public static void GetDogfoodCPUSeries()
{
var testCertificateThumbprint = "C35CBFF9FA6C51E51E1DE97B6D1E246F27661301";
var httpsUrl = "https://shoebox2.metrics.nsatc.net/public/monitoringAccount/SignalRShoeboxTest/homeStamp";
var connectionInfo = new ConnectionInfo(new Uri(httpsUrl), testCertificateThumbprint, StoreLocation.LocalMachine);
var reader = new MetricReader(connectionInfo);
// Single metric
var id = new MetricIdentifier("SignalRShoeboxTest", "systemLoad", "PodCpuUsage");
//var id = new MetricIdentifier("SignalRShoeboxTest", "ShoeboxInternal", "MessageCountRaw");
//var id = new MetricIdentifier("SignalRShoeboxTest", "systemLoad", "PodMemory");
// The short link for this series is http://jarvis-int.dc.ad.msft.net/D10A9E2E.
var definition = new TimeSeriesDefinition <MetricIdentifier>(
id,
new Dictionary <string, string> { //{ "ResourceId", resourceId}
{ "resourceKubeId", "62a558c2-2895-423d-a7b0-05b03a15b65a" }
});
TimeSeries <MetricIdentifier, double?> result =
reader.GetTimeSeriesAsync(DateTime.UtcNow.AddMinutes(-10), DateTime.UtcNow, SamplingType.Max, definition).Result;
foreach (var dataPoint in result.Datapoints)
{
Console.WriteLine("Time: {0}, Value: {1}", dataPoint.TimestampUtc, dataPoint.Value);
}
Console.WriteLine(JsonConvert.SerializeObject(result));
Console.WriteLine("############################ END OF GetDogfoodSeries ##############################");
}
public static string QueryMetrics(string podName, PlatformType platformType, SystemLoadType systemLoadType, DateTime startTime, DateTime endTime, string filePath)
{
if (platformType == PlatformType.Dogfood)
{
var testCertificateThumbprint = "C35CBFF9FA6C51E51E1DE97B6D1E246F27661301";
var httpsUrl = "https://shoebox2.metrics.nsatc.net/public/monitoringAccount/SignalRShoeboxTest/homeStamp";
var connectionInfo = new ConnectionInfo(new Uri(httpsUrl), testCertificateThumbprint, StoreLocation.LocalMachine);
var id = new MetricIdentifier("SignalRShoeboxTest", "systemLoad", systemLoadType == SystemLoadType.CPU ? "PodCpuUsage" : "PodMemory");
var reader = new MetricReader(connectionInfo);
// The short link for this series is http://jarvis-int.dc.ad.msft.net/D10A9E2E.
var definition = new TimeSeriesDefinition <MetricIdentifier>(
id,
new Dictionary <string, string> {
{ "podName", podName }
});
TimeSeries <MetricIdentifier, double?> result =
reader.GetTimeSeriesAsync(startTime, endTime, SamplingType.Max, definition).Result;
var strOutput = JsonConvert.SerializeObject(result);
using (System.IO.StreamWriter file = new System.IO.StreamWriter(filePath, false))
{
file.Write(strOutput);
}
return(strOutput);
}
return(null);
}
/// <summary>
/// Gets the current monitor health status.
/// </summary>
/// <param name="monitorInstanceDefinition">The monitor instance definition.</param>
/// <returns>
/// The current monitor health status.
/// </returns>
public async Task <IMonitorHealthStatus> GetCurrentHealthStatusAsync(TimeSeriesDefinition <MonitorIdentifier> monitorInstanceDefinition)
{
if (monitorInstanceDefinition == null)
{
throw new ArgumentNullException(nameof(monitorInstanceDefinition));
}
var statuses = await this.GetMultipleCurrentHeathStatusesAsync(monitorInstanceDefinition).ConfigureAwait(false);
return(statuses.First().Value);
}
/// <summary>
/// Reads the monitor information.
/// </summary>
public static void ReadMonitorInfo()
{
// Replace 31280E2F2D2220808315C212DF8062A295B28325 with your cert thumbprint,
// install it to the "Personal\Certificates" folder in the "Local Computer" certificate store,
// and grant the permission of reading the private key to the service/application using the MDM consumption APIs.
string testCertificateThumbprint = "31280E2F2D2220808315C212DF8062A295B28325";
var connectionInfo = new ConnectionInfo(testCertificateThumbprint, StoreLocation.LocalMachine, MdmEnvironment.Int);
var reader = new MonitorReader(connectionInfo);
var id = new MetricIdentifier("MetricTeamInternalMetrics", "PlatformMetrics", "\\Memory\\Available MBytes");
IReadOnlyList <MonitorIdentifier> result = reader.GetMonitorsAsync(id).Result;
Console.WriteLine("There are {0} monitors under {1} - {2}.\n", result.Count, id.MetricName, JsonConvert.SerializeObject(result));
var allMonitors = reader.GetMonitorsAsync(id.MonitoringAccount).Result;
Console.WriteLine("There are {0} monitors under {1} - {2}.\n", allMonitors.Count, id.MonitoringAccount, JsonConvert.SerializeObject(allMonitors));
var definition = new TimeSeriesDefinition <MonitorIdentifier>(
result[0],
new Dictionary <string, string> {
{ "Datacenter", "westus" }, { "__Role", "metrics.server" }
});
IMonitorHealthStatus result2 = reader.GetCurrentHeathStatusAsync(definition).Result;
Console.WriteLine("The current health status is {0}.\n", JsonConvert.SerializeObject(result2));
var definition2 = new TimeSeriesDefinition <MonitorIdentifier>(
result[0],
new Dictionary <string, string> {
{ "Datacenter", "eastus2" }, { "__Role", "metrics.server" }
});
var statuses = reader.GetMultipleCurrentHeathStatusesAsync(definition, definition2).Result;
Console.WriteLine("The current health statuses are: \n{0}.\n{1}.\n ", JsonConvert.SerializeObject(statuses[0]), JsonConvert.SerializeObject(statuses[1]));
// The short link for the history is http://jarvis-int.dc.ad.msft.net/44EA28BD
TimeSeries <MonitorIdentifier, bool?> result3 =
reader.GetMonitorHistoryAsync(DateTime.UtcNow.AddMinutes(-10), DateTime.UtcNow, definition).Result;
Console.WriteLine("The monitor health history is:");
foreach (var datapoint in result3.Datapoints)
{
Console.WriteLine("Time: {0}, Result: {1}", datapoint.TimestampUtc, datapoint.Value);
}
Console.WriteLine("############################ END OF ReadMonitorInfo ##############################");
}
/// <summary>
/// Gets the single time series.
/// </summary>
/// <param name="useUserAuth">if set to <c>true</c>, use user authentication; otherwise use certificate authentication.</param>
public static void GetSingleTimeSeries(bool useUserAuth)
{
ConnectionInfo connectionInfo;
if (useUserAuth)
{
connectionInfo = new ConnectionInfo(MdmEnvironment.Int);
}
else
{
// Replace 31280E2F2D2220808315C212DF8062A295B28325 with your cert thumbprint,
// install it to the "Personal\Certificates" folder in the "Local Computer" certificate store,
// and grant the permission of reading the private key to the service/application using the MDM consumption APIs.
string testCertificateThumbprint = "C35CBFF9FA6C51E51E1DE97B6D1E246F27661301";
connectionInfo = new ConnectionInfo(new Uri("https://shoebox2.metrics.nsatc.net/public/monitoringAccount/SignalRShoeboxTest/homeStamp"), testCertificateThumbprint, StoreLocation.LocalMachine);
}
var reader = new MetricReader(connectionInfo);
// Single metric
var id = new MetricIdentifier("SignalRShoeboxTest", "ShoeboxInternal", "ConnectionCountDelta");
//var id = new MetricIdentifier("SignalRShoeboxTest", "systemLoad", "PodMemory");
// The short link for this series is http://jarvis-int.dc.ad.msft.net/D10A9E2E.
var definition = new TimeSeriesDefinition <MetricIdentifier>(
id,
new Dictionary <string, string> {
{ "ResourceId", "/subscriptions/5ea15035-434e-46ba-97cd-ea0927a47104/resourceGroups/testsoutheastasia/providers/Microsoft.SignalRService/SignalR/honzhangcenable3" }
});
TimeSeries <MetricIdentifier, double?> result =
reader.GetTimeSeriesAsync(DateTime.UtcNow.AddMinutes(-10), DateTime.UtcNow, SamplingType.Average, definition).Result;
foreach (var dataPoint in result.Datapoints)
{
Console.WriteLine("Time: {0}, Value: {1}", dataPoint.TimestampUtc, dataPoint.Value);
}
Console.WriteLine("############################ END OF GetSingleTimeSeries ##############################");
}
/// <summary>
/// Determines whether it is count sampling type.
/// </summary>
/// <param name="definition">The definition.</param>
/// <param name="samplingTypeIndex">The sampling type index.</param>
/// <returns>True if it is count sampling type; false otherwise.</returns>
private static bool IsCountSamplingType(TimeSeriesDefinition <MetricIdentifier> definition, int samplingTypeIndex)
{
return((definition == null && samplingTypeIndex == 0) || (definition != null && definition.SamplingTypes[samplingTypeIndex].Equals(SamplingType.Count)));
}
/// <summary>
/// Deserializes for one timestamp - v2.
/// </summary>
/// <param name="version">The serialization version.</param>
/// <param name="reader">The bit reader.</param>
/// <param name="definition">The definition.</param>
/// <param name="values">The values.</param>
/// <param name="dataPointIndex">Index of the data point.</param>
/// <param name="currentBlockLeadingZeros">The current block leading zeros.</param>
/// <param name="currentBlockTrailingZeros">The current block trailing zeros.</param>
/// <param name="priorValidValues">The prior valid values.</param>
private static void DeserializeForOneTimestampV2AndAbove(byte version, BitBinaryReader reader, TimeSeriesDefinition <MetricIdentifier> definition, List <List <double?> > values, int dataPointIndex, sbyte[] currentBlockLeadingZeros, sbyte[] currentBlockTrailingZeros, double[] priorValidValues)
{
var numSamplingTypes = values.Count;
for (var s = 0; s < numSamplingTypes; s++)
{
if (dataPointIndex == 0)
{
// very first value of the series
priorValidValues[s] = reader.BinaryReader.ReadDouble();
values[s].Add(GetNullableDouble(priorValidValues[s]));
}
else
{
var firstBit = reader.ReadBit();
if (!firstBit)
{
// first bit is 0
values[s].Add(GetNullableDouble(priorValidValues[s]));
}
else
{
var secondBit = reader.ReadBit();
long meaningfulBits;
if (!secondBit)
{
// 2nd bit is 0 while the first is 1.
if (currentBlockLeadingZeros[s] < 0)
{
throw new Exception("The block has not been set so it is a bug in serialization on server");
}
var numBitsToRead = BitAggregateMagic.NumBitsInLongInteger - currentBlockLeadingZeros[s] - currentBlockTrailingZeros[s];
meaningfulBits = reader.ReadBits(numBitsToRead);
}
else
{
// a new block position was started since the number starts with "11".
currentBlockLeadingZeros[s] = (sbyte)reader.ReadBits(GetNumBitsToEncodeNumLeadingZeros(version));
var numBitsToRead = (sbyte)reader.ReadBits(NumBitsToEncodeNumMeaningfulBits);
if (numBitsToRead == 0)
{
// The block size is 64 bits which becomes 0 in writing into 6 bits - overflow.
// If the block size were indeed 0 bits, the xor value would be 0, and the actual value would be identical to the prior value,
// so we would not have reached here since firstBit would be 0.
numBitsToRead = (sbyte)BitAggregateMagic.NumBitsInLongInteger;
}
currentBlockTrailingZeros[s] = (sbyte)(BitAggregateMagic.NumBitsInLongInteger - currentBlockLeadingZeros[s] - numBitsToRead);
meaningfulBits = reader.ReadBits(numBitsToRead);
}
long xor = meaningfulBits << currentBlockTrailingZeros[s];
priorValidValues[s] = BitConverter.Int64BitsToDouble(xor ^ BitConverter.DoubleToInt64Bits(priorValidValues[s]));
values[s].Add(GetNullableDouble(priorValidValues[s]));
}
}
}
}
/// <summary>
/// Deserializes for one timestamp - v1.
/// </summary>
/// <param name="reader">The reader.</param>
/// <param name="definition">The definition.</param>
/// <param name="sparseData">if set to <c>true</c> [sparse data].</param>
/// <param name="values">The metric values.</param>
/// <param name="sampleTyesWithMetricValueTypeLong">The sample tyes with metric value type long.</param>
/// <param name="priorValidValues">The prior valid values.</param>
/// <param name="scalingFactor">The scaling factor.</param>
private static void DeserializeForOneTimestampV1(
BinaryReader reader,
TimeSeriesDefinition <MetricIdentifier> definition,
bool sparseData,
List <List <double?> > values,
bool[] sampleTyesWithMetricValueTypeLong,
double[] priorValidValues,
uint scalingFactor)
{
// For sparse data, although we don't serialize null values but we do serialize the number of null values between two serialized data points
// so that we can restore those null values on the client side.
if (sparseData)
{
var numMissingDatapointsSinceLastOne = SerializationUtils.ReadUInt32FromBase128(reader);
FillNulls(numMissingDatapointsSinceLastOne, values);
}
for (int samplingTypeIndex = 0; samplingTypeIndex < values.Count; samplingTypeIndex++)
{
if (sampleTyesWithMetricValueTypeLong[samplingTypeIndex])
{
// variable length encoding with differences.
var delta = SerializationUtils.ReadInt64FromBase128(reader);
if (delta == long.MaxValue)
{
// Padding
values[samplingTypeIndex].Add(null);
}
else
{
// We request unscaled values from server and apply the scaling factor on the client.
var unScaledValue = delta + priorValidValues[samplingTypeIndex];
if (IsCountSamplingType(definition, samplingTypeIndex))
{
values[samplingTypeIndex].Add(unScaledValue);
}
else
{
values[samplingTypeIndex].Add(unScaledValue / scalingFactor);
}
priorValidValues[samplingTypeIndex] = unScaledValue;
}
}
else
{
// We don't encode double in v1, so even a delta is still 8 bytes.
var delta = reader.ReadDouble();
if (double.IsNaN(delta))
{
// Padding
values[samplingTypeIndex].Add(null);
}
else
{
var unScaledValue = delta + priorValidValues[samplingTypeIndex];
if (IsCountSamplingType(definition, samplingTypeIndex))
{
values[samplingTypeIndex].Add(delta + priorValidValues[samplingTypeIndex]);
}
else
{
values[samplingTypeIndex].Add((delta + priorValidValues[samplingTypeIndex]) / scalingFactor);
}
priorValidValues[samplingTypeIndex] = unScaledValue;
}
}
}
}
/// <summary>
/// Deserializes one series.
/// </summary>
/// <param name="version">The serialization version.</param>
/// <param name="reader">The reader.</param>
/// <param name="definition">The definition.</param>
/// <param name="numSamplingTypesRequested">The number of sampling types.</param>
/// <returns>An <see cref="DeserializedRawData"/> object.</returns>
private static DeserializedRawData DeserializeOneSeries(byte version, BinaryReader reader, TimeSeriesDefinition <MetricIdentifier> definition, int numSamplingTypesRequested)
{
// Read the number of data points.
var totalNumberOfDatapoints = SerializationUtils.ReadInt32FromBase128(reader);
if (totalNumberOfDatapoints < 0)
{
// Failed to query the series. We reuse the same byte(s) for totalNumberOfDatapoints for error codes.
return(new DeserializedRawData(0, 0, null, (TimeSeriesErrorCode)totalNumberOfDatapoints));
}
// Read the number of missing data points or those with null values so that we can get the total size of data points next.
// in V2 and beyond, totalNumberMissingDatapoints is always to set to 0 since each missing data point in a very sparse series just uses a single bit for padding,
// and scaling will be done on the server side.
uint totalNumberMissingDatapoints = 0;
uint scalingFactor = 1;
if (version == 1)
{
totalNumberMissingDatapoints = SerializationUtils.ReadUInt32FromBase128(reader);
// We want to apply the scaling factor on the client so that server can return metric values of type long with variable length encoding.
scalingFactor = SerializationUtils.ReadUInt32FromBase128(reader);
}
var numberDatapointsToDeserialize = totalNumberOfDatapoints - (int)totalNumberMissingDatapoints;
var numSamplingTypes = definition?.SamplingTypes.Length ?? numSamplingTypesRequested;
var values = new List <List <double?> >(numSamplingTypes);
for (int index = 0; index < numSamplingTypes; index++)
{
values.Add(new List <double?>(totalNumberOfDatapoints));
}
// We use deltas/differences as compared with the prior data point.
// Although deltas/differences don't help values of type double, it will when we encode double type in the future.
var priorValidValues = new double[numSamplingTypes];
var sampleTyesWithMetricValueTypeLong = new bool[numSamplingTypes];
// Used for implementing the Gorilla algorithm
sbyte[] currentBlockLeadingZeros = new sbyte[numSamplingTypes];
sbyte[] currentBlockTrailingZeros = new sbyte[numSamplingTypes];
for (int index = 0; index < numSamplingTypes; index++)
{
priorValidValues[index] = 0;
currentBlockLeadingZeros[index] = -1;
currentBlockTrailingZeros[index] = -1;
if (definition == null || IsMetricValueTypeLong(definition.SamplingTypes[index], definition.SeriesResolutionInMinutes, definition.AggregationType))
{
sampleTyesWithMetricValueTypeLong[index] = true;
}
}
var sparseData = totalNumberMissingDatapoints > 0;
var bitReader = new BitBinaryReader(reader);
for (int d = 0; d < numberDatapointsToDeserialize; ++d)
{
if (version == 1)
{
DeserializeForOneTimestampV1(reader, definition, sparseData, values, sampleTyesWithMetricValueTypeLong, priorValidValues, scalingFactor);
}
else
{
DeserializeForOneTimestampV2AndAbove(version, bitReader, definition, values, d, currentBlockLeadingZeros, currentBlockTrailingZeros, priorValidValues);
}
}
// Fill the remaining missing data points at the tail of the series.
if (sparseData)
{
if (values[0].Count < totalNumberOfDatapoints)
{
var numNullsToFill = totalNumberOfDatapoints - values[0].Count;
FillNulls((uint)numNullsToFill, values);
}
}
// Start time can be adjusted for distinct count metric or when rollup serivce is enabled.
var deltaOfStartTimeInMinutes = SerializationUtils.ReadInt32FromBase128(reader);
// resolution window can be adjusted for distinct count metric or when rollup serivce is enabled.
var deltaOfResolutionWindowInMinutes = SerializationUtils.ReadInt32FromBase128(reader);
Debug.Assert(values[0].Count == totalNumberOfDatapoints, $"{values[0].Count} != {totalNumberOfDatapoints}, and this indicates a bug somewhere.");
return(new DeserializedRawData(deltaOfStartTimeInMinutes, deltaOfResolutionWindowInMinutes, values, TimeSeriesErrorCode.Success));
}
public async Task <TimeSeries <MonitorIdentifier, bool?> > GetMonitorHistoryAsync(
DateTime startTimeUtc,
DateTime endTimeUtc,
TimeSeriesDefinition <MonitorIdentifier> monitorInstanceDefinition)
{
if (monitorInstanceDefinition == null)
{
throw new ArgumentNullException("monitorInstanceDefinition");
}
if (startTimeUtc > endTimeUtc)
{
throw new ArgumentException(string.Format("startTimeUtc [{0}] must be <= endTimeUtc [{1}]", startTimeUtc, endTimeUtc));
}
startTimeUtc = new DateTime(startTimeUtc.Ticks / TimeSpan.TicksPerMinute * TimeSpan.TicksPerMinute);
endTimeUtc = new DateTime(endTimeUtc.Ticks / TimeSpan.TicksPerMinute * TimeSpan.TicksPerMinute);
string dimensionsFlattened = null;
if (monitorInstanceDefinition.DimensionCombination != null)
{
dimensionsFlattened = string.Join(
"/",
monitorInstanceDefinition.DimensionCombination.Select(
d => string.Join("/", SpecialCharsHelper.EscapeTwice(d.Key), SpecialCharsHelper.EscapeTwice(d.Value))));
}
string operation = $"{this.HealthRelativeUrl}/history";
string url = string.Format(
"{0}{1}/monitoringAccount/{2}/metricNamespace/{3}/metric/{4}/monitorId/{5}/from/{6}/to/{7}{8}",
this.connectionInfo.GetEndpoint(monitorInstanceDefinition.Id.MetricIdentifier.MonitoringAccount),
operation,
monitorInstanceDefinition.Id.MetricIdentifier.MonitoringAccount,
SpecialCharsHelper.EscapeTwice(monitorInstanceDefinition.Id.MetricIdentifier.MetricNamespace),
SpecialCharsHelper.EscapeTwice(monitorInstanceDefinition.Id.MetricIdentifier.MetricName),
SpecialCharsHelper.EscapeTwice(monitorInstanceDefinition.Id.MonitorId),
UnixEpochHelper.GetMillis(startTimeUtc),
UnixEpochHelper.GetMillis(endTimeUtc),
dimensionsFlattened != null ? "/" + dimensionsFlattened : string.Empty);
var response = await this.GetResponseAsStringDelegate(
new Uri(url),
HttpMethod.Get,
this.httpClient,
monitorInstanceDefinition.Id.MetricIdentifier.MonitoringAccount,
operation,
null,
string.Empty,
null,
null,
MetricQueryResponseDeserializer.CurrentVersion,
NumAttempts).ConfigureAwait(false);
var values = JsonConvert.DeserializeObject <List <bool?> >(response.Item1);
return(new TimeSeries <MonitorIdentifier, bool?>(startTimeUtc, endTimeUtc, SerializationConstants.DefaultSeriesResolutionInMinutes, monitorInstanceDefinition, new List <List <bool?> > {
values
}, TimeSeriesErrorCode.Success));
}
/// <summary>
/// Gets the current heath status asynchronous.
/// Deprecated due to wrong spelling ("Heath" instead of "Health") Exists for backward compatibility
/// </summary>
/// <param name="monitorInstanceDefinition">The monitor instance definition.</param>
/// <returns>
/// Monitor health status.
/// </returns>
public async Task <IMonitorHealthStatus> GetCurrentHeathStatusAsync(TimeSeriesDefinition <MonitorIdentifier> monitorInstanceDefinition)
{
return(await this.GetCurrentHealthStatusAsync(monitorInstanceDefinition).ConfigureAwait(false));
}
