public ProfileRequestResponse <T> Invoke(ProfileRequestArgument_ClusterCompute arg)
{
_log.LogInformation("In ProfileRequestComputeFunc.Invoke()");
try
{
// Quantized mesh requests can be a significant resource commitment. Ensure TPaaS will be listening...
PerformTPaaSRequestLivelinessCheck(arg);
var executor = new ComputeProfileExecutor_ClusterCompute <T>(arg.ProfileStyle, arg.ProjectID, arg.ProfileTypeRequired, arg.NEECoords, arg.Filters,
arg.ReferenceDesign, arg.ReturnAllPassesAndLayers, arg.VolumeType, arg.Overrides, arg.LiftParams);
_log.LogInformation("Executing profiler.ExecuteAsync()");
return(executor.ExecuteAsync().WaitAndUnwrapException());
}
catch (Exception e)
{
_log.LogError(e, "Exception requesting profile at cluster compute layer");
return(new ProfileRequestResponse <T> {
ResultStatus = Types.RequestErrorStatus.Exception
});
}
finally
{
_log.LogInformation("Exiting ProfileRequestComputeFunc.Invoke()");
}
}
public void Test_ProfileRequestArgument_ClusterCompute()
{
var coords = new XYZ[3];
for (var i = 0; i < coords.Length; i++)
{
coords[i] = new XYZ(0.0, 0.0, 0.0);
}
var argument = new ProfileRequestArgument_ClusterCompute()
{
ProjectID = Guid.NewGuid(),
Filters = new FilterSet(new CombinedFilter()),
ReferenceDesign = new DesignOffset(Guid.NewGuid(), 1.5),
ProfileTypeRequired = GridDataType.Height,
NEECoords = coords,
ReturnAllPassesAndLayers = false,
Overrides = new OverrideParameters {
CMVRange = new CMVRangePercentageRecord(35.7, 104.9), OverrideMachineCCV = true, OverridingMachineCCV = 142
}
};
SimpleBinarizableInstanceTester.TestClass(argument, "Custom ProfileRequestArgument_ClusterCompute not same after round trip serialisation");
}
/// <summary>
/// Executes the profiler
/// </summary>
public async Task <ProfileRequestResponse <T> > ExecuteAsync(ProfileRequestArgument_ApplicationService arg)
{
_log.LogInformation("Start execution");
try
{
if (arg.Filters?.Filters != null && arg.Filters.Filters.Length > 0)
{
// Prepare the filters for use in profiling operations. Failure to prepare any filter results in this request terminating
if (!arg.Filters.Filters.Select(x => FilterUtilities.PrepareFilterForUse(x, arg.ProjectID)).All(x => x == RequestErrorStatus.OK))
{
return(new ProfileRequestResponse <T> {
ResultStatus = RequestErrorStatus.FailedToPrepareFilter
});
}
}
var arg2 = new ProfileRequestArgument_ClusterCompute
{
ProfileTypeRequired = arg.ProfileTypeRequired,
ProfileStyle = arg.ProfileStyle,
ProjectID = arg.ProjectID,
Filters = arg.Filters,
ReferenceDesign = arg.ReferenceDesign,
ReturnAllPassesAndLayers = arg.ReturnAllPassesAndLayers,
TRexNodeID = arg.TRexNodeID,
VolumeType = arg.VolumeType,
Overrides = arg.Overrides,
LiftParams = arg.LiftParams
};
// Perform coordinate conversion on the argument before broadcasting it:
if (arg.PositionsAreGrid)
{
arg2.NEECoords = new[] { arg.StartPoint, arg.EndPoint }.Select(x => new XYZ(x.Lon, x.Lat)).ToArray();
}
else
{
var siteModel = DIContext.Obtain <ISiteModels>().GetSiteModel(arg.ProjectID);
if (siteModel != null)
{
arg2.NEECoords = DIContext.Obtain <ICoreXWrapper>().WGS84ToCalibration(
siteModel.CSIB(),
new[] { arg.StartPoint, arg.EndPoint }
.ToCoreX_WGS84Point(),
CoreX.Types.InputAs.Radians)
.ToTRex_XYZ();
}
}
var request = new ProfileRequest_ClusterCompute <T>();
var profileResponse = await request.ExecuteAsync(arg2);
profileResponse.GridDistanceBetweenProfilePoints = MathUtilities.Hypot(arg2.NEECoords[1].X - arg2.NEECoords[0].X, arg2.NEECoords[1].Y - arg2.NEECoords[0].Y);
//... and then sort them to get the final result, as well as removing initial and duplicate null values
// Remove null cells in the profiles list. Null cells are defined by cells with null CellLastHeight.
// All duplicate null cells will be replaced by a by single null cell entry
int firstNonNullIndex = 0;
var _profileCells = profileResponse?.ProfileCells?.OrderBy(x => x.Station).ToList();
if (_profileCells != null)
{
profileResponse.ProfileCells = _profileCells.Where((x, i) =>
{
// Remove all leading nulls
if (_profileCells[i].IsNull() && i == firstNonNullIndex)
{
firstNonNullIndex++;
return(false);
}
// Collapse all interior nulls to single nulls, unless the null is at the end. Leave any single terminating null
return(i == 0 || !_profileCells[i].IsNull() || (_profileCells[i].IsNull() && !_profileCells[i - 1].IsNull()));
}).ToList();
}
// Return the care package to the caller
return(profileResponse);
}
finally
{
_log.LogInformation("End execution");
}
}
