// The series of tests below is for ConvertListToBlobWithChecksum()
//
// This method is reused by the actual test methods that follow
public Boolean ComputeTestChecksums(
TSDateCalculator.TimeStepUnitCode u1, short q1, List <TimeSeriesValue> list1, ITimeSeriesTrace trace1,
TSDateCalculator.TimeStepUnitCode u2, short q2, List <TimeSeriesValue> list2, ITimeSeriesTrace trace2)
{
TSLibrary tsLib = new TSLibrary();
int compressionCode;
tsLib.ConvertListToBlobWithChecksum(
u1, q1, list1.Count,
list1[0].Date, list1[list1.Count - 1].Date, list1, trace1, out compressionCode);
tsLib.ConvertListToBlobWithChecksum(
u2, q2, list2.Count,
list2[0].Date, list2[list2.Count - 1].Date, list2, trace2, out compressionCode);
Assert.IsTrue(trace1.Checksum.Length == 16);
Assert.IsTrue(trace2.Checksum.Length == 16);
for (int i = 0; i < trace2.Checksum.Length; i++)
{
if (trace1.Checksum[i] != trace2.Checksum[i])
{
return(false);
}
}
return(true);
}
// The series of tests below is for ConvertBlobToListAll and ConvertListToBlob.
// The tests take advantage of the fact that the methods are designed so that
// the series that is put into the BLOB must be identical to the series that
// comes out of the BLOB.
// This method is re-used by the actual test methods that follow.
public void ConvertBlobAll(List <TimeSeriesValue> inList,
TSDateCalculator.TimeStepUnitCode timeStepUnit, short timeStepQuantity,
DateTime blobStartDate)
{
TSLibrary tsLib = new TSLibrary();
List <TimeSeriesValue> outList = new List <TimeSeriesValue>();
int compressionCode;
byte[] blobData = tsLib.ConvertListToBlobWithChecksum(timeStepUnit, timeStepQuantity,
inList.Count, inList.First().Date, inList.Last().Date, inList,
new TSTrace {
TraceNumber = 1
}, out compressionCode);
int ret = tsLib.ConvertBlobToListAll(timeStepUnit, timeStepQuantity,
inList.Count, blobStartDate, blobData, ref outList, compressionCode);
// The return value of the function must match the number of items in the original list
Assert.AreEqual(ret, inList.Count);
// the count in both lists must match
Assert.AreEqual(outList.Count, inList.Count);
// now check each item in the two lists
Boolean AreEqual = true;
for (int i = 0; i < ret; i++)
{
if (outList[i].ValueEquals(inList[i]) == false)
{
AreEqual = false;
}
}
Assert.IsTrue(AreEqual);
}
private unsafe int WritingTest()
{
String paramTableName = "OutputTimeSeries";
String traceTableName = "OutputTimeSeriesTraces";
String extraParamNames =
"RunGUID, TimeSeriesType, VariableType, Unit_Id, VariableName, RunElementGUID";
String extraParamValues =
"'00000000-0000-0000-0000-000000000000', 2, 'Dummy', 2, 'DELETEME', '00000000-0000-0000-0000-000000000000'";
int connectionNumber = 1;
TSLibrary tsLib = new TSLibrary();
connectionNumber = tsLib.OpenConnection(
"Data Source=.; Database=NYC-SpeedTest; Trusted_Connection=yes;");
var connection = tsLib.ConnxObject.TSConnectionsCollection[connectionNumber];
List <Double> valList = new List <Double>();
DateTime date = StartDate;
int x = 0;
for (int i = 0; i < nVals; i++)
{
//x = Math.Abs(x - 1);
valList.Add(i * Math.PI);
date = date.AddDays(1);
}
var valArray = valList.ToArray();
//byte[] blob = null;
for (int j = 0; j < nIter; j++)
{
var ts = new TS(connection, paramTableName, traceTableName);
int id = ts.WriteParametersRegular(true, null,
(short)TSDateCalculator.TimeStepUnitCode.Day, 1, nVals, StartDate,
extraParamNames, extraParamValues);
//int id = 800291;
for (int i = 0; i < nTrc; i++)
{
ts.WriteTraceRegular(id, true, null, i + 1, valArray);
//ITimeSeriesTrace traceObject = new TSTrace
//{
// TraceNumber = i+1,
// TimeStepCount = nVals,
// EndDate = date
//};
//blob = TSBlobCoder.ConvertArrayToBlobRegular(valArray, 2, traceObject);
}
}
connection.CommitWritesToTable(traceTableName);
return(0); // blob.Length;
}
public List <ITimeSeriesTrace> Get3TracesRegular(
TSDateCalculator.TimeStepUnitCode u1, short q1, int c1,
DateTime sDate1, out DateTime eDate1,
Boolean shouldPerturb = false,
int perturbTraceIndex = 0, int perturbStep = 0,
double perturbVal = 0, double perturbMinutes = 0)
{
eDate1 = DateTime.Now; // dummy
TSLibrary tsLib = new TSLibrary();
List <ITimeSeriesTrace> traceList = new List <ITimeSeriesTrace>();
int compressionCode;
for (int t = 0; t < 3; t++)
{
TSTrace trace1 = new TSTrace {
TraceNumber = t + 1
};
List <TimeSeriesValue> tsValues = new List <TimeSeriesValue>();
DateTime curDate = sDate1;
Double curVal = 20;
for (int i = 0; i < c1; i++)
{
tsValues.Add(new TimeSeriesValue {
Date = curDate, Value = curVal
});
curDate = tsLib.IncrementDate(curDate, u1, q1, 1);
curVal = curVal + i / (t + 1);
}
// make a perturbation if called for
if (shouldPerturb && t == perturbTraceIndex)
{
tsValues[perturbStep].Value += perturbVal;
tsValues[perturbStep].Date = tsValues[perturbStep].Date.AddMinutes(perturbMinutes);
}
eDate1 = tsValues.Last().Date;
tsLib.ConvertListToBlobWithChecksum(
u1, q1, c1,
sDate1, eDate1, tsValues, trace1, out compressionCode);
traceList.Add(trace1);
}
return(traceList);
}
public void ComputeChecksum_Err1()
{
TSLibrary tsLib = new TSLibrary();
TSTrace traceObject = new TSTrace {
TraceNumber = 1
};
try
{
byte[] blobData = tsLib.ComputeChecksum(
TSDateCalculator.TimeStepUnitCode.Irregular, 3,
IrregList1.First().Date, new List <ITimeSeriesTrace>());
Assert.Fail("Should have thrown exception");
}
catch (TSLibraryException e)
{
Assert.AreEqual(ErrCode.Enum.Checksum_Quantity_Nonzero, e.ErrCode);
}
}
public void ConvertListToBlobWithChecksum_Err4()
{
TSLibrary tsLib = new TSLibrary();
TSTrace traceObject = new TSTrace {
TraceNumber = 1
};
int compressionCode;
try
{
byte[] blobData = tsLib.ConvertListToBlobWithChecksum(
TSDateCalculator.TimeStepUnitCode.Irregular, 0,
IrregList1.Count, IrregList1.First().Date, IrregList1.Last().Date.AddDays(2),
IrregList1, traceObject, out compressionCode);
Assert.Fail("Should have thrown exception");
}
catch (TSLibraryException e)
{
Assert.AreEqual(ErrCode.Enum.Checksum_Improper_EndDate, e.ErrCode);
}
}
public void ConvertListToBlobWithChecksum_Err0()
{
TSLibrary tsLib = new TSLibrary();
TSTrace traceObject = new TSTrace {
TraceNumber = 1
};
int compressionCode;
try
{
byte[] blobData = tsLib.ConvertListToBlobWithChecksum(
TSDateCalculator.TimeStepUnitCode.Irregular, 0,
IrregList1.Count, IrregList1.First().Date, IrregList1.Last().Date,
IrregList1, traceObject, out compressionCode);
Assert.IsTrue(true);
}
catch (TSLibraryException)
{
Assert.Fail("Should not throw any exceptions");
}
}
// The series of tests below is for ConvertBlobToListLimited and ConvertListToBlob.
// The tests take advantage of the fact that the methods are designed so that
// the series that is put into the BLOB must be identical to the series that
// comes out of the BLOB.
// This method is re-used by the actual test methods that follow.
public void ConvertBlobLimited(List <TimeSeriesValue> inList,
TSDateCalculator.TimeStepUnitCode timeStepUnit, short timeStepQuantity,
DateTime blobStartDate,
int nCutStart, // the number of time steps that the test will truncate from the start of the series
int nCutEnd, // the number of time steps that the test will truncate from the end of the series
int nMax) // the maximum number of time steps to put into the series
{
TSLibrary tsLib = new TSLibrary();
List <TimeSeriesValue> outList = new List <TimeSeriesValue>();
int compressionCode;
byte[] blobData = tsLib.ConvertListToBlobWithChecksum(timeStepUnit, timeStepQuantity,
inList.Count, inList.First().Date, inList.Last().Date, inList,
new TSTrace {
TraceNumber = 1
}, out compressionCode);
int ret = tsLib.ConvertBlobToListLimited(timeStepUnit, timeStepQuantity,
inList.Count, blobStartDate,
nMax, inList[nCutStart].Date, inList[inList.Count - nCutEnd - 1].Date,
blobData, ref outList, compressionCode);
// The return value of the function must match the number of items in the original list
Assert.AreEqual(ret, Math.Min(nMax, inList.Count - nCutStart - nCutEnd));
// the count in both lists must match
Assert.AreEqual(outList.Count, Math.Min(nMax, inList.Count - nCutStart - nCutEnd));
// now check each item in the two lists
Boolean AreEqual = true;
for (int i = 0; i < ret; i++)
{
if (outList[i].ValueEquals(inList[i + nCutStart]) == false)
{
AreEqual = false;
}
}
Assert.IsTrue(AreEqual);
}
// This method is reused by the actual test methods that follow
public Boolean ComputeTestChecksums(
TSDateCalculator.TimeStepUnitCode u1, short q1,
DateTime sDate1, List <ITimeSeriesTrace> traceList1,
TSDateCalculator.TimeStepUnitCode u2, short q2,
DateTime sDate2, List <ITimeSeriesTrace> traceList2)
{
TSLibrary tsLib = new TSLibrary();
byte[] b1 = tsLib.ComputeChecksum(u1, q1, sDate1, traceList1);
byte[] b2 = tsLib.ComputeChecksum(u2, q2, sDate2, traceList2);
Assert.IsTrue(b1.Length == 16);
Assert.IsTrue(b2.Length == 16);
for (int i = 0; i < b2.Length; i++)
{
if (b1[i] != b2[i])
{
return(false);
}
}
return(true);
}
// Note--this test class was created primarily b/c we wanted to individually test the different
// compression methods. Hence, we have created the test methods below. The class TSBlobCoder
// certainly deserves full test coverage, but that can be developed later. In the meantime,
// it is generally expected that TSBlobCoder has adequate test coverage via TSLibraryTest.
#region Test Methods for ConvertBlobToListAll() and ConvertListToBlob()
// The series of tests below is for ConvertBlobToListAll and ConvertListToBlob.
// The tests take advantage of the fact that the methods are designed so that
// the series that is put into the BLOB must be identical to the series that
// comes out of the BLOB.
// This method is re-used by the actual test methods that follow.
public void ConvertBlobAll(List <TimeSeriesValue> inList,
TSDateCalculator.TimeStepUnitCode timeStepUnit, short timeStepQuantity,
DateTime blobStartDate, int compressionCode)
{
TSLibrary tsLib = new TSLibrary();
var traceObject = new TSTrace
{
TraceNumber = 1,
TimeStepCount = inList.Count,
EndDate = inList.Last().Date
};
if (timeStepUnit == TSDateCalculator.TimeStepUnitCode.Irregular)
{
var inArray = inList.Select(v => (TSDateValueStruct)v).ToArray();
var outArray = new TSDateValueStruct[inList.Count];
byte[] blobData = TSBlobCoder.ConvertArrayToBlobIrregular(inArray,
compressionCode, traceObject);
int ret = TSBlobCoder.ConvertBlobToArrayIrregular(inList.Count,
false, 0, blobStartDate, blobStartDate,
blobData, outArray, compressionCode);
// The return value of the function must match the number of items in the original list
Assert.AreEqual(ret, inList.Count);
// the count in both lists must match
Assert.AreEqual(inArray.Length, outArray.Length);
// now check each item in the two lists
Boolean AreEqual = true;
for (int i = 0; i < ret; i++)
{
if (outArray[i].Date != inArray[i].Date || outArray[i].Value != inArray[i].Value)
{
AreEqual = false;
}
}
Assert.IsTrue(AreEqual);
}
else
{
var inArray = inList.Select(v => v.Value).ToArray();
var outArray = new Double[inList.Count];
byte[] blobData = TSBlobCoder.ConvertArrayToBlobRegular(inArray,
compressionCode, traceObject);
int ret = TSBlobCoder.ConvertBlobToArrayRegular(timeStepUnit, timeStepQuantity,
inList.Count, blobStartDate,
false, 0, blobStartDate, blobStartDate,
blobData, outArray, compressionCode);
// The return value of the function must match the number of items in the original list
Assert.AreEqual(ret, inList.Count);
// the count in both lists must match
Assert.AreEqual(inArray.Length, outArray.Length);
// now check each item in the two lists
Boolean AreEqual = true;
for (int i = 0; i < ret; i++)
{
if (outArray[i] != inArray[i])
{
AreEqual = false;
}
}
Assert.IsTrue(AreEqual);
}
}