enabledSystemCfg;
/// The type of smoothing to perform
SmoothingType _smoothingType;

25
libsrc/effectengine/EffectEngine.cpp
View File

@ -121,11 +121,17 @@ void EffectEngine::handleUpdatedEffectList()
// add smoothing configurations to Hyperion
if (def.args["smoothing-custom-settings"].toBool())
{
int settlingTime_ms = def.args["smoothing-time_ms"].toInt();
double ledUpdateFrequency_hz = def.args["smoothing-updateFrequency"].toDouble();
unsigned updateDelay {0};
Debug(_log, "Effect \"%s\": Add custom smoothing settings [%d]. Type: Linear, Settling time: %dms, Interval: %.fHz ", QSTRING_CSTR(def.name), specificId, settlingTime_ms, ledUpdateFrequency_hz);
def.smoothCfg = _hyperion->updateSmoothingConfig(
++specificId,
def.args["smoothing-time_ms"].toInt(),
def.args["smoothing-updateFrequency"].toDouble(),
0 );
settlingTime_ms,
ledUpdateFrequency_hz,
updateDelay );
}
else
{
@ -155,11 +161,18 @@ int EffectEngine::runEffect(const QString &effectName, const QJsonObject &args,
//In case smoothing information is provided dynamically use temp smoothing config item (2)
if (smoothCfg == SmoothingConfigID::SYSTEM && args["smoothing-custom-settings"].toBool())
{
int settlingTime_ms = args["smoothing-time_ms"].toInt();
double ledUpdateFrequency_hz = args["smoothing-updateFrequency"].toDouble();
unsigned updateDelay {0};
Debug(_log, "Effect \"%s\": Apply dynamic smoothing settings, if smoothing. Type: Linear, Settling time: %dms, Interval: %.fHz ", QSTRING_CSTR(effectName), settlingTime_ms, ledUpdateFrequency_hz);
smoothCfg = _hyperion->updateSmoothingConfig(
SmoothingConfigID::EFFECT_DYNAMIC,
args["smoothing-time_ms"].toInt(),
args["smoothing-updateFrequency"].toDouble(),
0 );
settlingTime_ms,
ledUpdateFrequency_hz,
updateDelay
);
}
if (pythonScript.isEmpty())

63
libsrc/hyperion/LinearColorSmoothing.cpp
View File

@ -70,6 +70,7 @@ LinearColorSmoothing::LinearColorSmoothing(const QJsonDocument &config, Hyperion
, _pause(false)
, _currentConfigId(SmoothingConfigID::SYSTEM)
, _enabled(false)
, _enabledSystemCfg(false)
, _smoothingType(SmoothingType::Linear)
, tempValues(std::vector<uint64_t>(0, 0L))
{
@ -114,11 +115,12 @@ void LinearColorSmoothing::handleSettingsUpdate(settings::type type, const QJson
QJsonObject obj = config.object();
setEnable(obj["enable"].toBool(_enabled));
_enabledSystemCfg = _enabled;
SmoothingCfg cfg(false,
static_cast<int64_t>(obj[SETTINGS_KEY_SETTLING_TIME].toInt(DEFAULT_SETTLINGTIME)),
static_cast<int64_t>(MS_PER_MICRO / obj[SETTINGS_KEY_UPDATE_FREQUENCY].toDouble(DEFAULT_UPDATEFREQUENCY))
);
int64_t settlingTime_ms = static_cast<int64_t>(obj[SETTINGS_KEY_SETTLING_TIME].toInt(DEFAULT_SETTLINGTIME));
int _updateInterval_ms =static_cast<int>(MS_PER_MICRO / obj[SETTINGS_KEY_UPDATE_FREQUENCY].toDouble(DEFAULT_UPDATEFREQUENCY));
SmoothingCfg cfg(false, settlingTime_ms, _updateInterval_ms);
const QString typeString = obj[SETTINGS_KEY_SMOOTHING_TYPE].toString();
@ -162,8 +164,11 @@ int LinearColorSmoothing::write(const std::vector<ColorRgb> &ledValues)
_previousValues = ledValues;
_previousInterpolationTime = micros();
if (!_pause)
{
_timer->start(_updateInterval);
}
}
return 0;
}
@ -510,6 +515,8 @@ void LinearColorSmoothing::clearRememberedFrames()
void LinearColorSmoothing::queueColors(const std::vector<ColorRgb> &ledColors)
{
assert (ledColors.size() > 0);
if (_outputDelay == 0)
{
// No output delay => immediate write
@ -557,6 +564,8 @@ void LinearColorSmoothing::componentStateChange(hyperion::Components component,
}
void LinearColorSmoothing::setEnable(bool enable)
{
if ( _enabled != enable)
{
_enabled = enable;
if (!_enabled)
@ -566,6 +575,7 @@ void LinearColorSmoothing::setEnable(bool enable)
// update comp register
_hyperion->setNewComponentState(hyperion::COMP_SMOOTHING, enable);
}
}
void LinearColorSmoothing::setPause(bool pause)
{
@ -603,7 +613,7 @@ unsigned LinearColorSmoothing::updateConfig(int cfgID, int settlingTime_ms, doub
updateDelay
};
_cfgList[updatedCfgID] = cfg;
DebugIf(verbose && _enabled, _log,"%s", QSTRING_CSTR(getConfig(updatedCfgID)));
Debug(_log,"%s", QSTRING_CSTR(getConfig(updatedCfgID)));
}
else
{
@ -660,16 +670,32 @@ bool LinearColorSmoothing::selectConfig(int cfgID, bool force)
_interpolationCounter = 0;
_interpolationStatCounter = 0;
//Enable smoothing for effects with smoothing
if (cfgID >= SmoothingConfigID::EFFECT_DYNAMIC)
{
Debug(_log,"Run Effect with Smoothing enabled");
_enabledSystemCfg = _enabled;
setEnable(true);
}
else
{
// Restore enabled state after running an effect with smoothing
setEnable(_enabledSystemCfg);
}
if (_cfgList[cfgID]._updateInterval != _updateInterval)
{
_timer->stop();
_updateInterval = _cfgList[cfgID]._updateInterval;
if (this->enabled())
{
if (!_pause && !_targetValues.empty())
{
_timer->start(_updateInterval);
}
}
}
_currentConfigId = cfgID;
DebugIf(_enabled, _log,"%s", QSTRING_CSTR(getConfig(_currentConfigId)));
@ -689,30 +715,36 @@ QString LinearColorSmoothing::getConfig(int cfgID)
{
SmoothingCfg cfg = _cfgList[cfgID];
configText = QString ("[%1] - type: %2, pause: %3, settlingTime: %4ms, interval: %5ms (%6Hz), delay: %7 frames")
configText = QString ("[%1] - Type: %2, Pause: %3")
.arg(cfgID)
.arg(SmoothingCfg::EnumToString(cfg._type),(cfg._pause) ? "true" : "false")
.arg(cfg._settlingTime)
.arg(cfg._updateInterval)
.arg(int(MS_PER_MICRO/cfg._updateInterval))
.arg(cfg._outputDelay);
.arg(SmoothingCfg::EnumToString(cfg._type),(cfg._pause) ? "true" : "false") ;
switch (cfg._type) {
case SmoothingType::Linear:
break;
case SmoothingType::Decay:
{
const double thalf = (1.0-std::pow(1.0/2, 1.0/_decay))*_settlingTime;
configText += QString (", interpolationRate: %1Hz, dithering: %2, decay: %3 -> halftime: %4ms")
configText += QString (", Interpolation rate: %1Hz, Dithering: %2, decay: %3 -> Halftime: %4ms")
.arg(cfg._interpolationRate,0,'f',2)
.arg((cfg._dithering) ? "true" : "false")
.arg(cfg._decay,0,'f',2)
.arg(thalf,0,'f',2);
[[fallthrough]];
}
case SmoothingType::Linear:
{
configText += QString (", Settling time: %1ms, Interval: %2ms (%3Hz)")
.arg(cfg._settlingTime)
.arg(cfg._updateInterval)
.arg(int(MS_PER_MICRO/cfg._updateInterval));
break;
}
}
configText += QString (", delay: %1 frames")
.arg(cfg._outputDelay);
}
return configText;
}
@ -736,7 +768,6 @@ LinearColorSmoothing::SmoothingCfg::SmoothingCfg(bool pause, int64_t settlingTim
{
}
QString LinearColorSmoothing::SmoothingCfg::EnumToString(SmoothingType type)
{
if (type == SmoothingType::Linear) {

5
libsrc/leddevice/dev_net/LedDeviceWled.cpp
View File

@ -523,7 +523,10 @@ bool LedDeviceWled::restoreState()
_originalStateProperties[STATE_LIVE] = false;
_originalStateProperties[STATE_TRANSITIONTIME_CURRENTCALL] = 0;
_originalStateProperties[STATE_ON] = _isStayOnAfterStreaming;
if (_isStayOnAfterStreaming)
{
_originalStateProperties[STATE_ON] = true;
}
httpResponse response = _restApi->put(_originalStateProperties);
if ( response.error() )

214
libsrc/leddevice/dev_net/ProviderRestApi.cpp
View File

@ -20,25 +20,34 @@ enum HttpStatusCode {
NoContent = 204,
BadRequest = 400,
UnAuthorized = 401,
Forbidden = 403,
NotFound = 404
};
constexpr std::chrono::milliseconds DEFAULT_REST_TIMEOUT{ 400 };
} //End of constants
ProviderRestApi::ProviderRestApi(const QString& host, int port, const QString& basePath)
ProviderRestApi::ProviderRestApi(const QString& scheme, const QString& host, int port, const QString& basePath)
: _log(Logger::getInstance("LEDDEVICE"))
, _networkManager(nullptr)
, _requestTimeout(DEFAULT_REST_TIMEOUT)
{
_networkManager = new QNetworkAccessManager();
#if (QT_VERSION >= QT_VERSION_CHECK(5, 9, 0))
_networkManager->setRedirectPolicy(QNetworkRequest::NoLessSafeRedirectPolicy);
#endif
_apiUrl.setScheme("http");
_apiUrl.setScheme(scheme);
_apiUrl.setHost(host);
_apiUrl.setPort(port);
_basePath = basePath;
}
ProviderRestApi::ProviderRestApi(const QString& scheme, const QString& host, int port)
: ProviderRestApi(scheme, host, port, "") {}
ProviderRestApi::ProviderRestApi(const QString& host, int port, const QString& basePath)
: ProviderRestApi("http", host, port, basePath) {}
ProviderRestApi::ProviderRestApi(const QString& host, int port)
: ProviderRestApi(host, port, "") {}
@ -62,6 +71,12 @@ void ProviderRestApi::setBasePath(const QString& basePath)
appendPath(_basePath, basePath);
}
void ProviderRestApi::setPath(const QStringList& pathElements)
{
_path.clear();
appendPath(_path, pathElements.join(ONE_SLASH));
}
void ProviderRestApi::setPath(const QString& path)
{
_path.clear();
@ -73,6 +88,11 @@ void ProviderRestApi::appendPath(const QString& path)
appendPath(_path, path);
}
void ProviderRestApi::appendPath(const QStringList& pathElements)
{
appendPath(_path, pathElements.join(ONE_SLASH));
}
void ProviderRestApi::appendPath ( QString& path, const QString &appendPath)
{
if (!appendPath.isEmpty() && appendPath != ONE_SLASH)
@ -132,40 +152,7 @@ httpResponse ProviderRestApi::get()
httpResponse ProviderRestApi::get(const QUrl& url)
{
// Perform request
QNetworkRequest request(_networkRequestHeaders);
request.setUrl(url);
#if (QT_VERSION >= QT_VERSION_CHECK(5, 15, 0))
_networkManager->setTransferTimeout(DEFAULT_REST_TIMEOUT.count());
#endif
QNetworkReply* reply = _networkManager->get(request);
// Connect requestFinished signal to quit slot of the loop.
QEventLoop loop;
QEventLoop::connect(reply, &QNetworkReply::finished, &loop, &QEventLoop::quit);
#if (QT_VERSION < QT_VERSION_CHECK(5, 15, 0))
ReplyTimeout::set(reply, DEFAULT_REST_TIMEOUT.count());
#endif
// Go into the loop until the request is finished.
loop.exec();
httpResponse response;
if (reply->operation() == QNetworkAccessManager::GetOperation)
{
if(reply->error() != QNetworkReply::NoError)
{
Debug(_log, "GET: [%s]", QSTRING_CSTR( url.toString() ));
}
response = getResponse(reply );
}
// Free space.
reply->deleteLater();
// Return response
return response;
return executeOperation(QNetworkAccessManager::GetOperation, url);
}
httpResponse ProviderRestApi::put(const QJsonObject &body)
@ -180,40 +167,7 @@ httpResponse ProviderRestApi::put(const QString &body)
httpResponse ProviderRestApi::put(const QUrl &url, const QByteArray &body)
{
// Perform request
QNetworkRequest request(_networkRequestHeaders);
request.setUrl(url);
#if (QT_VERSION >= QT_VERSION_CHECK(5, 15, 0))
_networkManager->setTransferTimeout(DEFAULT_REST_TIMEOUT.count());
#endif
QNetworkReply* reply = _networkManager->put(request, body);
// Connect requestFinished signal to quit slot of the loop.
QEventLoop loop;
QEventLoop::connect(reply, &QNetworkReply::finished, &loop, &QEventLoop::quit);
#if (QT_VERSION < QT_VERSION_CHECK(5, 15, 0))
ReplyTimeout::set(reply, DEFAULT_REST_TIMEOUT.count());
#endif
// Go into the loop until the request is finished.
loop.exec();
httpResponse response;
if (reply->operation() == QNetworkAccessManager::PutOperation)
{
if(reply->error() != QNetworkReply::NoError)
{
Debug(_log, "PUT: [%s] [%s]", QSTRING_CSTR( url.toString() ),body.constData() );
}
response = getResponse(reply);
}
// Free space.
reply->deleteLater();
// Return response
return response;
return executeOperation(QNetworkAccessManager::PutOperation, url, body);
}
httpResponse ProviderRestApi::post(const QJsonObject& body)
@ -228,76 +182,69 @@ httpResponse ProviderRestApi::post(const QString& body)
httpResponse ProviderRestApi::post(const QUrl& url, const QByteArray& body)
{
// Perform request
QNetworkRequest request(_networkRequestHeaders);
request.setUrl(url);
#if (QT_VERSION >= QT_VERSION_CHECK(5, 15, 0))
_networkManager->setTransferTimeout(DEFAULT_REST_TIMEOUT.count());
#endif
QNetworkReply* reply = _networkManager->post(request, body);
// Connect requestFinished signal to quit slot of the loop.
QEventLoop loop;
QEventLoop::connect(reply,&QNetworkReply::finished,&loop,&QEventLoop::quit);
#if (QT_VERSION < QT_VERSION_CHECK(5, 15, 0))
ReplyTimeout::set(reply, DEFAULT_REST_TIMEOUT.count());
#endif
// Go into the loop until the request is finished.
loop.exec();
httpResponse response;
if (reply->operation() == QNetworkAccessManager::PostOperation)
{
if(reply->error() != QNetworkReply::NoError)
{
Debug(_log, "POST: [%s] [%s]", QSTRING_CSTR( url.toString() ),body.constData() );
}
response = getResponse(reply);
}
// Free space.
reply->deleteLater();
// Return response
return response;
return executeOperation(QNetworkAccessManager::PostOperation, url, body);
}
httpResponse ProviderRestApi::deleteResource(const QUrl& url)
{
return executeOperation(QNetworkAccessManager::DeleteOperation, url);
}
httpResponse ProviderRestApi::executeOperation(QNetworkAccessManager::Operation operation, const QUrl& url, const QByteArray& body)
{
// Perform request
QNetworkRequest request(_networkRequestHeaders);
request.setUrl(url);
request.setOriginatingObject(this);
#if (QT_VERSION >= QT_VERSION_CHECK(5, 15, 0))
_networkManager->setTransferTimeout(DEFAULT_REST_TIMEOUT.count());
_networkManager->setTransferTimeout(_requestTimeout.count());
#endif
QNetworkReply* reply = _networkManager->deleteResource(request);
QDateTime start = QDateTime::currentDateTime();
QString opCode;
QNetworkReply* reply;
switch (operation) {
case QNetworkAccessManager::GetOperation:
opCode = "GET";
reply = _networkManager->get(request);
break;
case QNetworkAccessManager::PutOperation:
opCode = "PUT";
reply = _networkManager->put(request, body);
break;
case QNetworkAccessManager::PostOperation:
opCode = "POST";
reply = _networkManager->post(request, body);
break;
case QNetworkAccessManager::DeleteOperation:
opCode = "DELETE";
reply = _networkManager->deleteResource(request);
break;
default:
Error(_log, "Unsupported operation");
return httpResponse();
}
// Connect requestFinished signal to quit slot of the loop.
QEventLoop loop;
QEventLoop::connect(reply, &QNetworkReply::finished, &loop, &QEventLoop::quit);
// Go into the loop until the request is finished.
loop.exec();
#if (QT_VERSION < QT_VERSION_CHECK(5, 15, 0))
ReplyTimeout::set(reply, DEFAULT_REST_TIMEOUT.count());
ReplyTimeout* timeout = ReplyTimeout::set(reply, _requestTimeout.count());
#endif
httpResponse response;
if (reply->operation() == QNetworkAccessManager::DeleteOperation)
{
if(reply->error() != QNetworkReply::NoError)
{
Debug(_log, "DELETE: [%s]", QSTRING_CSTR(url.toString()));
}
response = getResponse(reply);
}
// Go into the loop until the request is finished.
loop.exec();
QDateTime end = QDateTime::currentDateTime();
httpResponse response = (reply->operation() == operation) ? getResponse(reply) : httpResponse();
Debug(_log, "%s took %lldms, HTTP %d: [%s] [%s]", QSTRING_CSTR(opCode), start.msecsTo(end), response.getHttpStatusCode(), QSTRING_CSTR(url.toString()), body.constData());
// Free space.
reply->deleteLater();
// Return response
return response;
}
@ -311,7 +258,6 @@ httpResponse ProviderRestApi::getResponse(QNetworkReply* const& reply)
if (reply->error() == QNetworkReply::NoError)
{
if ( httpStatusCode != HttpStatusCode::NoContent ){
QByteArray replyData = reply->readAll();
if (!replyData.isEmpty())
@ -335,10 +281,8 @@ httpResponse ProviderRestApi::getResponse(QNetworkReply* const& reply)
response.setBody(QJsonDocument());
}
}
}
else
{
Debug(_log, "Reply.httpStatusCode [%d]", httpStatusCode );
QString errorReason;
if (httpStatusCode > 0) {
QString httpReason = reply->attribute(QNetworkRequest::HttpReasonPhraseAttribute).toString();
@ -350,25 +294,32 @@ httpResponse ProviderRestApi::getResponse(QNetworkReply* const& reply)
case HttpStatusCode::UnAuthorized:
advise = "Check Authentication Token (API Key)";
break;
case HttpStatusCode::Forbidden:
advise = "No permission to access the given resource";
break;
case HttpStatusCode::NotFound:
advise = "Check Resource given";
break;
default:
advise = httpReason;
break;
}
errorReason = QString ("[%3 %4] - %5").arg(httpStatusCode).arg(httpReason, advise);
}
else
{
errorReason = reply->errorString();
if (reply->error() == QNetworkReply::OperationCanceledError)
{
response.setError(true);
response.setErrorReason(errorReason);
errorReason = "Network request timeout error";
}
else
{
errorReason = reply->errorString();
}
// Create valid body which is empty
response.setBody(QJsonDocument());
}
response.setError(true);
response.setErrorReason(errorReason);
}
return response;
}
@ -388,3 +339,8 @@ void ProviderRestApi::setHeader(QNetworkRequest::KnownHeaders header, const QVar
}
}
}
void ProviderRestApi::setHeader(const QByteArray &headerName, const QByteArray &headerValue)
{
_networkRequestHeaders.setRawHeader(headerName, headerValue);
}

92
libsrc/leddevice/dev_net/ProviderRestApi.h
View File

@ -13,15 +13,22 @@
#include <QBasicTimer>
#include <QTimerEvent>
#include <chrono>
constexpr std::chrono::milliseconds DEFAULT_REST_TIMEOUT{ 1000 };
//Set QNetworkReply timeout without external timer
//https://stackoverflow.com/questions/37444539/how-to-set-qnetworkreply-timeout-without-external-timer
class ReplyTimeout : public QObject {
class ReplyTimeout : public QObject
{
Q_OBJECT
public:
enum HandleMethod { Abort, Close };
ReplyTimeout(QNetworkReply* reply, const int timeout, HandleMethod method = Abort) :
QObject(reply), m_method(method)
QObject(reply), m_method(method), m_timedout(false)
{
Q_ASSERT(reply);
if (reply && reply->isRunning()) {
@ -29,20 +36,30 @@ public:
connect(reply, &QNetworkReply::finished, this, &QObject::deleteLater);
}
}
static void set(QNetworkReply* reply, const int timeout, HandleMethod method = Abort)
bool isTimedout() const
{
new ReplyTimeout(reply, timeout, method);
return m_timedout;
}
static ReplyTimeout * set(QNetworkReply* reply, const int timeout, HandleMethod method = Abort)
{
return new ReplyTimeout(reply, timeout, method);
}
signals:
void timedout();
protected:
QBasicTimer m_timer;
HandleMethod m_method;
void timerEvent(QTimerEvent * ev) override {
if (!m_timer.isActive() || ev->timerId() != m_timer.timerId())
return;
auto reply = static_cast<QNetworkReply*>(parent());
if (reply->isRunning())
{
m_timedout = true;
emit timedout();
if (m_method == Close)
reply->close();
else if (m_method == Abort)
@ -50,6 +67,10 @@ protected:
m_timer.stop();
}
}
QBasicTimer m_timer;
HandleMethod m_method;
bool m_timedout;
};
///
@ -104,11 +125,12 @@ private:
///
///@endcode
///
class ProviderRestApi
class ProviderRestApi : public QObject
{
Q_OBJECT
public:
///
/// @brief Constructor of the REST-API wrapper
///
ProviderRestApi();
@ -121,6 +143,15 @@ public:
///
explicit ProviderRestApi(const QString& host, int port);
///
/// @brief Constructor of the REST-API wrapper
///
/// @param[in] scheme
/// @param[in] host
/// @param[in] port
///
explicit ProviderRestApi(const QString& scheme, const QString& host, int port);
///
/// @brief Constructor of the REST-API wrapper
///
@ -130,10 +161,20 @@ public:
///
explicit ProviderRestApi(const QString& host, int port, const QString& basePath);
///
/// @brief Constructor of the REST-API wrapper
///
/// @param[in] scheme
/// @param[in] host
/// @param[in] port
/// @param[in] API base-path
///
explicit ProviderRestApi(const QString& scheme, const QString& host, int port, const QString& basePath);
///
/// @brief Destructor of the REST-API wrapper
///
virtual ~ProviderRestApi();
virtual ~ProviderRestApi() override;
///
/// @brief Set an API's host
@ -177,6 +218,12 @@ public:
///
void setPath(const QString& path);
/// @brief Set an API's path to address resources
///
/// @param[in] pathElements to form a path, e.g. (lights,1,state) results in "/lights/1/state/"
///
void setPath(const QStringList& pathElements);
///
/// @brief Append an API's path element to path set before
///
@ -184,6 +231,13 @@ public:
///
void appendPath(const QString& appendPath);
///
/// @brief Append API's path elements to path set before
///
/// @param[in] pathElements
///
void appendPath(const QStringList& pathElements);
///
/// @brief Set an API's fragment
///
@ -283,14 +337,28 @@ public:
/// @param[in] The type of the header field.
/// @param[in] The value of the header field.
/// If the header field exists, the value will be combined as comma separated string.
void setHeader(QNetworkRequest::KnownHeaders header, const QVariant& value);
///
/// Set a header field.
///
/// @param[in] The type of the header field.
/// @param[in] The value of the header field.
/// If the header field exists, the value will override the previous setting.
void setHeader(const QByteArray &headerName, const QByteArray &headerValue);
///
/// Remove all header fields.
///
void removeAllHeaders() { _networkRequestHeaders = QNetworkRequest(); }
///
/// Sets the timeout time frame after a request is aborted
/// Zero means no timer is set.
///
/// @param[in] timeout in milliseconds.
void setTransferTimeout(std::chrono::milliseconds timeout = DEFAULT_REST_TIMEOUT) { _requestTimeout = timeout; }
///
/// @brief Set the common logger for LED-devices.
///
@ -308,10 +376,14 @@ private:
///
static void appendPath (QString &path, const QString &appendPath) ;
httpResponse executeOperation(QNetworkAccessManager::Operation op, const QUrl& url, const QByteArray& body = {});
Logger* _log;
// QNetworkAccessManager object for sending REST-requests.
QNetworkAccessManager* _networkManager;
std::chrono::milliseconds _requestTimeout;
QUrl _apiUrl;

10
libsrc/leddevice/dev_serial/LedDeviceAdalight.cpp
View File

@ -94,7 +94,7 @@ void LedDeviceAdalight::prepareHeader()
break;
case Adalight::AWA:
_bufferLength += 7;
_bufferLength += 8;
[[fallthrough]];
case Adalight::ADA:
[[fallthrough]];
@ -162,14 +162,20 @@ int LedDeviceAdalight::write(const std::vector<ColorRgb> & ledValues)
{
whiteChannelExtension(writer);
uint16_t fletcher1 = 0, fletcher2 = 0;
uint16_t fletcher1 = 0;
uint16_t fletcher2 = 0;
uint16_t fletcherExt = 0;
uint8_t position = 0;
while (hasher < writer)
{
fletcherExt = (fletcherExt + (*(hasher) ^ (position++))) % 255;
fletcher1 = (fletcher1 + *(hasher++)) % 255;
fletcher2 = (fletcher2 + fletcher1) % 255;
}
*(writer++) = static_cast<uint8_t>(fletcher1);
*(writer++) = static_cast<uint8_t>(fletcher2);
*(writer++) = static_cast<uint8_t>((fletcherExt != 0x41) ? fletcherExt : 0xaa);
}
_bufferLength = writer - _ledBuffer.data();
}