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Merge pull request #217 from Scorgan01/WindPlot-v3

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Graphical charts v3 + PageOneValue/PageTwoValues with chart option + updated PageWindPlot
This commit is contained in:
Norbert Walter
2026-01-11 17:18:24 +01:00
committed by GitHub
parent 9ff5ae36db cd3c99d509
commit da975b5175
11 changed files with 1730 additions and 1089 deletions
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2
lib/obp60task/OBP60Extensions.cpp
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@@ -442,7 +442,7 @@ void drawTextRalign(int16_t x, int16_t y, String text) {
int16_t x1, y1; int16_t x1, y1;
uint16_t w, h; uint16_t w, h;
getdisplay().getTextBounds(text, 0, 150, &x1, &y1, &w, &h); getdisplay().getTextBounds(text, 0, 150, &x1, &y1, &w, &h);
getdisplay().setCursor(x - w, y); getdisplay().setCursor(x - w - 1, y); // '-1' required since some strings wrap around w/o it
getdisplay().print(text); getdisplay().print(text);
} }

54
lib/obp60task/OBP60Formatter.cpp
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@@ -49,7 +49,15 @@ String formatLongitude(double lon) {
return String(degree, 0) + "\x90 " + String(minute, 4) + "' " + ((lon > 0) ? "E" : "W"); return String(degree, 0) + "\x90 " + String(minute, 4) + "' " + ((lon > 0) ? "E" : "W");
} }
FormattedData formatValue(GwApi::BoatValue *value, CommonData &commondata){ // Convert and format boat value from SI to user defined format (definition for compatibility purposes)
FormattedData formatValue(GwApi::BoatValue *value, CommonData &commondata) {
return formatValue(value, commondata, false); // call <formatValue> with standard handling of user setting for simulation data
}
// Convert and format boat value from SI to user defined format
// generate random simulation data; can be deselected to use conversion+formatting function even in simulation mode
FormattedData formatValue(GwApi::BoatValue *value, CommonData &commondata, bool ignoreSimuDataSetting){
GwLog *logger = commondata.logger; GwLog *logger = commondata.logger;
FormattedData result; FormattedData result;
static int dayoffset = 0; static int dayoffset = 0;
@@ -66,9 +74,15 @@ FormattedData formatValue(GwApi::BoatValue *value, CommonData &commondata){
String windspeedFormat = commondata.config->getString(commondata.config->windspeedFormat); // [m/s|km/h|kn|bft] String windspeedFormat = commondata.config->getString(commondata.config->windspeedFormat); // [m/s|km/h|kn|bft]
String tempFormat = commondata.config->getString(commondata.config->tempFormat); // [K|°C|°F] String tempFormat = commondata.config->getString(commondata.config->tempFormat); // [K|°C|°F]
String dateFormat = commondata.config->getString(commondata.config->dateFormat); // [DE|GB|US] String dateFormat = commondata.config->getString(commondata.config->dateFormat); // [DE|GB|US]
bool usesimudata = commondata.config->getBool(commondata.config->useSimuData); // [on|off]
String precision = commondata.config->getString(commondata.config->valueprecision); // [1|2] String precision = commondata.config->getString(commondata.config->valueprecision); // [1|2]
bool usesimudata;
if (ignoreSimuDataSetting){
usesimudata = false; // ignore user setting for simulation data; we want to format the boat value passed to this function
} else {
usesimudata = commondata.config->getBool(commondata.config->useSimuData); // [on|off]
}
// If boat value not valid // If boat value not valid
if (! value->valid && !usesimudata){ if (! value->valid && !usesimudata){
result.svalue = "---"; result.svalue = "---";
@@ -196,10 +210,10 @@ FormattedData formatValue(GwApi::BoatValue *value, CommonData &commondata){
rawvalue = value->value; rawvalue = value->value;
} }
else { else {
course = 2.53 + float(random(0, 10) / 100.0); course = M_PI_2 + float(random(-17, 17) / 100.0); // create random course/wind values with 90° +/- 10°
rawvalue = course; rawvalue = course;
} }
course = course * 57.2958; // Unit conversion form rad to deg course = course * RAD_TO_DEG; // Unit conversion form rad to deg
// Format 3 numbers with prefix zero // Format 3 numbers with prefix zero
snprintf(buffer,bsize,"%03.0f",course); snprintf(buffer,bsize,"%03.0f",course);
@@ -214,7 +228,7 @@ FormattedData formatValue(GwApi::BoatValue *value, CommonData &commondata){
rawvalue = value->value; rawvalue = value->value;
} }
else{ else{
rawvalue = 4.0 + float(random(0, 40)); rawvalue = 4.0 + float(random(-30, 40) / 10.0); // create random speed values from [1..8] m/s
speed = rawvalue; speed = rawvalue;
} }
if (String(speedFormat) == "km/h"){ if (String(speedFormat) == "km/h"){
@@ -248,7 +262,7 @@ FormattedData formatValue(GwApi::BoatValue *value, CommonData &commondata){
rawvalue = value->value; rawvalue = value->value;
} }
else { else {
rawvalue = 4.0 + float(random(0, 40)); rawvalue = 4.0 + float(random(0, 40) / 10.0); // create random wind speed values from [4..8] m/s
speed = rawvalue; speed = rawvalue;
} }
if (String(windspeedFormat) == "km/h"){ if (String(windspeedFormat) == "km/h"){
@@ -433,7 +447,7 @@ FormattedData formatValue(GwApi::BoatValue *value, CommonData &commondata){
rawvalue = value->value; rawvalue = value->value;
} }
else { else {
rawvalue = 18.0 + float(random(0, 100)) / 10.0; rawvalue = 18.0 + float(random(0, 100)) / 10.0; // create random depth values from [18..28] metres
depth = rawvalue; depth = rawvalue;
} }
if(String(lengthFormat) == "ft"){ if(String(lengthFormat) == "ft"){
@@ -881,4 +895,30 @@ FormattedData formatValue(GwApi::BoatValue *value, CommonData &commondata){
return result; return result;
} }
// Helper method for conversion of any data value from SI to user defined format
double convertValue(const double &value, const String &name, const String &format, CommonData &commondata)
{
std::unique_ptr<GwApi::BoatValue> tmpBValue; // Temp variable to get converted data value from <OBP60Formatter::formatValue>
double result; // data value converted to user defined target data format
constexpr bool NO_SIMUDATA = true; // switch off simulation feature of <formatValue> function
// prepare temporary BoatValue structure for use in <formatValue>
tmpBValue = std::unique_ptr<GwApi::BoatValue>(new GwApi::BoatValue(name)); // we don't need boat value name for pure value conversion
tmpBValue->setFormat(format);
tmpBValue->valid = true;
tmpBValue->value = value;
result = formatValue(tmpBValue.get(), commondata, NO_SIMUDATA).cvalue; // get value (converted); ignore any simulation data setting
return result;
}
// Helper method for conversion of any data value from SI to user defined format
double convertValue(const double &value, const String &format, CommonData &commondata)
{
double result; // data value converted to user defined target data format
result = convertValue(value, "dummy", format, commondata);
return result;
}
#endif #endif

343
lib/obp60task/OBPDataOperations.cpp
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@@ -1,156 +1,119 @@
#include "OBPDataOperations.h" #include "OBPDataOperations.h"
#include "BoatDataCalibration.h" // Functions lib for data instance calibration #include "BoatDataCalibration.h" // Functions lib for data instance calibration
#include <math.h>
// --- Class HstryBuf --------------- // --- Class HstryBuf ---------------
HstryBuf::HstryBuf(const String& name, int size, BoatValueList* boatValues, GwLog* log)
: logger(log)
, boatDataName(name)
{
hstryBuf.resize(size);
boatValue = boatValues->findValueOrCreate(name);
}
// Init history buffers for selected boat data void HstryBuf::init(const String& format, int updFreq, int mltplr, double minVal, double maxVal)
void HstryBuf::init(BoatValueList* boatValues, GwLog *log) { {
hstryBuf.setMetaData(boatDataName, format, updFreq, mltplr, minVal, maxVal);
logger = log; hstryMin = minVal;
hstryMax = maxVal;
int hstryUpdFreq = 1000; // Update frequency for history buffers in ms if (!boatValue->valid) {
int mltplr = 1000; // Multiplier which transforms original <double> value into buffer type format boatValue->setFormat(format);
double hstryMinVal = 0; // Minimum value for these history buffers boatValue->value = std::numeric_limits<double>::max(); // mark current value invalid
twdHstryMax = 2 * M_PI; // Max value for wind direction (TWD, AWD) in rad [0...2*PI]
twsHstryMax = 65; // Max value for wind speed (TWS, AWS) in m/s [0..65] (limit due to type capacity of buffer - shifted by <mltplr>)
awdHstryMax = twdHstryMax;
awsHstryMax = twsHstryMax;
twdHstryMin = hstryMinVal;
twsHstryMin = hstryMinVal;
awdHstryMin = hstryMinVal;
awsHstryMin = hstryMinVal;
const double DBL_MAX = std::numeric_limits<double>::max();
// Initialize history buffers with meta data
mltplr = 10000; // Store 4 decimals for course data
hstryBufList.twdHstry->setMetaData("TWD", "formatCourse", hstryUpdFreq, mltplr, hstryMinVal, twdHstryMax);
hstryBufList.awdHstry->setMetaData("AWD", "formatCourse", hstryUpdFreq, mltplr, hstryMinVal, twdHstryMax);
mltplr = 1000; // Store 3 decimals for windspeed data
hstryBufList.twsHstry->setMetaData("TWS", "formatKnots", hstryUpdFreq, mltplr, hstryMinVal, twsHstryMax);
hstryBufList.awsHstry->setMetaData("AWS", "formatKnots", hstryUpdFreq, mltplr, hstryMinVal, twsHstryMax);
// create boat values for history data types, if they don't exist yet
twdBVal = boatValues->findValueOrCreate(hstryBufList.twdHstry->getName());
twsBVal = boatValues->findValueOrCreate(hstryBufList.twsHstry->getName());
twaBVal = boatValues->findValueOrCreate("TWA");
awdBVal = boatValues->findValueOrCreate(hstryBufList.awdHstry->getName());
awsBVal = boatValues->findValueOrCreate(hstryBufList.awsHstry->getName());
if (!awdBVal->valid) { // AWD usually does not exist
awdBVal->setFormat(hstryBufList.awdHstry->getFormat());
awdBVal->value = DBL_MAX;
} }
}
void HstryBuf::add(double value)
{
if (value >= hstryMin && value <= hstryMax) {
hstryBuf.add(value);
LOG_DEBUG(GwLog::DEBUG, "HstryBuf::add: name: %s, value: %.3f", hstryBuf.getName(), value);
}
}
void HstryBuf::handle(bool useSimuData, CommonData& common)
{
// GwApi::BoatValue* tmpBVal;
std::unique_ptr<GwApi::BoatValue> tmpBVal; // Temp variable to get formatted and converted data value from OBP60Formatter
// create temporary boat value for calibration purposes and retrieval of simulation value
// tmpBVal = new GwApi::BoatValue(boatDataName.c_str());
tmpBVal = std::unique_ptr<GwApi::BoatValue>(new GwApi::BoatValue(boatDataName));
tmpBVal->setFormat(boatValue->getFormat());
tmpBVal->value = boatValue->value;
tmpBVal->valid = boatValue->valid;
if (boatValue->valid) {
// Calibrate boat value before adding it to history buffer
calibrationData.calibrateInstance(tmpBVal.get(), logger);
add(tmpBVal->value);
} else if (useSimuData) { // add simulated value to history buffer
double simValue = formatValue(tmpBVal.get(), common).value; // simulated value is generated at <formatValue>
add(simValue);
}
}
// --- End Class HstryBuf ---------------
// --- Class HstryBuffers ---------------
HstryBuffers::HstryBuffers(int size, BoatValueList* boatValues, GwLog* log)
: size(size)
, boatValueList(boatValues)
, logger(log)
{
// collect boat values for true wind calculation // collect boat values for true wind calculation
awaBVal = boatValues->findValueOrCreate("AWA"); // should all have been already created at true wind object initialization
hdtBVal = boatValues->findValueOrCreate("HDT"); // potentially to be moved to history buffer handling
hdmBVal = boatValues->findValueOrCreate("HDM"); awaBVal = boatValueList->findValueOrCreate("AWA");
varBVal = boatValues->findValueOrCreate("VAR"); hdtBVal = boatValueList->findValueOrCreate("HDT");
cogBVal = boatValues->findValueOrCreate("COG"); hdmBVal = boatValueList->findValueOrCreate("HDM");
sogBVal = boatValues->findValueOrCreate("SOG"); varBVal = boatValueList->findValueOrCreate("VAR");
cogBVal = boatValueList->findValueOrCreate("COG");
sogBVal = boatValueList->findValueOrCreate("SOG");
awdBVal = boatValueList->findValueOrCreate("AWD");
} }
// Handle history buffers for TWD, TWS, AWD, AWS // Create history buffer for boat data type
//void HstryBuf::handleHstryBuf(GwApi* api, BoatValueList* boatValues, bool useSimuData) { void HstryBuffers::addBuffer(const String& name)
void HstryBuf::handleHstryBuf(bool useSimuData) { {
if (HstryBuffers::getBuffer(name) != nullptr) { // buffer for this data type already exists
static double twd, tws, awd, aws, hdt = 20; //initial value only relevant if we use simulation data return;
GwApi::BoatValue *calBVal; // temp variable just for data calibration -> we don't want to calibrate the original data here }
if (bufferParams.find(name) == bufferParams.end()) { // requested boat data type is not supported in list of <bufferParams>
LOG_DEBUG(GwLog::DEBUG,"obp60task handleHstryBuf: TWD_isValid? %d, twdBVal: %.1f, twaBVal: %.1f, twsBVal: %.1f", twdBVal->valid, twdBVal->value * RAD_TO_DEG, return;
twaBVal->value * RAD_TO_DEG, twsBVal->value * 3.6 / 1.852);
if (twdBVal->valid) {
// if (!useSimuData) {
calBVal = new GwApi::BoatValue("TWD"); // temporary solution for calibration of history buffer values
calBVal->setFormat(twdBVal->getFormat());
calBVal->value = twdBVal->value;
calBVal->valid = twdBVal->valid;
calibrationData.calibrateInstance(calBVal, logger); // Check if boat data value is to be calibrated
twd = calBVal->value;
if (twd >= twdHstryMin && twd <= twdHstryMax) {
hstryBufList.twdHstry->add(twd);
LOG_DEBUG(GwLog::DEBUG,"obp60task handleHstryBuf: calBVal.value %.2f, twd: %.2f, twdHstryMin: %.1f, twdHstryMax: %.2f", calBVal->value, twd, twdHstryMin, twdHstryMax);
}
delete calBVal;
calBVal = nullptr;
} else if (useSimuData) {
// } else {
twd += random(-20, 20);
twd += static_cast<double>(random(-349, 349) / 1000.0); // add up to +/- 20 degree in RAD
twd = WindUtils::to2PI(twd);
hstryBufList.twdHstry->add(twd);
} }
if (twsBVal->valid) { hstryBuffers[name] = std::unique_ptr<HstryBuf>(new HstryBuf(name, size, boatValueList, logger));
calBVal = new GwApi::BoatValue("TWS"); // temporary solution for calibration of history buffer values
calBVal->setFormat(twsBVal->getFormat());
calBVal->value = twsBVal->value;
calBVal->valid = twsBVal->valid;
calibrationData.calibrateInstance(calBVal, logger); // Check if boat data value is to be calibrated
tws = calBVal->value;
if (tws >= twsHstryMin && tws <= twsHstryMax) {
hstryBufList.twsHstry->add(tws);
}
delete calBVal;
calBVal = nullptr;
} else if (useSimuData) {
// tws += random(-5000, 5000); // TWS value in m/s; expands to 3 decimals
tws += static_cast<double>(random(-5000, 5000) / 1000.0); // add up to +/- 5 m/s TWS speed
tws = constrain(tws, 0, 40); // Limit TWS to [0..40] m/s
hstryBufList.twsHstry->add(tws);
}
if (awaBVal->valid) { // Initialize metadata for buffer
if (hdtBVal->valid) { String valueFormat = bufferParams[name].format; // Data format of boat data type
hdt = hdtBVal->value; // Use HDT if available // String valueFormat = boatValueList->findValueOrCreate(name)->getFormat().c_str(); // Unfortunately, format is not yet available during system initialization
} else { int hstryUpdFreq = bufferParams[name].hstryUpdFreq; // Update frequency for history buffers in ms
hdt = WindUtils::calcHDT(&hdmBVal->value, &varBVal->value, &cogBVal->value, &sogBVal->value); int mltplr = bufferParams[name].mltplr; // default multiplier which transforms original <double> value into buffer type format
} double bufferMinVal = bufferParams[name].bufferMinVal; // Min value for this history buffer
double bufferMaxVal = bufferParams[name].bufferMaxVal; // Max value for this history buffer
awd = awaBVal->value + hdt; hstryBuffers[name]->init(valueFormat, hstryUpdFreq, mltplr, bufferMinVal, bufferMaxVal);
awd = WindUtils::to2PI(awd); LOG_DEBUG(GwLog::DEBUG, "HstryBuffers: new buffer added: name: %s, format: %s, multiplier: %d, min value: %.2f, max value: %.2f", name, valueFormat, mltplr, bufferMinVal, bufferMaxVal);
calBVal = new GwApi::BoatValue("AWD"); // temporary solution for calibration of history buffer values
calBVal->value = awd;
calBVal->setFormat(awdBVal->getFormat());
calBVal->valid = true;
calibrationData.calibrateInstance(calBVal, logger); // Check if boat data value is to be calibrated
awdBVal->value = calBVal->value;
awdBVal->valid = true;
awd = calBVal->value;
if (awd >= awdHstryMin && awd <= awdHstryMax) {
hstryBufList.awdHstry->add(awd);
}
delete calBVal;
calBVal = nullptr;
} else if (useSimuData) {
awd += static_cast<double>(random(-349, 349) / 1000.0); // add up to +/- 20 degree in RAD
awd = WindUtils::to2PI(awd);
hstryBufList.awdHstry->add(awd);
}
if (awsBVal->valid) {
calBVal = new GwApi::BoatValue("AWS"); // temporary solution for calibration of history buffer values
calBVal->setFormat(awsBVal->getFormat());
calBVal->value = awsBVal->value;
calBVal->valid = awsBVal->valid;
calibrationData.calibrateInstance(calBVal, logger); // Check if boat data value is to be calibrated
aws = calBVal->value;
if (aws >= awsHstryMin && aws <= awsHstryMax) {
hstryBufList.awsHstry->add(aws);
}
delete calBVal;
calBVal = nullptr;
} else if (useSimuData) {
aws += static_cast<double>(random(-5000, 5000) / 1000.0); // add up to +/- 5 m/s TWS speed
aws = constrain(aws, 0, 40); // Limit TWS to [0..40] m/s
hstryBufList.awsHstry->add(aws);
}
LOG_DEBUG(GwLog::DEBUG,"obp60task handleHstryBuf-End: Buffer twdHstry: %.3f, twsHstry: %.3f, awdHstry: %.3f, awsHstry: %.3f", hstryBufList.twdHstry->getLast(), hstryBufList.twsHstry->getLast(),
hstryBufList.awdHstry->getLast(),hstryBufList.awsHstry->getLast());
} }
// --- Class HstryBuf ---------------
// Handle all registered history buffers
void HstryBuffers::handleHstryBufs(bool useSimuData, CommonData& common)
{
for (auto& bufMap : hstryBuffers) {
auto& buf = bufMap.second;
buf->handle(useSimuData, common);
}
}
RingBuffer<uint16_t>* HstryBuffers::getBuffer(const String& name)
{
auto it = hstryBuffers.find(name);
if (it != hstryBuffers.end()) {
return &it->second->hstryBuf;
}
return nullptr;
}
// --- End Class HstryBuffers ---------------
// --- Class WindUtils -------------- // --- Class WindUtils --------------
double WindUtils::to2PI(double a) double WindUtils::to2PI(double a)
@@ -216,14 +179,14 @@ void WindUtils::addPolar(const double* phi1, const double* r1,
void WindUtils::calcTwdSA(const double* AWA, const double* AWS, void WindUtils::calcTwdSA(const double* AWA, const double* AWS,
const double* CTW, const double* STW, const double* HDT, const double* CTW, const double* STW, const double* HDT,
double* TWD, double* TWS, double* TWA) double* TWD, double* TWS, double* TWA, double* AWD)
{ {
double awd = *AWA + *HDT; *AWD = *AWA + *HDT;
awd = to2PI(awd); *AWD = to2PI(*AWD);
double stw = -*STW; double stw = -*STW;
addPolar(&awd, AWS, CTW, &stw, TWD, TWS); addPolar(AWD, AWS, CTW, &stw, TWD, TWS);
// Normalize TWD and TWA to 0-360° // Normalize TWD and TWA to 0-360°/2PI
*TWD = to2PI(*TWD); *TWD = to2PI(*TWD);
*TWA = toPI(*TWD - *HDT); *TWA = toPI(*TWD - *HDT);
} }
@@ -245,12 +208,12 @@ double WindUtils::calcHDT(const double* hdmVal, const double* varVal, const doub
return hdt; return hdt;
} }
bool WindUtils::calcTrueWind(const double* awaVal, const double* awsVal, bool WindUtils::calcWinds(const double* awaVal, const double* awsVal,
const double* cogVal, const double* stwVal, const double* sogVal, const double* hdtVal, const double* cogVal, const double* stwVal, const double* sogVal, const double* hdtVal,
const double* hdmVal, const double* varVal, double* twdVal, double* twsVal, double* twaVal) const double* hdmVal, const double* varVal, double* twdVal, double* twsVal, double* twaVal, double* awdVal)
{ {
double stw, hdt, ctw; double stw, hdt, ctw;
double twd, tws, twa; double twd, tws, twa, awd;
double minSogVal = 0.1; // SOG below this value (m/s) is assumed to be data noise from GPS sensor double minSogVal = 0.1; // SOG below this value (m/s) is assumed to be data noise from GPS sensor
if (*hdtVal != DBL_MAX) { if (*hdtVal != DBL_MAX) {
@@ -274,60 +237,80 @@ bool WindUtils::calcTrueWind(const double* awaVal, const double* awsVal,
// If STW and SOG are not available, we cannot calculate true wind // If STW and SOG are not available, we cannot calculate true wind
return false; return false;
} }
// Serial.println("\ncalcTrueWind: HDT: " + String(hdt) + ", CTW: " + String(ctw) + ", STW: " + String(stw)); // LOG_DEBUG(GwLog::DEBUG, "WindUtils:calcWinds: HDT: %.1f, CTW %.1f, STW %.1f", hdt, ctw, stw);
if ((*awaVal == DBL_MAX) || (*awsVal == DBL_MAX)) { if ((*awaVal == DBL_MAX) || (*awsVal == DBL_MAX)) {
// Cannot calculate true wind without valid AWA, AWS; other checks are done earlier // Cannot calculate true wind without valid AWA, AWS; other checks are done earlier
return false; return false;
} else { } else {
calcTwdSA(awaVal, awsVal, &ctw, &stw, &hdt, &twd, &tws, &twa); calcTwdSA(awaVal, awsVal, &ctw, &stw, &hdt, &twd, &tws, &twa, &awd);
*twdVal = twd; *twdVal = twd;
*twsVal = tws; *twsVal = tws;
*twaVal = twa; *twaVal = twa;
*awdVal = awd;
return true; return true;
} }
} }
// Calculate true wind data and add to obp60task boat data list // Calculate true wind data and add to obp60task boat data list
bool WindUtils::addTrueWind(GwApi* api, BoatValueList* boatValues, GwLog* log) { bool WindUtils::addWinds()
{
double twd, tws, twa, awd, hdt;
bool twCalculated = false;
bool awdCalculated = false;
GwLog* logger = log; double awaVal = awaBVal->valid ? awaBVal->value : DBL_MAX;
double awsVal = awsBVal->valid ? awsBVal->value : DBL_MAX;
double cogVal = cogBVal->valid ? cogBVal->value : DBL_MAX;
double stwVal = stwBVal->valid ? stwBVal->value : DBL_MAX;
double sogVal = sogBVal->valid ? sogBVal->value : DBL_MAX;
double hdtVal = hdtBVal->valid ? hdtBVal->value : DBL_MAX;
double hdmVal = hdmBVal->valid ? hdmBVal->value : DBL_MAX;
double varVal = varBVal->valid ? varBVal->value : DBL_MAX;
LOG_DEBUG(GwLog::DEBUG, "WindUtils:addWinds: AWA %.1f, AWS %.1f, COG %.1f, STW %.1f, SOG %.2f, HDT %.1f, HDM %.1f, VAR %.1f", awaBVal->value * RAD_TO_DEG, awsBVal->value * 3.6 / 1.852,
cogBVal->value * RAD_TO_DEG, stwBVal->value * 3.6 / 1.852, sogBVal->value * 3.6 / 1.852, hdtBVal->value * RAD_TO_DEG, hdmBVal->value * RAD_TO_DEG, varBVal->value * RAD_TO_DEG);
double awaVal, awsVal, cogVal, stwVal, sogVal, hdtVal, hdmVal, varVal; // Check if TWD can be calculated from TWA and HDT/HDM
double twd, tws, twa; if (twaBVal->valid) {
bool isCalculated = false;
awaVal = awaBVal->valid ? awaBVal->value : DBL_MAX;
awsVal = awsBVal->valid ? awsBVal->value : DBL_MAX;
cogVal = cogBVal->valid ? cogBVal->value : DBL_MAX;
stwVal = stwBVal->valid ? stwBVal->value : DBL_MAX;
sogVal = sogBVal->valid ? sogBVal->value : DBL_MAX;
hdtVal = hdtBVal->valid ? hdtBVal->value : DBL_MAX;
hdmVal = hdmBVal->valid ? hdmBVal->value : DBL_MAX;
varVal = varBVal->valid ? varBVal->value : DBL_MAX;
LOG_DEBUG(GwLog::DEBUG,"obp60task addTrueWind: AWA %.1f, AWS %.1f, COG %.1f, STW %.1f, SOG %.2f, HDT %.1f, HDM %.1f, VAR %.1f", awaBVal->value * RAD_TO_DEG, awsBVal->value * 3.6 / 1.852,
cogBVal->value * RAD_TO_DEG, stwBVal->value * 3.6 / 1.852, sogBVal->value * 3.6 / 1.852, hdtBVal->value * RAD_TO_DEG, hdmBVal->value * RAD_TO_DEG, varBVal->value * RAD_TO_DEG);
isCalculated = calcTrueWind(&awaVal, &awsVal, &cogVal, &stwVal, &sogVal, &hdtVal, &hdmVal, &varVal, &twd, &tws, &twa);
if (isCalculated) { // Replace values only, if successfully calculated and not already available
if (!twdBVal->valid) { if (!twdBVal->valid) {
if (hdtVal != DBL_MAX) {
hdt = hdtVal; // Use HDT if available
} else {
hdt = calcHDT(&hdmVal, &varVal, &cogVal, &sogVal);
}
twd = twaBVal->value + hdt;
twd = to2PI(twd);
twdBVal->value = twd; twdBVal->value = twd;
twdBVal->valid = true; twdBVal->valid = true;
} }
if (!twsBVal->valid) {
twsBVal->value = tws; } else {
twsBVal->valid = true; // Calculate true winds and AWD; if true winds exist, use at least AWD calculation
} twCalculated = calcWinds(&awaVal, &awsVal, &cogVal, &stwVal, &sogVal, &hdtVal, &hdmVal, &varVal, &twd, &tws, &twa, &awd);
if (!twaBVal->valid) {
twaBVal->value = twa; if (twCalculated) { // Replace values only, if successfully calculated and not already available
twaBVal->valid = true; if (!twdBVal->valid) {
twdBVal->value = twd;
twdBVal->valid = true;
}
if (!twsBVal->valid) {
twsBVal->value = tws;
twsBVal->valid = true;
}
if (!twaBVal->valid) {
twaBVal->value = twa;
twaBVal->valid = true;
}
if (!awdBVal->valid) {
awdBVal->value = awd;
awdBVal->valid = true;
}
} }
} }
LOG_DEBUG(GwLog::DEBUG,"obp60task addTrueWind: isCalculated %d, TWD %.1f, TWA %.1f, TWS %.1f", isCalculated, twdBVal->value * RAD_TO_DEG, LOG_DEBUG(GwLog::DEBUG, "WindUtils:addWinds: twCalculated %d, TWD %.1f, TWA %.1f, TWS %.2f kn, AWD: %.1f", twCalculated, twdBVal->value * RAD_TO_DEG,
twaBVal->value * RAD_TO_DEG, twsBVal->value * 3.6 / 1.852); twaBVal->value * RAD_TO_DEG, twsBVal->value * 3.6 / 1.852, awdBVal->value * RAD_TO_DEG);
return isCalculated; return twCalculated;
} }
// --- Class WindUtils -------------- // --- End Class WindUtils --------------

112
lib/obp60task/OBPDataOperations.h
View File

@@ -1,67 +1,89 @@
// Function lib for history buffer handling, true wind calculation, and other operations on boat data // Function lib for history buffer handling, true wind calculation, and other operations on boat data
#pragma once #pragma once
#include "OBPRingBuffer.h" #include "OBPRingBuffer.h"
#include "Pagedata.h"
#include "obp60task.h" #include "obp60task.h"
#include <map>
typedef struct {
RingBuffer<uint16_t>* twdHstry;
RingBuffer<uint16_t>* twsHstry;
RingBuffer<uint16_t>* awdHstry;
RingBuffer<uint16_t>* awsHstry;
} tBoatHstryData; // Holds pointers to all history buffers for boat data
class HstryBuf { class HstryBuf {
private: private:
GwLog *logger; RingBuffer<uint16_t> hstryBuf; // Circular buffer to store history values
String boatDataName;
double hstryMin;
double hstryMax;
GwApi::BoatValue* boatValue;
GwLog* logger;
RingBuffer<uint16_t> twdHstry; // Circular buffer to store true wind direction values friend class HstryBuffers;
RingBuffer<uint16_t> twsHstry; // Circular buffer to store true wind speed values (TWS)
RingBuffer<uint16_t> awdHstry; // Circular buffer to store apparent wind direction values
RingBuffer<uint16_t> awsHstry; // Circular buffer to store apparent xwind speed values (AWS)
double twdHstryMin; // Min value for wind direction (TWD) in history buffer
double twdHstryMax; // Max value for wind direction (TWD) in history buffer
double twsHstryMin;
double twsHstryMax;
double awdHstryMin;
double awdHstryMax;
double awsHstryMin;
double awsHstryMax;
// boat values for buffers and for true wind calculation
GwApi::BoatValue *twdBVal, *twsBVal, *twaBVal, *awdBVal, *awsBVal;
GwApi::BoatValue *awaBVal, *hdtBVal, *hdmBVal, *varBVal, *cogBVal, *sogBVal;
public: public:
tBoatHstryData hstryBufList; HstryBuf(const String& name, int size, BoatValueList* boatValues, GwLog* log);
void init(const String& format, int updFreq, int mltplr, double minVal, double maxVal);
void add(double value);
void handle(bool useSimuData, CommonData& common);
};
HstryBuf(){ class HstryBuffers {
hstryBufList = {&twdHstry, &twsHstry, &awdHstry, &awsHstry}; // Generate history buffers of zero size private:
std::map<String, std::unique_ptr<HstryBuf>> hstryBuffers;
int size; // size of all history buffers
BoatValueList* boatValueList;
GwLog* logger;
GwApi::BoatValue *awaBVal, *hdtBVal, *hdmBVal, *varBVal, *cogBVal, *sogBVal, *awdBVal; // boat values for true wind calculation
struct HistoryParams {
int hstryUpdFreq; // update frequency of history buffer (documentation only)
int mltplr; // specifies actual value precision being storable:
// [10000: 0 - 6.5535 | 1000: 0 - 65.535 | 100: 0 - 650.35 | 10: 0 - 6503.5
double bufferMinVal; // minimum valid data value
double bufferMaxVal; // maximum valid data value
String format; // format of data type
}; };
HstryBuf(int size) { // Define buffer parameters for supported boat data type
hstryBufList = {&twdHstry, &twsHstry, &awdHstry, &awsHstry}; std::map<String, HistoryParams> bufferParams = {
hstryBufList.twdHstry->resize(size); // store <size> xWD values for <size>/60 minutes history { "AWA", { 1000, 10000, 0.0, M_TWOPI, "formatWind" } },
hstryBufList.twsHstry->resize(size); { "AWD", { 1000, 10000, 0.0, M_TWOPI, "formatCourse" } },
hstryBufList.awdHstry->resize(size); { "AWS", { 1000, 1000, 0.0, 65.0, "formatKnots" } },
hstryBufList.awsHstry->resize(size); { "COG", { 1000, 10000, 0.0, M_TWOPI, "formatCourse" } },
{ "DBS", { 1000, 100, 0.0, 650.0, "formatDepth" } },
{ "DBT", { 1000, 100, 0.0, 650.0, "formatDepth" } },
{ "DPT", { 1000, 100, 0.0, 650.0, "formatDepth" } },
{ "HDM", { 1000, 10000, 0.0, M_TWOPI, "formatCourse" } },
{ "HDT", { 1000, 10000, 0.0, M_TWOPI, "formatCourse" } },
{ "ROT", { 1000, 10000, -M_PI / 180.0 * 99.0, M_PI / 180.0 * 99.0, "formatRot" } }, // min/max is -/+ 99 degrees for "rate of turn"
{ "SOG", { 1000, 1000, 0.0, 65.0, "formatKnots" } },
{ "STW", { 1000, 1000, 0.0, 65.0, "formatKnots" } },
{ "TWA", { 1000, 10000, 0.0, M_TWOPI, "formatWind" } },
{ "TWD", { 1000, 10000, 0.0, M_TWOPI, "formatCourse" } },
{ "TWS", { 1000, 1000, 0.0, 65.0, "formatKnots" } },
{ "WTemp", { 1000, 100, 233.0, 650.0, "kelvinToC" } } // [-50..376] °C
}; };
void init(BoatValueList* boatValues, GwLog *log);
void handleHstryBuf(bool useSimuData); public:
HstryBuffers(int size, BoatValueList* boatValues, GwLog* log);
void addBuffer(const String& name);
void handleHstryBufs(bool useSimuData, CommonData& common);
RingBuffer<uint16_t>* getBuffer(const String& name);
}; };
class WindUtils { class WindUtils {
private: private:
GwApi::BoatValue *twdBVal, *twsBVal, *twaBVal; GwApi::BoatValue *twaBVal, *twsBVal, *twdBVal;
GwApi::BoatValue *awaBVal, *awsBVal, *cogBVal, *stwBVal, *sogBVal, *hdtBVal, *hdmBVal, *varBVal; GwApi::BoatValue *awaBVal, *awsBVal, *awdBVal, *cogBVal, *stwBVal, *sogBVal, *hdtBVal, *hdmBVal, *varBVal;
static constexpr double DBL_MAX = std::numeric_limits<double>::max(); static constexpr double DBL_MAX = std::numeric_limits<double>::max();
GwLog* logger;
public: public:
WindUtils(BoatValueList* boatValues){ WindUtils(BoatValueList* boatValues, GwLog* log)
twdBVal = boatValues->findValueOrCreate("TWD"); : logger(log)
twsBVal = boatValues->findValueOrCreate("TWS"); {
twaBVal = boatValues->findValueOrCreate("TWA"); twaBVal = boatValues->findValueOrCreate("TWA");
twsBVal = boatValues->findValueOrCreate("TWS");
twdBVal = boatValues->findValueOrCreate("TWD");
awaBVal = boatValues->findValueOrCreate("AWA"); awaBVal = boatValues->findValueOrCreate("AWA");
awsBVal = boatValues->findValueOrCreate("AWS"); awsBVal = boatValues->findValueOrCreate("AWS");
awdBVal = boatValues->findValueOrCreate("AWD");
cogBVal = boatValues->findValueOrCreate("COG"); cogBVal = boatValues->findValueOrCreate("COG");
stwBVal = boatValues->findValueOrCreate("STW"); stwBVal = boatValues->findValueOrCreate("STW");
sogBVal = boatValues->findValueOrCreate("SOG"); sogBVal = boatValues->findValueOrCreate("SOG");
@@ -81,10 +103,10 @@ public:
double* phi, double* r); double* phi, double* r);
void calcTwdSA(const double* AWA, const double* AWS, void calcTwdSA(const double* AWA, const double* AWS,
const double* CTW, const double* STW, const double* HDT, const double* CTW, const double* STW, const double* HDT,
double* TWD, double* TWS, double* TWA); double* TWD, double* TWS, double* TWA, double* AWD);
static double calcHDT(const double* hdmVal, const double* varVal, const double* cogVal, const double* sogVal); static double calcHDT(const double* hdmVal, const double* varVal, const double* cogVal, const double* sogVal);
bool calcTrueWind(const double* awaVal, const double* awsVal, bool calcWinds(const double* awaVal, const double* awsVal,
const double* cogVal, const double* stwVal, const double* sogVal, const double* hdtVal, const double* cogVal, const double* stwVal, const double* sogVal, const double* hdtVal,
const double* hdmVal, const double* varVal, double* twdVal, double* twsVal, double* twaVal); const double* hdmVal, const double* varVal, double* twdVal, double* twsVal, double* twaVal, double* awdVal);
bool addTrueWind(GwApi* api, BoatValueList* boatValues, GwLog *log); bool addWinds();
}; };

1134
lib/obp60task/OBPcharts.cpp
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98
lib/obp60task/OBPcharts.h
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@@ -1,47 +1,75 @@
// Function lib for display of boat data in various graphical chart formats // Function lib for display of boat data in various graphical chart formats
#pragma once #pragma once
#include "Pagedata.h" #include "Pagedata.h"
#include "OBP60Extensions.h"
struct Pos { struct Pos {
int x; int x;
int y; int y;
}; };
template <typename T> class RingBuffer;
class GwLog; struct ChartProps {
double range;
double step;
};
template <typename T> template <typename T>
class RingBuffer;
class GwLog;
class Chart { class Chart {
protected: protected:
CommonData *commonData; CommonData* commonData;
GwLog *logger; GwLog* logger;
RingBuffer<T> &dataBuf; // Buffer to display enum ChrtDataFormat {
int8_t chrtDir; // Chart timeline direction: [0] = horizontal, [1] = vertical WIND,
int8_t chrtSz; // Chart size: [0] = full size, [1] = half size left/top, [2] half size right/bottom ROTATION,
SPEED,
DEPTH,
TEMPERATURE,
OTHER
};
static constexpr char HORIZONTAL = 'H';
static constexpr char VERTICAL = 'V';
static constexpr int8_t FULL_SIZE = 0;
static constexpr int8_t HALF_SIZE_LEFT = 1;
static constexpr int8_t HALF_SIZE_RIGHT = 2;
static constexpr int8_t MIN_FREE_VALUES = 60; // free 60 values when chart line reaches chart end
static constexpr int8_t THRESHOLD_NO_DATA = 3; // max. seconds of invalid values in a row
static constexpr int8_t VALAXIS_STEP = 60; // pixels between two chart value axis labels
static constexpr bool NO_SIMUDATA = true; // switch off simulation feature of <formatValue> function
RingBuffer<uint16_t>& dataBuf; // Buffer to display
//char chrtDir; // Chart timeline direction: 'H' = horizontal, 'V' = vertical
//int8_t chrtSz; // Chart size: [0] = full size, [1] = half size left/top, [2] half size right/bottom
double dfltRng; // Default range of chart, e.g. 30 = [0..30] double dfltRng; // Default range of chart, e.g. 30 = [0..30]
uint16_t fgColor; // color code for any screen writing uint16_t fgColor; // color code for any screen writing
uint16_t bgColor; // color code for screen background uint16_t bgColor; // color code for screen background
bool useSimuData; // flag to indicate if simulation data is active bool useSimuData; // flag to indicate if simulation data is active
String tempFormat; // user defined format for temperature
double zeroValue; // "0" SI value for temperature
int top = 48; // display top header lines
int bottom = 22; // display bottom lines
int hGap = 11; // gap between 2 horizontal charts; actual gap is 2x <gap>
int vGap = 20; // gap between 2 vertical charts; actual gap is 2x <gap>
int xOffset = 33; // offset for horizontal axis (time/value), because of space for left vertical axis labeling
int yOffset = 10; // offset for vertical axis (time/value), because of space for top horizontal axis labeling
int dWidth; // Display width int dWidth; // Display width
int dHeight; // Display height int dHeight; // Display height
int top = 44; // chart gap at top of display (25 lines for standard gap + 19 lines for axis labels)
int bottom = 25; // chart gap at bottom of display to keep space for status line
int hGap = 11; // gap between 2 horizontal charts; actual gap is 2x <gap>
int vGap = 17; // gap between 2 vertical charts; actual gap is 2x <gap>
int timAxis, valAxis; // size of time and value chart axis int timAxis, valAxis; // size of time and value chart axis
Pos cStart; // start point of chart area Pos cRoot; // start point of chart area
double chrtRng; // Range of buffer values from min to max value double chrtRng; // Range of buffer values from min to max value
double chrtMin; // Range low end value double chrtMin; // Range low end value
double chrtMax; // Range high end value double chrtMax; // Range high end value
double chrtMid; // Range mid value double chrtMid; // Range mid value
double rngStep; // Defines the step of adjustment (e.g. 10 m/s) for value axis range double rngStep; // Defines the step of adjustment (e.g. 10 m/s) for value axis range
bool recalcRngCntr = false; // Flag for re-calculation of mid value of chart for wind data types bool recalcRngMid = false; // Flag for re-calculation of mid value of chart for wind data types
String dbName, dbFormat; // Name and format of data buffer String dbName, dbFormat; // Name and format of data buffer
int chrtDataFmt; // Data format of chart: [0] size values; [1] degree of course or wind; [2] rotational degrees ChrtDataFormat chrtDataFmt; // Data format of chart boat data type
double dbMIN_VAL; // Lowest possible value of buffer of type <T> double dbMIN_VAL; // Lowest possible value of buffer of type <T>
double dbMAX_VAL; // Highest possible value of buffer of type <T>; indicates invalid value in buffer double dbMAX_VAL; // Highest possible value of buffer of type <T>; indicates invalid value in buffer
size_t bufSize; // History buffer size: 1.920 values for 32 min. history chart size_t bufSize; // History buffer size: 1.920 values for 32 min. history chart
@@ -52,19 +80,37 @@ protected:
size_t currIdx; // Current index in TWD history buffer size_t currIdx; // Current index in TWD history buffer
size_t lastIdx; // Last index of TWD history buffer size_t lastIdx; // Last index of TWD history buffer
size_t lastAddedIdx = 0; // Last index of TWD history buffer when new data was added size_t lastAddedIdx = 0; // Last index of TWD history buffer when new data was added
int numNoData; // Counter for multiple invalid data values in a row
bool bufDataValid = false; // Flag to indicate if buffer data is valid bool bufDataValid = false; // Flag to indicate if buffer data is valid
int oldChrtIntv = 0; // remember recent user selection of data interval int oldChrtIntv = 0; // remember recent user selection of data interval
void drawChrt(int8_t chrtIntv, GwApi::BoatValue& currValue); // Draw chart line double chrtPrevVal; // Last data value in chart area
double getRng(double center, size_t amount); // Calculate range between chart center and edges int x, y; // x and y coordinates for drawing
void calcChrtBorders(double& rngMid, double& rngMin, double& rngMax, double& rng); // Calculate chart points for value axis and return range between <min> and <max> int prevX, prevY; // Last x and y coordinates for drawing
void drawChrtTimeAxis(int8_t chrtIntv); // Draw time axis of chart, value and lines
void drawChrtValAxis(); // Draw value axis of chart, value and lines bool setChartDimensions(const char direction, const int8_t size); //define dimensions and start points for chart
void prntCurrValue(GwApi::BoatValue& currValue); // Add current boat data value to chart void drawChrt(const char chrtDir, const int8_t chrtIntv, GwApi::BoatValue& currValue); // Draw chart line
void getBufferStartNSize(const int8_t chrtIntv); // Identify buffer size and buffer start position for chart
void calcChrtBorders(double& rngMin, double& rngMid, double& rngMax, double& rng); // Calculate chart points for value axis and return range between <min> and <max>
void drawChartLines(const char direction, const int8_t chrtIntv, const double chrtScale); // Draw chart graph
Pos setCurrentChartPoint(const int i, const char direction, const double chrtVal, const double chrtScale); // Set current chart point to draw
void drawChrtTimeAxis(const char chrtDir, const int8_t chrtSz, const int8_t chrtIntv); // Draw time axis of chart, value and lines
void drawChrtValAxis(const char chrtDir, const int8_t chrtSz, bool prntLabel); // Draw value axis of chart, value and lines
void prntCurrValue(const char chrtDir, GwApi::BoatValue& currValue); // Add current boat data value to chart
void prntNoValidData(const char chrtDir); // print message for no valid data available
double getAngleRng(const double center, size_t amount); // Calculate range between chart center and edges
void prntVerticChartThreeValueAxisLabel(const GFXfont* font); // print value axis label with only three values: top, mid, and bottom for vertical chart
void prntHorizChartThreeValueAxisLabel(const GFXfont* font); // print value axis label with only three values: top, mid, and bottom for horizontal chart
void prntHorizChartMultiValueAxisLabel(const GFXfont* font); // print value axis label with multiple axis lines for horizontal chart
void drawBoldLine(const int16_t x1, const int16_t y1, const int16_t x2, const int16_t y2); // Draw chart line with thickness of 2px
String convNformatLabel(const double& label); // Convert and format current axis label to user defined format; helper function for easier handling of OBP60Formatter
String formatLabel(const double& label); // Format current axis label for printing w/o data format conversion (has been done earlier)
public: public:
Chart(RingBuffer<T>& dataBuf, int8_t chrtDir, int8_t chrtSz, double dfltRng, CommonData& common, bool useSimuData); // Chart object of data chart // Define default chart range and range step for each boat data type
~Chart(); static std::map<String, ChartProps> dfltChrtDta;
void showChrt(int8_t chrtIntv, GwApi::BoatValue currValue); // Perform all actions to draw chart
}; Chart(RingBuffer<uint16_t>& dataBuf, double dfltRng, CommonData& common, bool useSimuData); // Chart object of data chart
~Chart();
void showChrt(char chrtDir, int8_t chrtSz, const int8_t chrtIntv, bool prntName, bool showCurrValue, GwApi::BoatValue currValue); // Perform all actions to draw chart
};

360
lib/obp60task/PageOneValue.cpp
View File

@@ -3,112 +3,300 @@
#include "Pagedata.h" #include "Pagedata.h"
#include "OBP60Extensions.h" #include "OBP60Extensions.h"
#include "BoatDataCalibration.h" #include "BoatDataCalibration.h"
#include "OBPDataOperations.h"
#include "OBPcharts.h"
class PageOneValue : public Page class PageOneValue : public Page {
{ private:
public: GwLog* logger;
PageOneValue(CommonData &common){
commonData = &common; enum PageMode {
common.logger->logDebug(GwLog::LOG,"Instantiate PageOneValue"); VALUE,
BOTH,
CHART
};
enum DisplayMode {
FULL,
HALF
};
static constexpr char HORIZONTAL = 'H';
static constexpr char VERTICAL = 'V';
static constexpr int8_t FULL_SIZE = 0;
static constexpr int8_t HALF_SIZE_TOP = 1;
static constexpr int8_t HALF_SIZE_BOTTOM = 2;
static constexpr bool PRNT_NAME = true;
static constexpr bool NO_PRNT_NAME = false;
static constexpr bool PRNT_VALUE = true;
static constexpr bool NO_PRNT_VALUE = false;
int width; // Screen width
int height; // Screen height
bool keylock = false; // Keylock
PageMode pageMode = VALUE; // Page display mode
int8_t dataIntv = 1; // Update interval for wind history chart:
// (1)|(2)|(3)|(4)|(8) x 240 seconds for 4, 8, 12, 16, 32 min. history chart
// String lengthformat;
bool useSimuData;
bool holdValues;
String flashLED;
String backlightMode;
String tempFormat;
// Old values for hold function
String sValue1Old = "";
String unit1Old = "";
// Data buffer pointer (owned by HstryBuffers)
RingBuffer<uint16_t>* dataHstryBuf = nullptr;
std::unique_ptr<Chart> dataChart; // Chart object
// display data value in display <mode> [FULL|HALF]
void showData(GwApi::BoatValue* bValue1, DisplayMode mode)
{
int nameXoff, nameYoff, unitXoff, unitYoff, value1Xoff, value1Yoff;
const GFXfont *nameFnt, *unitFnt, *valueFnt1, *valueFnt2, *valueFnt3;
if (mode == FULL) { // full size data display
nameXoff = 0;
nameYoff = 0;
nameFnt = &Ubuntu_Bold32pt8b;
unitXoff = 0;
unitYoff = 0;
unitFnt = &Ubuntu_Bold20pt8b;
value1Xoff = 0;
value1Yoff = 0;
valueFnt1 = &Ubuntu_Bold20pt8b;
valueFnt2 = &Ubuntu_Bold32pt8b;
valueFnt3 = &DSEG7Classic_BoldItalic60pt7b;
} else { // half size data and chart display
nameXoff = -10;
nameYoff = -34;
nameFnt = &Ubuntu_Bold20pt8b;
unitXoff = -295;
unitYoff = -119;
unitFnt = &Ubuntu_Bold12pt8b;
valueFnt1 = &Ubuntu_Bold12pt8b;
value1Xoff = 153;
value1Yoff = -119;
valueFnt2 = &Ubuntu_Bold20pt8b;
valueFnt3 = &DSEG7Classic_BoldItalic42pt7b;
}
String name1 = xdrDelete(bValue1->getName()); // Value name
name1 = name1.substring(0, 6); // String length limit for value name
calibrationData.calibrateInstance(bValue1, logger); // Check if boat data value is to be calibrated
double value1 = bValue1->value; // Value as double in SI unit
bool valid1 = bValue1->valid; // Valid information
String sValue1 = formatValue(bValue1, *commonData).svalue; // Formatted value as string including unit conversion and switching decimal places
String unit1 = formatValue(bValue1, *commonData).unit; // Unit of value
// Show name
getdisplay().setTextColor(commonData->fgcolor);
getdisplay().setFont(nameFnt);
getdisplay().setCursor(20 + nameXoff, 100 + nameYoff);
getdisplay().print(name1); // name
// Show unit
getdisplay().setFont(unitFnt);
getdisplay().setCursor(305 + unitXoff, 240 + unitYoff);
if (holdValues) {
getdisplay().print(unit1Old); // name
} else {
getdisplay().print(unit1); // name
}
// Switch font depending on value format and adjust position
if (bValue1->getFormat() == "formatLatitude" || bValue1->getFormat() == "formatLongitude") {
getdisplay().setFont(valueFnt1);
getdisplay().setCursor(20 + value1Xoff, 180 + value1Yoff);
} else if (bValue1->getFormat() == "formatTime" || bValue1->getFormat() == "formatDate") {
getdisplay().setFont(valueFnt2);
getdisplay().setCursor(20 + value1Xoff, 200 + value1Yoff);
} else {
getdisplay().setFont(valueFnt3);
getdisplay().setCursor(20 + value1Xoff, 240 + value1Yoff);
}
// Show bus data
if (!holdValues || useSimuData) {
getdisplay().print(sValue1); // Real value as formated string
} else {
getdisplay().print(sValue1Old); // Old value as formated string
}
if (valid1 == true) {
sValue1Old = sValue1; // Save the old value
unit1Old = unit1; // Save the old unit
}
} }
virtual int handleKey(int key){ public:
// Code for keylock PageOneValue(CommonData& common)
if(key == 11){ {
commonData = &common;
logger = commonData->logger;
LOG_DEBUG(GwLog::LOG, "Instantiate PageOneValue");
width = getdisplay().width(); // Screen width
height = getdisplay().height(); // Screen height
// Get config data
// lengthformat = commonData->config->getString(commonData->config->lengthFormat);
useSimuData = commonData->config->getBool(commonData->config->useSimuData);
holdValues = commonData->config->getBool(commonData->config->holdvalues);
flashLED = commonData->config->getString(commonData->config->flashLED);
backlightMode = commonData->config->getString(commonData->config->backlight);
tempFormat = commonData->config->getString(commonData->config->tempFormat); // [K|°C|°F]
}
virtual void setupKeys()
{
Page::setupKeys();
#if defined BOARD_OBP60S3
constexpr int ZOOM_KEY = 4;
#elif defined BOARD_OBP40S3
constexpr int ZOOM_KEY = 1;
#endif
if (dataHstryBuf) { // show "Mode" key only if chart supported boat data type is available
commonData->keydata[0].label = "MODE";
commonData->keydata[ZOOM_KEY].label = "ZOOM";
} else {
commonData->keydata[0].label = "";
commonData->keydata[ZOOM_KEY].label = "";
}
}
// Key functions
virtual int handleKey(int key)
{
if (dataHstryBuf) { // if boat data type supports charts
// Set page mode: value | value/half chart | full chart
if (key == 1) {
switch (pageMode) {
case VALUE:
pageMode = BOTH;
break;
case BOTH:
pageMode = CHART;
break;
case CHART:
pageMode = VALUE;
break;
}
return 0; // Commit the key
}
// Set time frame to show for history chart
#if defined BOARD_OBP60S3
if (key == 5) {
#elif defined BOARD_OBP40S3
if (key == 2) {
#endif
if (dataIntv == 1) {
dataIntv = 2;
} else if (dataIntv == 2) {
dataIntv = 3;
} else if (dataIntv == 3) {
dataIntv = 4;
} else if (dataIntv == 4) {
dataIntv = 8;
} else {
dataIntv = 1;
}
return 0; // Commit the key
}
}
// Keylock function
if (key == 11) { // Code for keylock
commonData->keylock = !commonData->keylock; commonData->keylock = !commonData->keylock;
return 0; // Commit the key return 0; // Commit the key
} }
return key; return key;
} }
int displayPage(PageData &pageData){ virtual void displayNew(PageData& pageData)
GwConfigHandler *config = commonData->config; {
GwLog *logger = commonData->logger; #ifdef BOARD_OBP60S3
// Clear optical warning
// Old values for hold function if (flashLED == "Limit Violation") {
static String svalue1old = "";
static String unit1old = "";
// Get config data
String lengthformat = config->getString(config->lengthFormat);
// bool simulation = config->getBool(config->useSimuData);
bool holdvalues = config->getBool(config->holdvalues);
String flashLED = config->getString(config->flashLED);
String backlightMode = config->getString(config->backlight);
// Get boat values
GwApi::BoatValue *bvalue1 = pageData.values[0]; // First element in list (only one value by PageOneValue)
String name1 = xdrDelete(bvalue1->getName()); // Value name
name1 = name1.substring(0, 6); // String length limit for value name
calibrationData.calibrateInstance(bvalue1, logger); // Check if boat data value is to be calibrated
double value1 = bvalue1->value; // Value as double in SI unit
bool valid1 = bvalue1->valid; // Valid information
String svalue1 = formatValue(bvalue1, *commonData).svalue; // Formatted value as string including unit conversion and switching decimal places
String unit1 = formatValue(bvalue1, *commonData).unit; // Unit of value
// Optical warning by limit violation (unused)
if(String(flashLED) == "Limit Violation"){
setBlinkingLED(false); setBlinkingLED(false);
setFlashLED(false); setFlashLED(false);
}
#endif
// buffer initialization will fail, if page is default page, because <displayNew> is not executed at system start for default page
if (!dataChart) { // Create chart objects if they don't exist
GwApi::BoatValue* bValue1 = pageData.values[0]; // Page boat data element
String bValName1 = bValue1->getName(); // Value name
String bValFormat = bValue1->getFormat(); // Value format
dataHstryBuf = pageData.hstryBuffers->getBuffer(bValName1);
if (dataHstryBuf) {
dataChart.reset(new Chart(*dataHstryBuf, Chart::dfltChrtDta[bValFormat].range, *commonData, useSimuData));
LOG_DEBUG(GwLog::DEBUG, "PageOneValue: Created chart objects for %s", bValName1);
} else {
LOG_DEBUG(GwLog::DEBUG, "PageOneValue: No chart objects available for %s", bValName1);
}
} }
// Logging boat values setupKeys(); // adjust <mode> key depending on chart supported boat data type
if (bvalue1 == NULL) return PAGE_OK; // WTF why this statement? }
LOG_DEBUG(GwLog::LOG,"Drawing at PageOneValue, %s: %f", name1.c_str(), value1);
int displayPage(PageData& pageData)
{
LOG_DEBUG(GwLog::LOG, "Display PageOneValue");
// Get boat value for page
GwApi::BoatValue* bValue1 = pageData.values[0]; // Page boat data element
// Optical warning by limit violation (unused)
if (String(flashLED) == "Limit Violation") {
setBlinkingLED(false);
setFlashLED(false);
}
if (bValue1 == NULL)
return PAGE_OK; // no data, no page to display
LOG_DEBUG(GwLog::DEBUG, "PageOneValue: printing %s, %.3f", bValue1->getName().c_str(), bValue1->value);
// Draw page // Draw page
//*********************************************************** //***********************************************************
/// Set display in partial refresh mode getdisplay().setPartialWindow(0, 0, width, height); // Set partial update
getdisplay().setPartialWindow(0, 0, getdisplay().width(), getdisplay().height()); // Set partial update
// Show name if (pageMode == VALUE || dataHstryBuf == nullptr) {
getdisplay().setTextColor(commonData->fgcolor); // show only data value; ignore other pageMode options if no chart supported boat data history buffer is available
getdisplay().setFont(&Ubuntu_Bold32pt8b); showData(bValue1, FULL);
getdisplay().setCursor(20, 100);
getdisplay().print(name1); // Page name
// Show unit } else if (pageMode == CHART) { // show only data chart
getdisplay().setFont(&Ubuntu_Bold20pt8b); if (dataChart) {
getdisplay().setCursor(270, 100); dataChart->showChrt(HORIZONTAL, FULL_SIZE, dataIntv, PRNT_NAME, PRNT_VALUE, *bValue1);
if(holdvalues == false){ }
getdisplay().print(unit1); // Unit
}
else{
getdisplay().print(unit1old);
}
// Switch font if format for any values } else if (pageMode == BOTH) { // show data value and chart
if(bvalue1->getFormat() == "formatLatitude" || bvalue1->getFormat() == "formatLongitude"){ showData(bValue1, HALF);
getdisplay().setFont(&Ubuntu_Bold20pt8b); if (dataChart) {
getdisplay().setCursor(20, 180); dataChart->showChrt(HORIZONTAL, HALF_SIZE_BOTTOM, dataIntv, NO_PRNT_NAME, NO_PRNT_VALUE, *bValue1);
} }
else if(bvalue1->getFormat() == "formatTime" || bvalue1->getFormat() == "formatDate"){
getdisplay().setFont(&Ubuntu_Bold32pt8b);
getdisplay().setCursor(20, 200);
}
else{
getdisplay().setFont(&DSEG7Classic_BoldItalic60pt7b);
getdisplay().setCursor(20, 240);
}
// Show bus data
if(holdvalues == false){
getdisplay().print(svalue1); // Real value as formated string
}
else{
getdisplay().print(svalue1old); // Old value as formated string
}
if(valid1 == true){
svalue1old = svalue1; // Save the old value
unit1old = unit1; // Save the old unit
} }
return PAGE_UPDATE; return PAGE_UPDATE;
}; };
}; };
static Page* createPage(CommonData &common){ static Page* createPage(CommonData& common)
{
return new PageOneValue(common); return new PageOneValue(common);
} }
@@ -120,10 +308,10 @@ static Page* createPage(CommonData &common){
* this will be number of BoatValue pointers in pageData.values * this will be number of BoatValue pointers in pageData.values
*/ */
PageDescription registerPageOneValue( PageDescription registerPageOneValue(
"OneValue", // Page name "OneValue", // Page name
createPage, // Action createPage, // Action
1, // Number of bus values depends on selection in Web configuration 1, // Number of bus values depends on selection in Web configuration
true // Show display header on/off true // Show display header on/off
); );
#endif #endif

445
lib/obp60task/PageTwoValues.cpp
View File

@@ -3,176 +3,327 @@
#include "Pagedata.h" #include "Pagedata.h"
#include "OBP60Extensions.h" #include "OBP60Extensions.h"
#include "BoatDataCalibration.h" #include "BoatDataCalibration.h"
#include "OBPDataOperations.h"
#include "OBPcharts.h"
class PageTwoValues : public Page class PageTwoValues : public Page {
{ private:
public: GwLog* logger;
PageTwoValues(CommonData &common){
commonData = &common; enum PageMode {
common.logger->logDebug(GwLog::LOG,"Instantiate PageTwoValue"); VALUES,
VAL1_CHART,
VAL2_CHART,
CHARTS
};
enum DisplayMode {
FULL,
HALF
};
static constexpr char HORIZONTAL = 'H';
static constexpr char VERTICAL = 'V';
static constexpr int8_t FULL_SIZE = 0;
static constexpr int8_t HALF_SIZE_TOP = 1;
static constexpr int8_t HALF_SIZE_BOTTOM = 2;
static constexpr bool PRNT_NAME = true;
static constexpr bool NO_PRNT_NAME = false;
static constexpr bool PRNT_VALUE = true;
static constexpr bool NO_PRNT_VALUE = false;
static constexpr int YOFFSET = 130; // y offset for display of 2nd boat value
int width; // Screen width
int height; // Screen height
bool keylock = false; // Keylock
PageMode pageMode = VALUES; // Page display mode
int8_t dataIntv = 1; // Update interval for wind history chart:
// (1)|(2)|(3)|(4)|(8) x 240 seconds for 4, 8, 12, 16, 32 min. history chart
// String lengthformat;
bool useSimuData;
bool holdValues;
String flashLED;
String backlightMode;
String tempFormat;
// Data buffer pointer (owned by HstryBuffers)
static constexpr int NUMVALUES = 2; // two data values in this page
RingBuffer<uint16_t>* dataHstryBuf[NUMVALUES] = { nullptr };
std::unique_ptr<Chart> dataChart[NUMVALUES]; // Chart object
// Old values for hold function
String sValueOld[NUMVALUES] = { "", "" };
String unitOld[NUMVALUES] = { "", "" };
// display data values in display <mode> [FULL|HALF]
void showData(const std::vector<GwApi::BoatValue*>& bValue, DisplayMode mode)
{
getdisplay().setTextColor(commonData->fgcolor);
int numValues = bValue.size(); // do we have to handle 1 or 2 values?
for (int i = 0; i < numValues; i++) {
int yOffset = YOFFSET * i;
String name = xdrDelete(bValue[i]->getName()); // Value name
name = name.substring(0, 6); // String length limit for value name
calibrationData.calibrateInstance(bValue[i], logger); // Check if boat data value is to be calibrated
double value = bValue[i]->value; // Value as double in SI unit
bool valid = bValue[i]->valid; // Valid information
String sValue = formatValue(bValue[i], *commonData).svalue; // Formatted value as string including unit conversion and switching decimal places
String unit = formatValue(bValue[i], *commonData).unit; // Unit of value
// Show name
getdisplay().setFont(&Ubuntu_Bold20pt8b);
getdisplay().setCursor(20, 75 + yOffset);
getdisplay().print(name); // name
// Show unit
getdisplay().setFont(&Ubuntu_Bold12pt8b);
getdisplay().setCursor(20, 125 + yOffset);
if (holdValues) {
getdisplay().print(unitOld[i]); // name
} else {
getdisplay().print(unit); // name
}
// Switch font depending on value format and adjust position
if (bValue[i]->getFormat() == "formatLatitude" || bValue[i]->getFormat() == "formatLongitude") {
getdisplay().setFont(&Ubuntu_Bold20pt8b);
getdisplay().setCursor(50, 125 + yOffset);
} else if (bValue[i]->getFormat() == "formatTime" || bValue[i]->getFormat() == "formatDate") {
getdisplay().setFont(&Ubuntu_Bold20pt8b);
getdisplay().setCursor(170, 105 + yOffset);
} else { // Default font for other formats
getdisplay().setFont(&DSEG7Classic_BoldItalic42pt7b);
getdisplay().setCursor(180, 125 + yOffset);
}
// Show bus data
if (!holdValues || useSimuData) {
getdisplay().print(sValue); // Real value as formated string
} else {
getdisplay().print(sValueOld[i]); // Old value as formated string
}
if (valid == true) {
sValueOld[i] = sValue; // Save the old value
unitOld[i] = unit; // Save the old unit
}
}
if (numValues == 2 && mode == FULL) { // print line only, if we want to show 2 data values
getdisplay().fillRect(0, 145, width, 3, commonData->fgcolor); // Horizontal line 3 pix
}
} }
virtual int handleKey(int key){ public:
// Code for keylock PageTwoValues(CommonData& common)
if(key == 11){ {
commonData = &common;
logger = commonData->logger;
LOG_DEBUG(GwLog::LOG, "Instantiate PageTwoValues");
width = getdisplay().width(); // Screen width
height = getdisplay().height(); // Screen height
// Get config data
// lengthformat = commonData->config->getString(commonData->config->lengthFormat);
useSimuData = commonData->config->getBool(commonData->config->useSimuData);
holdValues = commonData->config->getBool(commonData->config->holdvalues);
flashLED = commonData->config->getString(commonData->config->flashLED);
backlightMode = commonData->config->getString(commonData->config->backlight);
tempFormat = commonData->config->getString(commonData->config->tempFormat); // [K|°C|°F]
}
virtual void setupKeys()
{
Page::setupKeys();
#if defined BOARD_OBP60S3
constexpr int ZOOM_KEY = 4;
#elif defined BOARD_OBP40S3
constexpr int ZOOM_KEY = 1;
#endif
if (dataHstryBuf[0] || dataHstryBuf[1]) { // show "Mode" key only if at least 1 chart supported boat data type is available
commonData->keydata[0].label = "MODE";
commonData->keydata[ZOOM_KEY].label = "ZOOM";
} else {
commonData->keydata[0].label = "";
commonData->keydata[ZOOM_KEY].label = "";
}
}
// Key functions
virtual int handleKey(int key)
{
if (dataHstryBuf[0] || dataHstryBuf[1]) { // if at least 1 boat data type supports charts
// Set page mode: value | value/half chart | full charts
if (key == 1) {
switch (pageMode) {
case VALUES:
if (dataHstryBuf[0]) {
pageMode = VAL1_CHART;
} else if (dataHstryBuf[1]) {
pageMode = VAL2_CHART;
}
break;
case VAL1_CHART:
if (dataHstryBuf[1]) {
pageMode = VAL2_CHART;
} else {
pageMode = CHARTS;
}
break;
case VAL2_CHART:
pageMode = CHARTS;
break;
case CHARTS:
pageMode = VALUES;
break;
}
return 0; // Commit the key
}
// Set time frame to show for history chart
#if defined BOARD_OBP60S3
if (key == 5) {
#elif defined BOARD_OBP40S3
if (key == 2) {
#endif
if (dataIntv == 1) {
dataIntv = 2;
} else if (dataIntv == 2) {
dataIntv = 3;
} else if (dataIntv == 3) {
dataIntv = 4;
} else if (dataIntv == 4) {
dataIntv = 8;
} else {
dataIntv = 1;
}
return 0; // Commit the key
}
}
// Keylock function
if (key == 11) { // Code for keylock
commonData->keylock = !commonData->keylock; commonData->keylock = !commonData->keylock;
return 0; // Commit the key return 0; // Commit the key
} }
return key; return key;
} }
int displayPage(PageData &pageData){ virtual void displayNew(PageData& pageData)
GwConfigHandler *config = commonData->config; {
GwLog *logger = commonData->logger; #ifdef BOARD_OBP60S3
// Clear optical warning
// Old values for hold function if (flashLED == "Limit Violation") {
static String svalue1old = "";
static String unit1old = "";
static String svalue2old = "";
static String unit2old = "";
// Get config data
String lengthformat = config->getString(config->lengthFormat);
// bool simulation = config->getBool(config->useSimuData);
bool holdvalues = config->getBool(config->holdvalues);
String flashLED = config->getString(config->flashLED);
String backlightMode = config->getString(config->backlight);
// Get boat values #1
GwApi::BoatValue *bvalue1 = pageData.values[0]; // First element in list (only one value by PageOneValue)
String name1 = xdrDelete(bvalue1->getName()); // Value name
name1 = name1.substring(0, 6); // String length limit for value name
calibrationData.calibrateInstance(bvalue1, logger); // Check if boat data value is to be calibrated
double value1 = bvalue1->value; // Value as double in SI unit
bool valid1 = bvalue1->valid; // Valid information
String svalue1 = formatValue(bvalue1, *commonData).svalue; // Formatted value as string including unit conversion and switching decimal places
String unit1 = formatValue(bvalue1, *commonData).unit; // Unit of value
// Get boat values #2
GwApi::BoatValue *bvalue2 = pageData.values[1]; // Second element in list
String name2 = xdrDelete(bvalue2->getName()); // Value name
name2 = name2.substring(0, 6); // String length limit for value name
calibrationData.calibrateInstance(bvalue2, logger); // Check if boat data value is to be calibrated
double value2 = bvalue2->value; // Value as double in SI unit
bool valid2 = bvalue2->valid; // Valid information
String svalue2 = formatValue(bvalue2, *commonData).svalue; // Formatted value as string including unit conversion and switching decimal places
String unit2 = formatValue(bvalue2, *commonData).unit; // Unit of value
// Optical warning by limit violation (unused)
if(String(flashLED) == "Limit Violation"){
setBlinkingLED(false); setBlinkingLED(false);
setFlashLED(false); setFlashLED(false);
}
#endif
// buffer initialization will fail, if page is default page, because <displayNew> is not executed at system start for default page
for (int i = 0; i < NUMVALUES; i++) {
if (!dataChart[i]) { // Create chart objects if they don't exist
GwApi::BoatValue* bValue = pageData.values[i]; // Page boat data element
String bValName = bValue->getName(); // Value name
String bValFormat = bValue->getFormat(); // Value format
dataHstryBuf[i] = pageData.hstryBuffers->getBuffer(bValName);
if (dataHstryBuf[i]) {
dataChart[i].reset(new Chart(*dataHstryBuf[i], Chart::dfltChrtDta[bValFormat].range, *commonData, useSimuData));
LOG_DEBUG(GwLog::DEBUG, "PageTwoValues: Created chart object%d for %s", i, bValName.c_str());
} else {
LOG_DEBUG(GwLog::DEBUG, "PageTwoValues: No chart object available for %s", bValName.c_str());
}
}
} }
// Logging boat values setupKeys(); // adjust <mode> key depending on chart supported boat data type
if (bvalue1 == NULL) return PAGE_OK; // WTF why this statement? }
LOG_DEBUG(GwLog::LOG,"Drawing at PageTwoValues, %s: %f, %s: %f", name1.c_str(), value1, name2.c_str(), value2);
int displayPage(PageData& pageData)
{
LOG_DEBUG(GwLog::LOG, "Display PageTwoValues");
// Get boat values for page
std::vector<GwApi::BoatValue*> bValue;
bValue.push_back(pageData.values[0]); // Page boat data element 1
bValue.push_back(pageData.values[1]); // Page boat data element 2
// Optical warning by limit violation (unused)
if (String(flashLED) == "Limit Violation") {
setBlinkingLED(false);
setFlashLED(false);
}
if (bValue[0] == NULL && bValue[1] == NULL)
return PAGE_OK; // no data, no page to display
LOG_DEBUG(GwLog::DEBUG, "PageTwoValues: printing #1: %s, %.3f, #2: %s, %.3f",
bValue[0]->getName().c_str(), bValue[0]->value, bValue[1]->getName().c_str(), bValue[1]->value);
// Draw page // Draw page
//*********************************************************** //***********************************************************
// Set display in partial refresh mode getdisplay().setPartialWindow(0, 0, width, height); // Set partial update
getdisplay().setPartialWindow(0, 0, getdisplay().width(), getdisplay().height()); // Set partial update
// ############### Value 1 ################ if (pageMode == VALUES || (dataHstryBuf[0] == nullptr && dataHstryBuf[1] == nullptr)) {
// show only data value; ignore other pageMode options if no chart supported boat data history buffer is available
showData(bValue, FULL);
// Show name } else if (pageMode == VAL1_CHART) { // show data value 1 and chart
getdisplay().setTextColor(commonData->fgcolor); showData({bValue[0]}, HALF);
getdisplay().setFont(&Ubuntu_Bold20pt8b); if (dataChart[0]) {
getdisplay().setCursor(20, 80); dataChart[0]->showChrt(HORIZONTAL, HALF_SIZE_BOTTOM, dataIntv, NO_PRNT_NAME, NO_PRNT_VALUE, *bValue[0]);
getdisplay().print(name1); // Page name }
// Show unit } else if (pageMode == VAL2_CHART) { // show data value 2 and chart
getdisplay().setFont(&Ubuntu_Bold12pt8b); showData({bValue[1]}, HALF);
getdisplay().setCursor(20, 130); if (dataChart[1]) {
if(holdvalues == false){ dataChart[1]->showChrt(HORIZONTAL, HALF_SIZE_BOTTOM, dataIntv, NO_PRNT_NAME, NO_PRNT_VALUE, *bValue[1]);
getdisplay().print(unit1); // Unit }
}
else{
getdisplay().print(unit1old);
}
// Switch font if format for any values } else if (pageMode == CHARTS) { // show both data charts
if(bvalue1->getFormat() == "formatLatitude" || bvalue1->getFormat() == "formatLongitude"){ if (dataChart[0]) {
getdisplay().setFont(&Ubuntu_Bold20pt8b); if (dataChart[1]) {
getdisplay().setCursor(50, 130); dataChart[0]->showChrt(HORIZONTAL, HALF_SIZE_TOP, dataIntv, PRNT_NAME, PRNT_VALUE, *bValue[0]);
} } else {
else if(bvalue1->getFormat() == "formatTime" || bvalue1->getFormat() == "formatDate"){ dataChart[0]->showChrt(HORIZONTAL, FULL_SIZE, dataIntv, PRNT_NAME, PRNT_VALUE, *bValue[0]);
getdisplay().setFont(&Ubuntu_Bold20pt8b); }
getdisplay().setCursor(170, 105); }
} if (dataChart[1]) {
else{ if (dataChart[0]) {
getdisplay().setFont(&DSEG7Classic_BoldItalic42pt7b); dataChart[1]->showChrt(HORIZONTAL, HALF_SIZE_BOTTOM, dataIntv, PRNT_NAME, PRNT_VALUE, *bValue[1]);
getdisplay().setCursor(180, 130); } else {
} dataChart[1]->showChrt(HORIZONTAL, FULL_SIZE, dataIntv, PRNT_NAME, PRNT_VALUE, *bValue[1]);
}
// Show bus data }
if(holdvalues == false){
getdisplay().print(svalue1); // Real value as formated string
}
else{
getdisplay().print(svalue1old); // Old value as formated string
}
if(valid1 == true){
svalue1old = svalue1; // Save the old value
unit1old = unit1; // Save the old unit
}
// ############### Horizontal Line ################
// Horizontal line 3 pix
getdisplay().fillRect(0, 145, 400, 3, commonData->fgcolor);
// ############### Value 2 ################
// Show name
getdisplay().setFont(&Ubuntu_Bold20pt8b);
getdisplay().setCursor(20, 190);
getdisplay().print(name2); // Page name
// Show unit
getdisplay().setFont(&Ubuntu_Bold12pt8b);
getdisplay().setCursor(20, 240);
if(holdvalues == false){
getdisplay().print(unit2); // Unit
}
else{
getdisplay().print(unit2old);
}
// Switch font if format for any values
if(bvalue2->getFormat() == "formatLatitude" || bvalue2->getFormat() == "formatLongitude"){
getdisplay().setFont(&Ubuntu_Bold20pt8b);
getdisplay().setCursor(50, 240);
}
else if(bvalue2->getFormat() == "formatTime" || bvalue2->getFormat() == "formatDate"){
getdisplay().setFont(&Ubuntu_Bold20pt8b);
getdisplay().setCursor(170, 215);
}
else{
getdisplay().setFont(&DSEG7Classic_BoldItalic42pt7b);
getdisplay().setCursor(180, 240);
}
// Show bus data
if(holdvalues == false){
getdisplay().print(svalue2); // Real value as formated string
}
else{
getdisplay().print(svalue2old); // Old value as formated string
}
if(valid2 == true){
svalue2old = svalue2; // Save the old value
unit2old = unit2; // Save the old unit
} }
return PAGE_UPDATE; return PAGE_UPDATE;
}; };
}; };
static Page *createPage(CommonData &common){ static Page* createPage(CommonData& common)
{
return new PageTwoValues(common); return new PageTwoValues(common);
} }
/** /**
* with the code below we make this page known to the PageTask * with the code below we make this page known to the PageTask
* we give it a type (name) that can be selected in the config * we give it a type (name) that can be selected in the config
@@ -181,10 +332,10 @@ static Page *createPage(CommonData &common){
* this will be number of BoatValue pointers in pageData.values * this will be number of BoatValue pointers in pageData.values
*/ */
PageDescription registerPageTwoValues( PageDescription registerPageTwoValues(
"TwoValues", // Page name "TwoValues", // Page name
createPage, // Action createPage, // Action
2, // Number of bus values depends on selection in Web configuration 2, // Number of bus values depends on selection in Web configuration
true // Show display header on/off true // Show display header on/off
); );
#endif #endif

233
lib/obp60task/PageWindPlot.cpp
View File

@@ -2,6 +2,7 @@
#include "Pagedata.h" #include "Pagedata.h"
#include "OBP60Extensions.h" #include "OBP60Extensions.h"
#include "OBPDataOperations.h"
#include "OBPcharts.h" #include "OBPcharts.h"
// **************************************************************** // ****************************************************************
@@ -10,20 +11,58 @@ class PageWindPlot : public Page {
private: private:
GwLog* logger; GwLog* logger;
enum ChartMode {
DIRECTION,
SPEED,
BOTH
};
static constexpr char HORIZONTAL = 'H';
static constexpr char VERTICAL = 'V';
static constexpr int8_t FULL_SIZE = 0;
static constexpr int8_t HALF_SIZE_LEFT = 1;
static constexpr int8_t HALF_SIZE_RIGHT = 2;
static constexpr bool PRNT_NAME = true;
static constexpr bool NO_PRNT_NAME = false;
static constexpr bool PRNT_VALUE = true;
static constexpr bool NO_PRNT_VALUE = false;
int width; // Screen width int width; // Screen width
int height; // Screen height int height; // Screen height
bool keylock = false; // Keylock bool keylock = false; // Keylock
char chrtMode = 'D'; // Chart mode: 'D' for TWD, 'S' for TWS, 'B' for both ChartMode chrtMode = DIRECTION;
bool showTruW = true; // Show true wind or apparent wind in chart area bool showTruW = true; // Show true wind or apparent wind in chart area
bool oldShowTruW = false; // remember recent user selection of wind data type bool oldShowTruW = false; // remember recent user selection of wind data type
int dataIntv = 1; // Update interval for wind history chart: int8_t dataIntv = 1; // Update interval for wind history chart:
// (1)|(2)|(3)|(4)|(8) x 240 seconds for 4, 8, 12, 16, 32 min. history chart // (1)|(2)|(3)|(4)|(8) x 240 seconds for 4, 8, 12, 16, 32 min. history chart
bool useSimuData; bool useSimuData;
// bool holdValues;
String flashLED; String flashLED;
String backlightMode; String backlightMode;
#ifdef BOARD_OBP40S3
String wndSrc; // Wind source true/apparent wind - preselection for OBP40
#endif
// Data buffers pointers (owned by HstryBuffers)
RingBuffer<uint16_t>* twdHstry = nullptr;
RingBuffer<uint16_t>* twsHstry = nullptr;
RingBuffer<uint16_t>* awdHstry = nullptr;
RingBuffer<uint16_t>* awsHstry = nullptr;
// Chart objects
std::unique_ptr<Chart> twdChart, awdChart; // Chart object for wind direction
std::unique_ptr<Chart> twsChart, awsChart; // Chart object for wind speed
// Active charts and values
Chart* wdChart = nullptr;
Chart* wsChart = nullptr;
GwApi::BoatValue* wdBVal = nullptr;
GwApi::BoatValue* wsBVal = nullptr;
public: public:
PageWindPlot(CommonData& common) PageWindPlot(CommonData& common)
{ {
@@ -31,11 +70,16 @@ public:
logger = commonData->logger; logger = commonData->logger;
LOG_DEBUG(GwLog::LOG, "Instantiate PageWindPlot"); LOG_DEBUG(GwLog::LOG, "Instantiate PageWindPlot");
width = getdisplay().width(); // Screen width
height = getdisplay().height(); // Screen height
// Get config data // Get config data
useSimuData = common.config->getBool(common.config->useSimuData); useSimuData = common.config->getBool(common.config->useSimuData);
// holdValues = common.config->getBool(common.config->holdvalues); // holdValues = common.config->getBool(common.config->holdvalues);
flashLED = common.config->getString(common.config->flashLED); flashLED = common.config->getString(common.config->flashLED);
backlightMode = common.config->getString(common.config->backlight); backlightMode = common.config->getString(common.config->backlight);
oldShowTruW = !showTruW; // makes wind source being initialized at initial page call
} }
virtual void setupKeys() virtual void setupKeys()
@@ -44,23 +88,23 @@ public:
commonData->keydata[0].label = "MODE"; commonData->keydata[0].label = "MODE";
#if defined BOARD_OBP60S3 #if defined BOARD_OBP60S3
commonData->keydata[1].label = "SRC"; commonData->keydata[1].label = "SRC";
commonData->keydata[4].label = "INTV"; commonData->keydata[4].label = "ZOOM";
#elif defined BOARD_OBP40S3 #elif defined BOARD_OBP40S3
commonData->keydata[1].label = "INTV"; commonData->keydata[1].label = "ZOOM";
#endif #endif
} }
// Key functions // Key functions
virtual int handleKey(int key) virtual int handleKey(int key)
{ {
// Set chart mode TWD | TWS // Set chart mode
if (key == 1) { if (key == 1) {
if (chrtMode == 'D') { if (chrtMode == DIRECTION) {
chrtMode = 'S'; chrtMode = SPEED;
} else if (chrtMode == 'S') { } else if (chrtMode == SPEED) {
chrtMode = 'B'; chrtMode = BOTH;
} else { } else {
chrtMode = 'D'; chrtMode = DIRECTION;
} }
return 0; // Commit the key return 0; // Commit the key
} }
@@ -101,116 +145,77 @@ public:
virtual void displayNew(PageData& pageData) virtual void displayNew(PageData& pageData)
{ {
#ifdef BOARD_OBP60S3
// Clear optical warning
if (flashLED == "Limit Violation") {
setBlinkingLED(false);
setFlashLED(false);
}
#endif
#ifdef BOARD_OBP40S3 #ifdef BOARD_OBP40S3
String wndSrc; // Wind source true/apparent wind - preselection for OBP40 // we can only initialize user defined wind source here, because "pageData" is not available at object instantiation
wndSrc = commonData->config->getString("page" + String(pageData.pageNumber) + "wndsrc"); wndSrc = commonData->config->getString("page" + String(pageData.pageNumber) + "wndsrc");
if (wndSrc == "True wind") { if (wndSrc == "True wind") {
showTruW = true; showTruW = true;
} else { } else {
showTruW = false; // Wind source is apparent wind showTruW = false; // Wind source is apparent wind
} }
LOG_DEBUG(GwLog::LOG, "New PageWindPlot; wind source=%s", wndSrc); oldShowTruW = !showTruW; // Force chart update in displayPage
#endif #endif
oldShowTruW = !showTruW; // makes wind source being initialized at initial page call
width = getdisplay().width(); // Screen width if (!twdChart) { // Create true wind charts if they don't exist
height = getdisplay().height(); // Screen height twdHstry = pageData.hstryBuffers->getBuffer("TWD");
twsHstry = pageData.hstryBuffers->getBuffer("TWS");
if (twdHstry) {
twdChart.reset(new Chart(*twdHstry, Chart::dfltChrtDta["formatCourse"].range, *commonData, useSimuData));
}
if (twsHstry) {
twsChart.reset(new Chart(*twsHstry, Chart::dfltChrtDta["formatKnots"].range, *commonData, useSimuData));
}
}
if (!awdChart) { // Create apparent wind charts if they don't exist
awdHstry = pageData.hstryBuffers->getBuffer("AWD");
awsHstry = pageData.hstryBuffers->getBuffer("AWS");
if (awdHstry) {
awdChart.reset(new Chart(*awdHstry, Chart::dfltChrtDta["formatCourse"].range, *commonData, useSimuData));
}
if (awsHstry) {
awsChart.reset(new Chart(*awsHstry, Chart::dfltChrtDta["formatKnots"].range, *commonData, useSimuData));
}
if (twdHstry && twsHstry && awdHstry && awsHstry) {
LOG_DEBUG(GwLog::DEBUG, "PageWindPlot: Created wind charts");
} else {
LOG_DEBUG(GwLog::DEBUG, "PageWindPlot: Some/all chart objects for wind data missing");
}
}
} }
int displayPage(PageData& pageData) int displayPage(PageData& pageData)
{ {
GwConfigHandler* config = commonData->config;
static RingBuffer<uint16_t>* wdHstry; // Wind direction data buffer
static RingBuffer<uint16_t>* wsHstry; // Wind speed data buffer
static String wdName, wdFormat; // Wind direction name and format
static String wsName, wsFormat; // Wind speed name and format
// Separate chart objects for true wind and apparent wind
static std::unique_ptr<Chart<uint16_t>> twdFlChart, awdFlChart; // chart object for wind direction chart, full size
static std::unique_ptr<Chart<uint16_t>> twsFlChart, awsFlChart; // chart object for wind speed chart, full size
static std::unique_ptr<Chart<uint16_t>> twdHfChart, awdHfChart; // chart object for wind direction chart, half size
static std::unique_ptr<Chart<uint16_t>> twsHfChart, awsHfChart; // chart object for wind speed chart, half size
// Pointers to the currently active charts
static Chart<uint16_t>* wdFlChart;
static Chart<uint16_t>* wsFlChart;
static Chart<uint16_t>* wdHfChart;
static Chart<uint16_t>* wsHfChart;
static GwApi::BoatValue* wdBVal = new GwApi::BoatValue("TWD"); // temp BoatValue for wind direction unit identification; required by OBP60Formater
static GwApi::BoatValue* wsBVal = new GwApi::BoatValue("TWS"); // temp BoatValue for wind speed unit identification; required by OBP60Formater */
double dfltRngWd = 60.0 * DEG_TO_RAD; // default range for course chart from min to max value in RAD
double dfltRngWs = 7.5; // default range for wind speed chart from min to max value in m/s
const int numBoatData = 4;
GwApi::BoatValue* bvalue[numBoatData]; // current boat data values
LOG_DEBUG(GwLog::LOG, "Display PageWindPlot"); LOG_DEBUG(GwLog::LOG, "Display PageWindPlot");
ulong pageTime = millis(); ulong pageTime = millis();
// read boat data values
for (int i = 0; i < numBoatData; i++) {
bvalue[i] = pageData.values[i];
}
// Optical warning by limit violation (unused)
if (String(flashLED) == "Limit Violation") {
setBlinkingLED(false);
setFlashLED(false);
}
if (showTruW != oldShowTruW) { if (showTruW != oldShowTruW) {
if (!twdFlChart) { // Create true wind charts if they don't exist
LOG_DEBUG(GwLog::DEBUG, "PageWindPlot: Creating true wind charts");
auto* twdHstry = pageData.boatHstry->hstryBufList.twdHstry;
auto* twsHstry = pageData.boatHstry->hstryBufList.twsHstry;
// LOG_DEBUG(GwLog::DEBUG,"History Buffer addresses PageWindPlot: twdBuf: %p, twsBuf: %p", (void*)pageData.boatHstry->hstryBufList.twdHstry,
// (void*)pageData.boatHstry->hstryBufList.twsHstry);
twdFlChart = std::unique_ptr<Chart<uint16_t>>(new Chart<uint16_t>(*twdHstry, 1, 0, dfltRngWd, *commonData, useSimuData));
twsFlChart = std::unique_ptr<Chart<uint16_t>>(new Chart<uint16_t>(*twsHstry, 0, 0, dfltRngWs, *commonData, useSimuData));
twdHfChart = std::unique_ptr<Chart<uint16_t>>(new Chart<uint16_t>(*twdHstry, 1, 1, dfltRngWd, *commonData, useSimuData));
twsHfChart = std::unique_ptr<Chart<uint16_t>>(new Chart<uint16_t>(*twsHstry, 1, 2, dfltRngWs, *commonData, useSimuData));
// twdHfChart = std::unique_ptr<Chart<uint16_t>>(new Chart<uint16_t>(*twdHstry, 0, 1, dfltRngWd, *commonData, useSimuData));
// twsHfChart = std::unique_ptr<Chart<uint16_t>>(new Chart<uint16_t>(*twsHstry, 0, 2, dfltRngWs, *commonData, useSimuData));
// LOG_DEBUG(GwLog::DEBUG, "PageWindPlot: twdHstry: %p, twsHstry: %p", (void*)twdHstry, (void*)twsHstry);
}
if (!awdFlChart) { // Create apparent wind charts if they don't exist
LOG_DEBUG(GwLog::DEBUG, "PageWindPlot: Creating apparent wind charts");
auto* awdHstry = pageData.boatHstry->hstryBufList.awdHstry;
auto* awsHstry = pageData.boatHstry->hstryBufList.awsHstry;
awdFlChart = std::unique_ptr<Chart<uint16_t>>(new Chart<uint16_t>(*awdHstry, 1, 0, dfltRngWd, *commonData, useSimuData));
awsFlChart = std::unique_ptr<Chart<uint16_t>>(new Chart<uint16_t>(*awsHstry, 0, 0, dfltRngWs, *commonData, useSimuData));
awdHfChart = std::unique_ptr<Chart<uint16_t>>(new Chart<uint16_t>(*awdHstry, 1, 1, dfltRngWd, *commonData, useSimuData));
awsHfChart = std::unique_ptr<Chart<uint16_t>>(new Chart<uint16_t>(*awsHstry, 1, 2, dfltRngWs, *commonData, useSimuData));
}
// Switch active charts based on showTruW // Switch active charts based on showTruW
if (showTruW) { if (showTruW) {
wdHstry = pageData.boatHstry->hstryBufList.twdHstry; wdChart = twdChart.get();
wsHstry = pageData.boatHstry->hstryBufList.twsHstry; wsChart = twsChart.get();
wdFlChart = twdFlChart.get(); wdBVal = pageData.values[0];
wsFlChart = twsFlChart.get(); wsBVal = pageData.values[1];
wdHfChart = twdHfChart.get();
wsHfChart = twsHfChart.get();
} else { } else {
wdHstry = pageData.boatHstry->hstryBufList.awdHstry; wdChart = awdChart.get();
wsHstry = pageData.boatHstry->hstryBufList.awsHstry; wsChart = awsChart.get();
wdFlChart = awdFlChart.get(); wdBVal = pageData.values[2];
wsFlChart = awsFlChart.get(); wsBVal = pageData.values[3];
wdHfChart = awdHfChart.get();
wsHfChart = awsHfChart.get();
} }
wdHstry->getMetaData(wdName, wdFormat);
wsHstry->getMetaData(wsName, wsFormat);
oldShowTruW = showTruW; oldShowTruW = showTruW;
} }
LOG_DEBUG(GwLog::DEBUG, "PageWindPlot: draw with data %s: %.2f, %s: %.2f", wdBVal->getName().c_str(), wdBVal->value, wsBVal->getName().c_str(), wsBVal->value);
// Draw page // Draw page
//*********************************************************** //***********************************************************
@@ -219,28 +224,26 @@ public:
getdisplay().setPartialWindow(0, 0, width, height); // Set partial update getdisplay().setPartialWindow(0, 0, width, height); // Set partial update
getdisplay().setTextColor(commonData->fgcolor); getdisplay().setTextColor(commonData->fgcolor);
if (chrtMode == 'D') { if (chrtMode == DIRECTION) {
wdBVal->value = wdHstry->getLast(); if (wdChart) {
wdBVal->valid = wdBVal->value != wdHstry->getMaxVal(); wdChart->showChrt(VERTICAL, FULL_SIZE, dataIntv, PRNT_NAME, PRNT_VALUE, *wdBVal);
wdFlChart->showChrt(dataIntv, *bvalue[0]); }
} else if (chrtMode == 'S') { } else if (chrtMode == SPEED) {
wsBVal->value = wsHstry->getLast(); if (wsChart) {
wsBVal->valid = wsBVal->value != wsHstry->getMaxVal(); wsChart->showChrt(HORIZONTAL, FULL_SIZE, dataIntv, PRNT_NAME, PRNT_VALUE, *wsBVal);
wsFlChart->showChrt(dataIntv, *bvalue[1]); }
} else if (chrtMode == 'B') { } else if (chrtMode == BOTH) {
wdBVal->value = wdHstry->getLast(); if (wdChart) {
wdBVal->valid = wdBVal->value != wdHstry->getMaxVal(); wdChart->showChrt(VERTICAL, HALF_SIZE_LEFT, dataIntv, PRNT_NAME, PRNT_VALUE, *wdBVal);
wsBVal->value = wsHstry->getLast(); }
wsBVal->valid = wsBVal->value != wsHstry->getMaxVal(); if (wsChart) {
LOG_DEBUG(GwLog::DEBUG, "PageWindPlot showChrt: wsBVal.name: %s, format: %s, wsBVal.value: %.1f, valid: %d, address: %p", wsBVal->getName(), wsBVal->getFormat(), wsBVal->value, wsChart->showChrt(VERTICAL, HALF_SIZE_RIGHT, dataIntv, PRNT_NAME, PRNT_VALUE, *wsBVal);
wsBVal->valid, wsBVal); }
wdHfChart->showChrt(dataIntv, *bvalue[0]);
wsHfChart->showChrt(dataIntv, *bvalue[1]);
} }
LOG_DEBUG(GwLog::LOG, "PageWindPlot: page time %ldms", millis() - pageTime); LOG_DEBUG(GwLog::DEBUG, "PageWindPlot: page time %ldms", millis() - pageTime);
return PAGE_UPDATE; return PAGE_UPDATE;
} }
}; };

10
lib/obp60task/Pagedata.h
View File

@@ -4,19 +4,20 @@
#include <functional> #include <functional>
#include <vector> #include <vector>
#include "LedSpiTask.h" #include "LedSpiTask.h"
#include "OBPDataOperations.h"
#define MAX_PAGE_NUMBER 10 // Max number of pages for show data #define MAX_PAGE_NUMBER 10 // Max number of pages for show data
typedef std::vector<GwApi::BoatValue *> ValueList; typedef std::vector<GwApi::BoatValue *> ValueList;
class HstryBuffers;
typedef struct{ typedef struct{
GwApi *api; GwApi *api;
String pageName; String pageName;
uint8_t pageNumber; // page number in sequence of visible pages uint8_t pageNumber; // page number in sequence of visible pages
//the values will always contain the user defined values first //the values will always contain the user defined values first
ValueList values; ValueList values;
HstryBuf* boatHstry; HstryBuffers* hstryBuffers; // list of all boat history buffers
} PageData; } PageData;
// Sensor data structure (only for extended sensors, not for NMEA bus sensors) // Sensor data structure (only for extended sensors, not for NMEA bus sensors)
@@ -203,3 +204,8 @@ typedef struct{
// Formatter for boat values // Formatter for boat values
FormattedData formatValue(GwApi::BoatValue *value, CommonData &commondata); FormattedData formatValue(GwApi::BoatValue *value, CommonData &commondata);
FormattedData formatValue(GwApi::BoatValue *value, CommonData &commondata, bool ignoreSimuDataSetting);
// Helper method for conversion of any data value from SI to user defined format (defined in OBP60Formatter)
double convertValue(const double &value, const String &format, CommonData &commondata);
double convertValue(const double &value, const String &name, const String &format, CommonData &commondata);

28
lib/obp60task/obp60task.cpp
View File

@@ -435,8 +435,8 @@ void OBP60Task(GwApi *api){
int lastPage=-1; // initialize with an impiossible value, so we can detect wether we are during startup and no page has been displayed yet int lastPage=-1; // initialize with an impiossible value, so we can detect wether we are during startup and no page has been displayed yet
BoatValueList boatValues; //all the boat values for the api query BoatValueList boatValues; //all the boat values for the api query
HstryBuf hstryBufList(1920); // Create ring buffers for history storage of some boat data (1920 seconds = 32 minutes) HstryBuffers hstryBufList(1920, &boatValues, logger); // Create empty list of boat data history buffers
WindUtils trueWind(&boatValues); // Create helper object for true wind calculation WindUtils trueWind(&boatValues, logger); // Create helper object for true wind calculation
//commonData.distanceformat=config->getString(xxx); //commonData.distanceformat=config->getString(xxx);
//add all necessary data to common data //add all necessary data to common data
@@ -479,21 +479,27 @@ void OBP60Task(GwApi *api){
LOG_DEBUG(GwLog::DEBUG,"added fixed value %s to page %d",value->getName().c_str(),i); LOG_DEBUG(GwLog::DEBUG,"added fixed value %s to page %d",value->getName().c_str(),i);
pages[i].parameters.values.push_back(value); pages[i].parameters.values.push_back(value);
} }
// Add boat history data to page parameters
pages[i].parameters.boatHstry = &hstryBufList; // Read the specified boat data type of relevant pages and create a history buffer for each type
if (pages[i].parameters.pageName == "OneValue" || pages[i].parameters.pageName == "TwoValues" || pages[i].parameters.pageName == "WindPlot") {
for (auto pVal : pages[i].parameters.values) {
hstryBufList.addBuffer(pVal->getName());
}
}
// Add list of history buffers to page parameters
pages[i].parameters.hstryBuffers = &hstryBufList;
} }
// add out of band system page (always available) // add out of band system page (always available)
Page *syspage = allPages.pages[0]->creator(commonData); Page *syspage = allPages.pages[0]->creator(commonData);
// Read all calibration data settings from config
calibrationData.readConfig(config, logger);
// Check user settings for true wind calculation // Check user settings for true wind calculation
bool calcTrueWnds = api->getConfig()->getBool(api->getConfig()->calcTrueWnds, false); bool calcTrueWnds = api->getConfig()->getBool(api->getConfig()->calcTrueWnds, false);
bool useSimuData = api->getConfig()->getBool(api->getConfig()->useSimuData, false); bool useSimuData = api->getConfig()->getBool(api->getConfig()->useSimuData, false);
// Initialize history buffer for certain boat data // Read all calibration data settings from config
hstryBufList.init(&boatValues, logger); calibrationData.readConfig(config, logger);
// Display screenshot handler for HTTP request // Display screenshot handler for HTTP request
// http://192.168.15.1/api/user/OBP60Task/screenshot // http://192.168.15.1/api/user/OBP60Task/screenshot
@@ -808,10 +814,10 @@ void OBP60Task(GwApi *api){
api->getStatus(commonData.status); api->getStatus(commonData.status);
if (calcTrueWnds) { if (calcTrueWnds) {
trueWind.addTrueWind(api, &boatValues, logger); trueWind.addWinds();
} }
// Handle history buffers for certain boat data for windplot page and other usage // Handle history buffers for certain boat data for windplot page and other usage
hstryBufList.handleHstryBuf(useSimuData); hstryBufList.handleHstryBufs(useSimuData, commonData);
// Clear display // Clear display
// getdisplay().fillRect(0, 0, getdisplay().width(), getdisplay().height(), commonData.bgcolor); // getdisplay().fillRect(0, 0, getdisplay().width(), getdisplay().height(), commonData.bgcolor);