tbf/Results/Entities/TestRslt.cs

///
/// Copyright (c) 2015 Sensus Metering Systems
///
using System;
using System.Collections.Generic;

namespace Results.Entities
{
    public class TestRslt
    {
		/// Identity
        public virtual int Id { get; protected set; }
		public virtual Batch Batch { get; set; }
		public virtual TestData TestData { get; set; }
		public virtual int Part { get; set; }
		public virtual int RepetitionNr { get; set; }       ///         Repetition number from the set of repeated tests (1...)

		/// Results
		public virtual DateTime StartTime { get; set; }     /// Date and time of the test start
		public virtual DateTime EndTime { get; set; }       /// Date and time of the test end
		public virtual double FlowSetTime { get; set; }     /// [s]     Measurement time in seconds
		public virtual double TestTime { get; set; }        /// [s]     Measurement time in seconds
		public virtual float AmbientTempAve { get; set; }   /// [deg.C] Average ambient air temperature
        public virtual float AmbientPressAve { get; set; }  ///         Average ambient air pressure
		public virtual float AmbientHumiAve { get; set; }   /// [%]     Average ambient air relative humidity
		public virtual float PressUpAvrg { get; set; }      /// [Bar]   Input water pressure (average)
		public virtual float PressUpStart { get; set; }     /// [Bar]
		public virtual float PressUpEnd { get; set; }       /// [Bar]
		public virtual float PressUpMin { get; set; }		/// [Bar]
		public virtual float PressUpMax { get; set; }       /// [Bar]
		public virtual float PressDownAvrg { get; set; }    /// [Bar]
		public virtual float PressDownStart { get; set; }   /// [Bar]
		public virtual float PressDownEnd { get; set; }     /// [Bar]
		public virtual float PressDownMin { get; set; }		/// [Bar]
		public virtual float PressDownMax { get; set; }     /// [Bar]
		public virtual float TempInAvrg { get; set; }		/// [deg.C]
		public virtual float TempInStart { get; set; }		/// [deg.C]
		public virtual float TempInEnd { get; set; }		/// [deg.C]
		public virtual float TempInMin { get; set; }		/// [deg.C]
		public virtual float TempInMax { get; set; }		/// [deg.C]
		public virtual float TempOutAvrg { get; set; }		/// [deg.C]
		public virtual float TempOutStart { get; set; }		/// [deg.C]
		public virtual float TempOutEnd { get; set; }		/// [deg.C]
		public virtual float TempOutMin { get; set; }		/// [deg.C]
		public virtual float TempOutMax { get; set; }		/// [deg.C]
		public virtual float TempDivAvrg { get; set; }		/// [deg.C]
		public virtual float TempDivStart { get; set; }		/// [deg.C]
		public virtual float TempDivEnd { get; set; }		/// [deg.C]
		public virtual float TempDivMin { get; set; }		/// [deg.C]
		public virtual float TempDivMax { get; set; }		/// [deg.C]
		public virtual double MassStartRaw { get; set; }	/// [kg]
		public virtual double MassStart { get; set; }		/// [kg]
		public virtual double MassEndRaw { get; set; }		/// [kg]
		public virtual double MassEnd { get; set; }			/// [kg]
		public virtual double MassDiff { get; set; }		/// [kg]
		public virtual double DensityIn { get; set; }		/// [kg/m3]
		public virtual double DensityOut { get; set; }		/// [kg/m3]
		public virtual double DensityDiv { get; set; }		/// [kg/m3]
		public virtual double Buoyancy { get; set; }
		public virtual double FlowMass { get; set; }        /// [kg/h]  calculated from conventional true value
		public virtual double FlowCTV { get; set; }			/// [l/h]   calculated from conventional true value
		public virtual double FlowMin { get; set; }			/// [l/h]   minimum flow
		public virtual double FlowMax { get; set; }			/// [l/h]   maximum flow
		public virtual double VolumeCTV { get; set; }       /// [l]     Volume conventional true value
		public virtual double VolumeMaster { get; set; }    /// [l]     Volume from the master flow meter
		public virtual double ErrorMaster { get; set; }		/// [%]
		public virtual double PulsesMaster { get; set; }
		public virtual double ConstMaster { get; set; }     /// [pls/l] Pulses per liter master flow meter


		/// Wrappers
		public string Name()
		{
			if (TestData.Repeats == 1) { return TestData.Name; }
			else { return string.Format("{0} ({1}/{2})", TestData.Name, RepetitionNr, TestData.Repeats); }
		}
		public double Qfrom() { return TestData.Qfrom; }
		public double Qto() { return TestData.Qto; }
		public double TargetVolume() { return TestData.TargetVolume; }
		public double TargetTime() { return TestData.TargetTime; }
		public int Repeats() { return TestData.Repeats; }
		public string Method() { return TestData.Method; }
		public double ErrLimLo() { return TestData.ErrLimLo; }
		public double ErrLimHi() { return TestData.ErrLimHi; }
		public double Uncertainty() { return TestData.Uncertainty; }
		public string Components() { return TestData.Components; }


		public TestRslt()
		{
		}
        
		public TestRslt(Batch batch, TestData testData, int part, int repetitionNr)
			: this()
        {
			Batch = batch;
			TestData = testData;
			Part = part;
			RepetitionNr = repetitionNr;
		}

        public override string ToString()
        {
			return string.Format("batch={0}, procedure={1}, test={2}, {3} {4}", Batch.BatchNr, Batch.ProcedureName, Name(), StartTime.ToShortDateString(), StartTime.ToShortTimeString());
        }
    }
}