private IEnumerable <WaveConditionsOutput> CalculateBlocks(StabilityStoneCoverWaveConditionsCalculation calculation,
IAssessmentSection assessmentSection, RoundedDouble assessmentLevel,
GeneralWaveConditionsInput generalInput, double targetProbability)
{
return(Calculate(calculation, assessmentSection, assessmentLevel, generalInput, targetProbability,
Resources.StabilityStoneCoverWaveConditions_Blocks_DisplayName));
}
public void Constructor_ExpectedValues()
{
// Call
var inputParameters = new GeneralGrassCoverErosionOutwardsInput();
// Assert
Assert.AreEqual(2, inputParameters.N.NumberOfDecimalPlaces);
Assert.AreEqual(2.0, inputParameters.N, inputParameters.N.GetAccuracy());
GeneralWaveConditionsInput generalWaveImpactWaveConditionsInput = inputParameters.GeneralWaveImpactWaveConditionsInput;
Assert.AreEqual(1.0, generalWaveImpactWaveConditionsInput.A, generalWaveImpactWaveConditionsInput.A.GetAccuracy());
Assert.AreEqual(0.67, generalWaveImpactWaveConditionsInput.B, generalWaveImpactWaveConditionsInput.B.GetAccuracy());
Assert.AreEqual(0.0, generalWaveImpactWaveConditionsInput.C, generalWaveImpactWaveConditionsInput.C.GetAccuracy());
GeneralWaveConditionsInput generalWaveRunUpWaveConditionsInput = inputParameters.GeneralWaveRunUpWaveConditionsInput;
Assert.AreEqual(1.0, generalWaveRunUpWaveConditionsInput.A, generalWaveRunUpWaveConditionsInput.A.GetAccuracy());
Assert.AreEqual(1.7, generalWaveRunUpWaveConditionsInput.B, generalWaveRunUpWaveConditionsInput.B.GetAccuracy());
Assert.AreEqual(0.3, generalWaveRunUpWaveConditionsInput.C, generalWaveRunUpWaveConditionsInput.C.GetAccuracy());
GeneralWaveConditionsInput generalWaveImpactWithWaveDirectionWaveConditionsInput = inputParameters.GeneralWaveImpactWithWaveDirectionWaveConditionsInput;
Assert.AreEqual(1.0, generalWaveImpactWithWaveDirectionWaveConditionsInput.A, generalWaveImpactWithWaveDirectionWaveConditionsInput.A.GetAccuracy());
Assert.AreEqual(0.67, generalWaveImpactWithWaveDirectionWaveConditionsInput.B, generalWaveImpactWithWaveDirectionWaveConditionsInput.B.GetAccuracy());
Assert.AreEqual(0.67, generalWaveImpactWithWaveDirectionWaveConditionsInput.C, generalWaveImpactWithWaveDirectionWaveConditionsInput.C.GetAccuracy());
Assert.IsFalse(inputParameters.ApplyLengthEffectInSection);
}
/// <summary>
/// Initializes a new instance of the <see cref="GeneralGrassCoverErosionOutwardsInput"/> class.
/// </summary>
public GeneralGrassCoverErosionOutwardsInput()
{
n = new RoundedDouble(numberOfDecimalPlacesN, 2.0);
GeneralWaveImpactWaveConditionsInput = new GeneralWaveConditionsInput(1.0, 0.67, 0.0);
GeneralWaveRunUpWaveConditionsInput = new GeneralWaveConditionsInput(1.0, 1.7, 0.3);
GeneralWaveImpactWithWaveDirectionWaveConditionsInput = new GeneralWaveConditionsInput(1.0, 0.67, 0.67);
}
public void Calculate_Always_InputPropertiesCorrectlySentToCalculator(BreakWaterType breakWaterType)
{
// Setup
IAssessmentSection assessmentSection = CreateAssessmentSectionWithHydraulicBoundaryOutput();
WaveImpactAsphaltCoverWaveConditionsCalculation calculation = GetValidCalculation(assessmentSection.HydraulicBoundaryDatabase.Locations.First());
calculation.InputParameters.BreakWater.Type = breakWaterType;
var waveImpactAsphaltCoverFailureMechanism = new WaveImpactAsphaltCoverFailureMechanism();
var calculator = new TestWaveConditionsCosineCalculator();
var mockRepository = new MockRepository();
var calculatorFactory = mockRepository.StrictMock <IHydraRingCalculatorFactory>();
calculatorFactory.Expect(cf => cf.CreateWaveConditionsCosineCalculator(null))
.IgnoreArguments()
.Return(calculator)
.Repeat
.Times(3);
mockRepository.ReplayAll();
using (new HydraRingCalculatorFactoryConfig(calculatorFactory))
{
// Call
new WaveImpactAsphaltCoverWaveConditionsCalculationService().Calculate(
calculation,
assessmentSection,
waveImpactAsphaltCoverFailureMechanism.GeneralInput);
// Assert
WaveConditionsCosineCalculationInput[] waveConditionsInputs = calculator.ReceivedInputs.ToArray();
Assert.AreEqual(3, waveConditionsInputs.Length);
var waterLevelIndex = 0;
foreach (WaveConditionsCosineCalculationInput actualInput in waveConditionsInputs)
{
GeneralWaveConditionsInput generalInput = waveImpactAsphaltCoverFailureMechanism.GeneralInput;
WaveConditionsInput input = calculation.InputParameters;
var expectedInput = new WaveConditionsCosineCalculationInput(1,
input.Orientation,
input.HydraulicBoundaryLocation.Id,
assessmentSection.FailureMechanismContribution.MaximumAllowableFloodingProbability,
input.ForeshoreProfile.Geometry.Select(c => new HydraRingForelandPoint(c.X, c.Y)),
new HydraRingBreakWater(BreakWaterTypeHelper.GetHydraRingBreakWaterType(breakWaterType), input.BreakWater.Height),
GetWaterLevels(calculation, assessmentSection).ElementAt(waterLevelIndex++),
generalInput.A,
generalInput.B,
generalInput.C);
HydraRingDataEqualityHelper.AreEqual(expectedInput, actualInput);
}
}
mockRepository.VerifyAll();
}
/// <summary>
/// Initializes a new instance of the <see cref="WaveImpactAsphaltCoverFailureMechanism"/> class.
/// </summary>
public WaveImpactAsphaltCoverFailureMechanism()
: base(Resources.WaveImpactAsphaltCoverFailureMechanism_DisplayName, Resources.WaveImpactAsphaltCoverFailureMechanism_Code)
{
CalculationsGroup = new CalculationGroup
{
Name = RiskeerCommonDataResources.HydraulicBoundaryConditions_DisplayName
};
ForeshoreProfiles = new ForeshoreProfileCollection();
GeneralInput = new GeneralWaveConditionsInput(1.0, 0.0, 0.0);
GeneralWaveImpactAsphaltCoverInput = new GeneralWaveImpactAsphaltCoverInput();
CalculationsInputComments = new Comment();
}
private IEnumerable <WaveConditionsOutput> Calculate(StabilityStoneCoverWaveConditionsCalculation calculation,
IAssessmentSection assessmentSection, RoundedDouble assessmentLevel,
GeneralWaveConditionsInput generalInput, double targetProbability,
string calculationType)
{
log.InfoFormat(RevetmentServiceResources.WaveConditionsCalculationService_Calculate_calculationType_0_started, calculationType);
IEnumerable <WaveConditionsOutput> outputs = CalculateWaveConditions(calculation.InputParameters,
assessmentLevel, generalInput.A,
generalInput.B, generalInput.C, targetProbability,
assessmentSection.HydraulicBoundaryDatabase);
log.InfoFormat(RevetmentServiceResources.WaveConditionsCalculationService_Calculate_calculationType_0_ended, calculationType);
return(outputs);
}
/// <summary>
/// Performs a wave conditions calculation for the wave impact on asphalt failure mechanism based on the supplied
/// <see cref="WaveImpactAsphaltCoverWaveConditionsCalculation"/> and sets
/// <see cref="WaveImpactAsphaltCoverWaveConditionsCalculation.Output"/> if the calculation was successful.
/// Error and status information is logged during the execution of the operation.
/// </summary>
/// <param name="calculation">The <see cref="WaveImpactAsphaltCoverWaveConditionsCalculation"/> that holds all the information required to perform the calculation.</param>
/// <param name="assessmentSection">The <see cref="IAssessmentSection"/> that holds information about the target probability used in the calculation.</param>
/// <param name="generalWaveConditionsInput">Calculation input parameters that apply to all <see cref="WaveImpactAsphaltCoverWaveConditionsCalculation"/> instances.</param>
/// <exception cref="ArgumentNullException">Thrown when <paramref name="calculation"/>, <paramref name="assessmentSection"/>
/// or <paramref name="generalWaveConditionsInput"/> is <c>null</c>.</exception>
/// <exception cref="ArgumentException">Thrown when the hydraulic boundary database file path contains invalid characters.</exception>
/// <exception cref="CriticalFileReadException">Thrown when:
/// <list type="bullet">
/// <item>No settings database file could be found at the location of hydraulic boundary database file path
/// with the same name.</item>
/// <item>Unable to open settings database file.</item>
/// <item>Unable to read required data from database file.</item>
/// </list>
/// </exception>
/// <exception cref="ArgumentOutOfRangeException">Thrown when the target probability or
/// calculated probability falls outside the [0.0, 1.0] range and is not <see cref="double.NaN"/>.</exception>
/// <exception cref="HydraRingFileParserException">Thrown when an error occurs during parsing of the Hydra-Ring output.</exception>
/// <exception cref="HydraRingCalculationException">Thrown when an error occurs during the calculation.</exception>
public void Calculate(WaveImpactAsphaltCoverWaveConditionsCalculation calculation,
IAssessmentSection assessmentSection,
GeneralWaveConditionsInput generalWaveConditionsInput)
{
if (calculation == null)
{
throw new ArgumentNullException(nameof(calculation));
}
if (assessmentSection == null)
{
throw new ArgumentNullException(nameof(assessmentSection));
}
if (generalWaveConditionsInput == null)
{
throw new ArgumentNullException(nameof(generalWaveConditionsInput));
}
CalculationServiceHelper.LogCalculationBegin();
RoundedDouble a = generalWaveConditionsInput.A;
RoundedDouble b = generalWaveConditionsInput.B;
RoundedDouble c = generalWaveConditionsInput.C;
double targetProbability = WaveConditionsInputHelper.GetTargetProbability(calculation.InputParameters, assessmentSection);
RoundedDouble assessmentLevel = WaveConditionsInputHelper.GetAssessmentLevel(calculation.InputParameters, assessmentSection);
CurrentCalculationType = Resources.WaveImpactAsphaltCover_DisplayName;
TotalWaterLevelCalculations = calculation.InputParameters.GetWaterLevels(assessmentLevel).Count();
try
{
IEnumerable <WaveConditionsOutput> outputs = CalculateWaveConditions(calculation.InputParameters,
assessmentLevel,
a, b, c, targetProbability,
assessmentSection.HydraulicBoundaryDatabase);
if (!Canceled)
{
calculation.Output = new WaveImpactAsphaltCoverWaveConditionsOutput(outputs);
}
}
finally
{
CalculationServiceHelper.LogCalculationEnd();
}
}
public void Constructor_ExpectedValues()
{
// Setup
var random = new Random(21);
double a = random.NextDouble();
double b = random.NextDouble();
double c = random.NextDouble();
// Call
var generalInput = new GeneralWaveConditionsInput(a, b, c);
// Assert
Assert.AreEqual(a, generalInput.A, generalInput.A.GetAccuracy());
Assert.AreEqual(2, generalInput.A.NumberOfDecimalPlaces);
Assert.AreEqual(b, generalInput.B, generalInput.B.GetAccuracy());
Assert.AreEqual(2, generalInput.B.NumberOfDecimalPlaces);
Assert.AreEqual(c, generalInput.C, generalInput.C.GetAccuracy());
Assert.AreEqual(2, generalInput.C.NumberOfDecimalPlaces);
}
public void Constructor_ExpectedValues()
{
// Setup
var failureMechanism = new WaveImpactAsphaltCoverFailureMechanism();
// Call
var properties = new WaveImpactAsphaltCoverFailureMechanismProperties(failureMechanism);
// Assert
Assert.IsInstanceOf <WaveImpactAsphaltCoverFailureMechanismPropertiesBase>(properties);
Assert.AreSame(failureMechanism, properties.Data);
Assert.AreEqual(failureMechanism.Name, properties.Name);
Assert.AreEqual(failureMechanism.Code, properties.Code);
GeneralWaveConditionsInput generalWaveConditionsInput = failureMechanism.GeneralInput;
Assert.AreEqual(generalWaveConditionsInput.A, properties.A);
Assert.AreEqual(generalWaveConditionsInput.B, properties.B);
Assert.AreEqual(generalWaveConditionsInput.C, properties.C);
}
/// <summary>
/// Creates a new instance of <see cref="GeneralStabilityStoneCoverWaveConditionsInput"/>.
/// </summary>
public GeneralStabilityStoneCoverWaveConditionsInput()
{
GeneralBlocksWaveConditionsInput = new GeneralWaveConditionsInput(1.0, 1.0, 1.0);
GeneralColumnsWaveConditionsInput = new GeneralWaveConditionsInput(1.0, 0.4, 0.8);
n = new RoundedDouble(numberOfDecimalPlacesN, 4.0);
}