public void newGenericSensorData(YGenericSensor source, YMeasure data)
{
pointXY p = new pointXY()
{
x = data.get_endTimeUTC(), y = data.get_averageValue()
};
WeightData.Add(p);
monitor_wData.AddPoint(p);
}
public void newTempSensorData(YTemperature source, YMeasure data)
{
pointXY p = new pointXY()
{
x = data.get_endTimeUTC(), y = data.get_averageValue()
};
TempData.Add(p);
monitor_tData.AddPoint(p);
}
public void SensorValuecallback(CustomYSensor source, YMeasure M)
{
if (prop == null)
{
return;
}
if (source == prop.DataSource_source)
{
_solidGauge.value = source.isOnline() ? M.get_averageValue() : 0;
}
}
// automatically called on a regular basis with sensor value
public void newSensorValue(YFunction f, YMeasure m)
{
double t = m.get_endTimeUTC();
chart1.Series[0].Points.AddXY(UnixTimeStampToDateTime(t), m.get_averageValue());
if (FirstPointDate < 0)
{
FirstPointDate = t;
}
LastPointDate = t;
setGraphScale();
}
public override int _invokeTimedReportCallback(YMeasure value)
{
if (this._timedReportCallbackLatitude != null)
{
this._timedReportCallbackLatitude(this, value);
}
else
{
base._invokeTimedReportCallback(value);
}
return(0);
}
public override int _invokeTimedReportCallback(YMeasure value)
{
if (this._timedReportCallbackMultiCellWeighScale != null)
{
this._timedReportCallbackMultiCellWeighScale(this, value);
}
else
{
base._invokeTimedReportCallback(value);
}
return(0);
}
public override int _invokeTimedReportCallback(YMeasure value)
{
if (this._timedReportCallbackAccelerometer != null)
{
this._timedReportCallbackAccelerometer(this, value);
}
else
{
base._invokeTimedReportCallback(value);
}
return(0);
}
public override int _invokeTimedReportCallback(YMeasure value)
{
if (this._timedReportCallbackQuadratureDecoder != null)
{
this._timedReportCallbackQuadratureDecoder(this, value);
}
else
{
base._invokeTimedReportCallback(value);
}
return(0);
}
public override int _invokeTimedReportCallback(YMeasure value)
{
if (this._timedReportCallbackGenericSensor != null)
{
this._timedReportCallbackGenericSensor(this, value);
}
else
{
base._invokeTimedReportCallback(value);
}
return(0);
}
public override int _invokeTimedReportCallback(YMeasure value)
{
if (this._timedReportCallbackGroundSpeed != null)
{
this._timedReportCallbackGroundSpeed(this, value);
}
else
{
base._invokeTimedReportCallback(value);
}
return(0);
}
public void SensorValuecallback(CustomYSensor source, YMeasure M)
{
if (prop == null)
{
return;
}
// if (FirstLiveValue == 0) FirstLiveValue = M.get_endTimeUTC();
for (int i = 0; i < SeriesCount; i++)
{
ChartSerie s = seriesProperties[i];
if (s.DataSource_source == source)
{
if (!s.DataSource_source.isOnline())
{
offlineMessages[i] = s.DataSource_source.get_friendlyName() + " is OFFLINE";
showOffline[i] = true;
updateOfflinePanel();
return;
}
showOffline[i] = false;
updateOfflinePanel();
int index = s.DataSource_source.curData.Count - 1;
switch (s.DataSource_datatype)
{
case 1: _cartesianChart.series[i].AddPoint(new pointXY {
x = s.DataSource_source.minData[index].DateTime, y = s.DataSource_source.minData[index].Value
}); break;
case 2: _cartesianChart.series[i].AddPoint(new pointXY {
x = s.DataSource_source.maxData[index].DateTime, y = s.DataSource_source.maxData[index].Value
}); break;
default:
_cartesianChart.series[i].AddPoint(new pointXY {
x = s.DataSource_source.curData[index].DateTime, y = s.DataSource_source.curData[index].Value
}); break;
}
_cartesianChart.series[i].unit = s.DataSource_source.get_unit();
}
}
}
static void dumpSensor(YSensor sensor)
{
string fmt = "dd MMM yyyy hh:mm:ss,fff";
Console.WriteLine("Using DataLogger of " + sensor.get_friendlyName());
YDataSet dataset = sensor.get_recordedData(0, 0);
Console.WriteLine("loading summary... ");
dataset.loadMore();
YMeasure summary = dataset.get_summary();
String line =
String.Format("from {0} to {1} : min={2:0.00}{5} avg={3:0.00}{5} max={4:0.00}{5}",
summary.get_startTimeUTC_asDateTime().ToString(fmt),
summary.get_endTimeUTC_asDateTime().ToString(fmt), summary.get_minValue(),
summary.get_averageValue(), summary.get_maxValue(), sensor.get_unit());
Console.WriteLine(line);
Console.Write("loading details : 0%");
int progress = 0;
do
{
progress = dataset.loadMore();
Console.Write(String.Format("\b\b\b\b{0,3:##0}%", progress));
} while(progress < 100);
Console.WriteLine("");
List <YMeasure> details = dataset.get_measures();
foreach (YMeasure m in details)
{
Console.WriteLine(
String.Format("from {0} to {1} : min={2:0.00}{5} avg={3:0.00}{5} max={4:0.00}{5}",
m.get_startTimeUTC_asDateTime().ToString(fmt),
m.get_endTimeUTC_asDateTime().ToString(fmt), m.get_minValue(), m.get_averageValue(),
m.get_maxValue(), sensor.get_unit()));
}
}
/**
* <summary>
* Returns the detailed set of measures for the time interval corresponding
* to a given condensed measures previously returned by <c>get_preview()</c>.
* <para>
* The result is provided as a list of YMeasure objects.
* </para>
* <para>
* </para>
* </summary>
* <param name="measure">
* condensed measure from the list previously returned by
* <c>get_preview()</c>.
* </param>
* <returns>
* a table of records, where each record depicts the
* measured values during a time interval
* </returns>
* <para>
* On failure, throws an exception or returns an empty array.
* </para>
*/
public virtual List<YMeasure> get_measuresAt(YMeasure measure)
{
long startUtc;
YDataStream stream;
List<List<double>> dataRows = new List<List<double>>();
List<YMeasure> measures = new List<YMeasure>();
double tim;
double itv;
int nCols;
int minCol;
int avgCol;
int maxCol;
// may throw an exception
startUtc = (long) Math.Round(measure.get_startTimeUTC());
stream = null;
for (int ii = 0; ii < this._streams.Count; ii++) {
if (this._streams[ii].get_startTimeUTC() == startUtc) {
stream = this._streams[ii];
}
;;
}
if (stream == null) {
return measures;
}
dataRows = stream.get_dataRows();
if (dataRows.Count == 0) {
return measures;
}
tim = (double) stream.get_startTimeUTC();
itv = stream.get_dataSamplesInterval();
if (tim < itv) {
tim = itv;
}
nCols = dataRows[0].Count;
minCol = 0;
if (nCols > 2) {
avgCol = 1;
} else {
avgCol = 0;
}
if (nCols > 2) {
maxCol = 2;
} else {
maxCol = 0;
}
for (int ii = 0; ii < dataRows.Count; ii++) {
if ((tim >= this._startTime) && ((this._endTime == 0) || (tim <= this._endTime))) {
measures.Add(new YMeasure(tim - itv, tim, dataRows[ii][minCol], dataRows[ii][avgCol], dataRows[ii][maxCol]));
}
tim = tim + itv;;
}
return measures;
}
public override int _invokeTimedReportCallback(YMeasure value)
{
if (this._timedReportCallbackCurrent != null) {
this._timedReportCallbackCurrent(this, value);
} else {
base._invokeTimedReportCallback(value);
}
return 0;
}
public override int _invokeTimedReportCallback(YMeasure value)
{
if (this._timedReportCallbackAccelerometer != null) {
this._timedReportCallbackAccelerometer(this, value);
} else {
base._invokeTimedReportCallback(value);
}
return 0;
}
async Task sensorTimedReportCallBack(YSensor fct, YMeasure measure)
{
Output.Text += await fct.get_hardwareId() + ": " + measure.get_averageValue() + " " + await fct.get_userData() + " (timed report)\n";
}
// YDataSet constructor for the new datalogger
public YDataSet(YFunction parent, string data)
{
//--- (generated code: YDataSet attributes initialization)
//--- (end of generated code: YDataSet attributes initialization)
this._parent = parent;
this._startTime = 0;
this._endTime = 0;
this._summary = new YMeasure();
this._parse(data);
}
//--- (end of generated code: YDataSet definitions)
// YDataSet constructor, when instantiated directly by a function
public YDataSet(YFunction parent, string functionId, string unit, long startTime, long endTime)
{
//--- (generated code: YDataSet attributes initialization)
//--- (end of generated code: YDataSet attributes initialization)
this._parent = parent;
this._functionId = functionId;
this._unit = unit;
this._startTime = startTime;
this._endTime = endTime;
this._progress = -1;
this._summary = new YMeasure();
}
public virtual int _invokeTimedReportCallback(YMeasure value)
{
if (this._timedReportCallbackSensor != null) {
this._timedReportCallbackSensor(this, value);
} else {
}
return 0;
}
/**
* <summary>
* Returns the detailed set of measures for the time interval corresponding
* to a given condensed measures previously returned by <c>get_preview()</c>.
* <para>
* The result is provided as a list of <c>YMeasure</c> objects.
* </para>
* <para>
* </para>
* </summary>
* <param name="measure">
* condensed measure from the list previously returned by
* <c>get_preview()</c>.
* </param>
* <returns>
* a table of records, where each record depicts the
* measured values during a time interval
* </returns>
* <para>
* On failure, throws an exception or returns an empty array.
* </para>
*/
public virtual YMeasure[] get_measuresAt(YMeasure measure)
{
return(_objref.get_measuresAt(measure).ToArray());
}
public override int _invokeTimedReportCallback(YMeasure value)
{
if (this._timedReportCallbackGenericSensor != null) {
this._timedReportCallbackGenericSensor(this, value);
} else {
base._invokeTimedReportCallback(value);
}
return 0;
}
protected int _parse(string data)
{
YAPI.TJsonParser p;
if (!YAPI.ExceptionsDisabled) p= new YAPI.TJsonParser(data, false);
else try
{
p = new YAPI.TJsonParser(data, false);
}
catch
{
return YAPI.IO_ERROR;
}
Nullable<YAPI.TJSONRECORD> node, arr;
YDataStream stream;
long streamStartTime;
long streamEndTime;
long startTime = 0x7fffffff;
long endTime = 0;
double summaryMinVal = Double.MaxValue;
double summaryMaxVal = -Double.MaxValue;
double summaryTotalTime = 0;
double summaryTotalAvg = 0;
node = p.GetChildNode(null, "id");
this._functionId = node.Value.svalue;
node = p.GetChildNode(null, "unit");
this._unit = node.Value.svalue;
node = p.GetChildNode(null, "calib");
if (node != null)
{
this._calib = YAPI._decodeFloats(node.Value.svalue);
this._calib[0] = this._calib[0] / 1000;
}
else
{
node = p.GetChildNode(null, "cal");
this._calib = YAPI._decodeWords(node.Value.svalue);
}
arr = p.GetChildNode(null, "streams");
this._streams = new List<YDataStream>();
this._preview = new List<YMeasure>();
this._measures = new List<YMeasure>();
for (int i = 0; i < arr.Value.itemcount; i++)
{
stream = _parent._findDataStream(this, arr.Value.items[i].svalue);
streamStartTime = stream.get_startTimeUTC() - stream.get_dataSamplesIntervalMs() / 1000;
streamEndTime = stream.get_startTimeUTC() + stream.get_duration();
if (_startTime > 0 && streamEndTime <= _startTime)
{
// this stream is too early, drop it
}
else if (_endTime > 0 && stream.get_startTimeUTC() > this._endTime)
{
// this stream is too late, drop it
}
else
{
_streams.Add(stream);
if (startTime > streamStartTime)
{
startTime = streamStartTime;
}
if (endTime < streamEndTime)
{
endTime = streamEndTime;
}
if (stream.isClosed() && stream.get_startTimeUTC() >= this._startTime &&
(this._endTime == 0 || streamEndTime <= this._endTime))
{
if (summaryMinVal > stream.get_minValue()) {
summaryMinVal = stream.get_minValue();
}
if (summaryMaxVal < stream.get_maxValue()) {
summaryMaxVal = stream.get_maxValue();
}
summaryTotalAvg += stream.get_averageValue() * stream.get_duration();
summaryTotalTime += stream.get_duration();
YMeasure rec = new YMeasure(
stream.get_startTimeUTC(),
streamEndTime,
stream.get_minValue(),
stream.get_averageValue(),
stream.get_maxValue());
this._preview.Add(rec);
}
}
}
if ((this._streams.Count > 0) && (summaryTotalTime>0))
{
// update time boundaries with actual data
if (this._startTime < startTime)
{
this._startTime = startTime;
}
if (this._endTime == 0 || this._endTime > endTime)
{
this._endTime = endTime;
}
this._summary = new YMeasure(
_startTime,
_endTime,
summaryMinVal,
summaryTotalAvg / summaryTotalTime,
summaryMaxVal);
}
this._progress = 0;
return this.get_progress();
}
static void sensorTimedReportCallBack(YSensor fct, YMeasure measure)
{
Console.WriteLine(fct.get_hardwareId() + ": " + measure.get_averageValue() + " " + fct.get_userData() + " (timed report)");
}