// Copyright (C) Stichting Deltares 2017. All rights reserved. // // This file is part of Ringtoets. // // Ringtoets is free software: you can redistribute it and/or modify // it under the terms of the GNU General Public License as published by // the Free Software Foundation, either version 3 of the License, or // (at your option) any later version. // // This program is distributed in the hope that it will be useful, // but WITHOUT ANY WARRANTY; without even the implied warranty of // MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the // GNU General Public License for more details. // // You should have received a copy of the GNU General Public License // along with this program. If not, see . // // All names, logos, and references to "Deltares" are registered trademarks of // Stichting Deltares and remain full property of Stichting Deltares at all times. // All rights reserved. using System; using Core.Common.Base.Data; using Ringtoets.Common.Data.Probability; namespace Ringtoets.MacroStabilityInwards.Data { /// /// This class contains the results of a semi-probabilistic assessment of the macro stability inwards /// failure mechanism. /// public class MacroStabilityInwardsSemiProbabilisticOutput { private double requiredProbability; private double macroStabilityInwardsProbability; private double upliftProbability; private double heaveProbability; private double sellmeijerProbability; /// /// Creates a new instance of . /// /// The factor of safety for the uplift sub-mechanism. /// The reliability of uplift the sub-mechanism. /// The probability of failure due to the uplift sub-mechanism. /// The factor of safety for the heave sub-mechanism. /// The reliability of the heave sub-mechanism. /// The probability of failure due to the heave sub-mechanism. /// The factor of safety for the Sellmeijer sub-mechanism. /// The reliability of the Sellmeijer sub-mechanism. /// The probability of failure due to the Sellmeijer sub-mechanism. /// The required (maximum allowed) probability of failure due to macro stability inwards. /// The required (maximum allowed) reliability of the macro stability inwards failure mechanism /// The calculated probability of failing due to macro stability inwards. /// The calculated reliability of the macro stability inwards failure mechanism. /// The factor of safety for the macro stability inwards failure mechanism. /// Thrown when setting a probability that falls /// outside the [0.0, 1.0] range or isn't . public MacroStabilityInwardsSemiProbabilisticOutput(double upliftFactorOfSafety, double upliftReliability, double upliftProbability, double heaveFactorOfSafety, double heaveReliability, double heaveProbability, double sellmeijerFactorOfSafety, double sellmeijerReliability, double sellmeijerProbability, double requiredProbability, double requiredReliability, double macroStabilityInwardsProbability, double macroStabilityInwardsReliability, double macroStabilityInwardsFactorOfSafety) { UpliftFactorOfSafety = new RoundedDouble(3, upliftFactorOfSafety); UpliftReliability = new RoundedDouble(5, upliftReliability); UpliftProbability = upliftProbability; HeaveFactorOfSafety = new RoundedDouble(3, heaveFactorOfSafety); HeaveReliability = new RoundedDouble(5, heaveReliability); HeaveProbability = heaveProbability; SellmeijerFactorOfSafety = new RoundedDouble(3, sellmeijerFactorOfSafety); SellmeijerReliability = new RoundedDouble(5, sellmeijerReliability); SellmeijerProbability = sellmeijerProbability; RequiredProbability = requiredProbability; RequiredReliability = new RoundedDouble(5, requiredReliability); MacroStabilityInwardsProbability = macroStabilityInwardsProbability; MacroStabilityInwardsReliability = new RoundedDouble(5, macroStabilityInwardsReliability); MacroStabilityInwardsFactorOfSafety = new RoundedDouble(3, macroStabilityInwardsFactorOfSafety); } /// /// Gets the required probability of the macro stability inwards failure mechanism, /// which value in range [0,1]. /// /// Thrown when setting a value that falls /// outside the [0.0, 1.0] range or isn't . public double RequiredProbability { get { return requiredProbability; } private set { ProbabilityHelper.ValidateProbability(value, nameof(value), true); requiredProbability = value; } } /// /// Get the required reliability of the macro stability inwards failure mechanism, /// which is a value greater than 0. /// public RoundedDouble RequiredReliability { get; private set; } /// /// Gets the factor of safety of the macro stability inwards failure mechanism, /// which is a value greater than 0. /// public RoundedDouble MacroStabilityInwardsFactorOfSafety { get; private set; } /// /// Gets the reliability of the macro stability inwards failure mechanism, /// which is a value greater than 0. /// public RoundedDouble MacroStabilityInwardsReliability { get; private set; } /// /// Gets the probability of failing due to the macro stability inwards failure mechanism, /// which value in range [0,1]. /// /// Thrown when setting a value that falls /// outside the [0.0, 1.0] range or isn't . public double MacroStabilityInwardsProbability { get { return macroStabilityInwardsProbability; } private set { ProbabilityHelper.ValidateProbability(value, nameof(value), true); macroStabilityInwardsProbability = value; } } /// /// Gets the factor of safety for the uplift sub-mechanism, /// which is a value greater than 0. /// public RoundedDouble UpliftFactorOfSafety { get; private set; } /// /// Gets the reliability for the uplift sub-mechanism, /// which is a value greater than 0. /// public RoundedDouble UpliftReliability { get; private set; } /// /// Gets the probability of failing due to the uplift failure sub-mechanism, /// which value in range [0,1]. /// /// Thrown when setting a value that falls /// outside the [0.0, 1.0] range or isn't . public double UpliftProbability { get { return upliftProbability; } private set { ProbabilityHelper.ValidateProbability(value, nameof(value), true); upliftProbability = value; } } /// /// Gets the factor of safety for the heave sub-mechanism, /// which is a value greater than 0. /// public RoundedDouble HeaveFactorOfSafety { get; private set; } /// /// Gets the reliability for the heave sub-mechanism, /// which is a value greater than 0. /// public RoundedDouble HeaveReliability { get; private set; } /// /// Gets the probability of failing due to the heave failure sub-mechanism, /// which value in range [0,1]. /// /// Thrown when setting a value that falls /// outside the [0.0, 1.0] range or isn't . public double HeaveProbability { get { return heaveProbability; } private set { ProbabilityHelper.ValidateProbability(value, nameof(value), true); heaveProbability = value; } } /// /// Gets the factor of safety for the Sellmeijer sub-mechanism, /// which is a value greater than 0. /// public RoundedDouble SellmeijerFactorOfSafety { get; private set; } /// /// Gets the reliability for the Sellmeijer sub-mechanism, /// which is a value greater than 0. /// public RoundedDouble SellmeijerReliability { get; private set; } /// /// Gets the probability of failing due to the Sellmeijer failure sub-mechanism, /// which value in range [0,1]. /// /// Thrown when setting a value that falls /// outside the [0.0, 1.0] range or isn't . public double SellmeijerProbability { get { return sellmeijerProbability; } private set { ProbabilityHelper.ValidateProbability(value, nameof(value), true); sellmeijerProbability = value; } } } }