OSDC.DotnetLibraries.Drilling.DrillingProperties
3.0.2
See the version list below for details.
dotnet add package OSDC.DotnetLibraries.Drilling.DrillingProperties --version 3.0.2
NuGet\Install-Package OSDC.DotnetLibraries.Drilling.DrillingProperties -Version 3.0.2
<PackageReference Include="OSDC.DotnetLibraries.Drilling.DrillingProperties" Version="3.0.2" />
paket add OSDC.DotnetLibraries.Drilling.DrillingProperties --version 3.0.2
#r "nuget: OSDC.DotnetLibraries.Drilling.DrillingProperties, 3.0.2"
// Install OSDC.DotnetLibraries.Drilling.DrillingProperties as a Cake Addin #addin nuget:?package=OSDC.DotnetLibraries.Drilling.DrillingProperties&version=3.0.2 // Install OSDC.DotnetLibraries.Drilling.DrillingProperties as a Cake Tool #tool nuget:?package=OSDC.DotnetLibraries.Drilling.DrillingProperties&version=3.0.2
Background
This package is developed as part of the Society of Petroleum (SPE) Open Source Drilling Community, a sub-committee of the Drilling System Automation Technical Section.
Purpose
The purpose of this package is to provide a way to describe drilling properties and their uncertainty. There are also Attributes that allow to decorate the properties. There is also a function to generate a dictionary of the decorations associated with the drilling properties that can therefore be serialized in json.
Principles
A DrillingProperty
is an abstract class that defines one property: Value
. A Value
is a ContinuousDistribution
and therefore represents any continuous probability distrutions. ContinuousDistribution
and other probability distributions are defined
in OSDC.DotnetLibraries.General.Statistics
, which is available as a nuget on nuget.org
(see here). DrillingProperty
has a method called Realize
that is used to draw a value (double?
) using the
probability distribution defined in Value
. It may return null
.
DrillingProperty
has four direct sub-classes:
ScalarDrillingProperty
: used to represent a scalar value with no uncertainty. The value is maintained as aDiracDistribution
. There is redefinition of theValue
property which is strongly typed toDiracDistribution
. It is calledDiracDistributionValue
. TheValue
property points to the value contained inDiracDistrutionValue
. TheRealize
method always return the value of theDiracDistribution
ornull
if the value is not defined. So theScalarDrillingProperty
is equivalent to a fixed value. A convenience property is defined calledScalarValue
. It allows to access directly theValue
of theDiracDistribution
.GaussianDrillingProperty
: used to represent normal distributions defined by aMean
and aStandardDeviation
. The probability distribution is defined as aGaussianDistribution
. In order to benefits from strong typing, a property calledGaussianValue
is defined of the typeGaussianDistribution
. TheValue
property is redefined to point to the instance managed byGaussianValue
. TheRealize
method produces values between -∞ and +∞ with a mean value corresponding to theMean
of theGaussianValue
and with a standard deviation also defined in theGaussianValue
. For conveniance, there are two additional properties that are defined:Mean
andStandardDeviation
. They allow to access directly theMean
and theStandardDeviation
(respectively) of theGaussianValue
.SensorDrillingProperty
: used to represent normal distributions for a sensor. Often, the characteristics of the sensor are given with anAccuracy
and aPrecision
. The overall standard deviation is calculated as $\sqrt{\sigma^2{_a}+\sigma^2{_p}}$ where $\sigma_a$ is the accuracy and $\sigma_p$ is the precision. AMean
property is defined locally. It is a synonym of theMean
value of the underlying Gaussian probability distribution, which is still accessible through the propertyGaussianValue
.FullScaleDrillingProperty
: used to represent normal distributions for a sensor. Here, the characteristics of the sensor are given with a proportion of the full-scale range of the measurement. The propertyProportionError
contains a value between 0 and 1. The propertyFullScale
contains the max range for the measurement. The standard deviation of the Gaussian probability distribution is the product of theProportionError
by theFullScale
. AMean
property is defined locally. It is a synonym of theMean
value of the underlying Gaussian probability distribution, which is still accessible through the propertyGaussianValue
.
UniformDrillingProperty
: used to represent a uniform distritution between two values,Min
andMax
. The probability distribution is defined as aUniformDistribution
. A property of typeUniformDistribution
is defined:UniformValue
. The propertyValue
is redefined to point to the instance managed byUniformValue
. The realize method draws uniformely values in betweenMin
andMax
. There are two properties that are defined for convenience:Min
andMax
. They allow, respectively, to access theMin
and theMax
of theUniformDistribution
.GeneralDistributionDrillingProperty
: used to represent a general probability distribution managed as a histogram. The value is defined by aGeneralContinuousDistribution
and accessible using the propertyGeneralDistributionValue
. TheValue
property is redefined to point to the instance managed byGeneralDistributionValue
. TheGeneralContinuousDistribution
can be defined either by a data set stored inData
. In that case, an histogram is generated from the data set, which is stored inFunction
. Or directly as a given histogram stored inFunction
. An histogram is represented as an array ofTuple<double, double>
for whichItem1
is the value of the bin andItem2
is the probability of the bin. There is an additional property, defined for convinience, to access directly theFunction
of theGeneralContinuousDistribution
. It is calledHistogram
.
classDiagram
DrillingProperty <|-- ScalarDrillingProperty
DrillingProperty <|-- GaussianDrillingProperty
DrillingProperty <|-- UniformDrillingProperty
DrillingProperty <|-- GeneralDistributionDrillingProperty
DrillingProperty : +ContinuousDistribution Value
DrillingProperty : +double? Realize()
class ScalarDrillingProperty {
+DiracDistribution DiracDistributionValue
}
class GaussianDrillingProperty {
+GaussianDistribution GaussianValue
+double? Mean
+double? StandardDeviation
}
GaussianDrillingProperty <|-- SensorDrillingProperty
GaussianDrillingProperty <|-- FullScaleDrillingProperty
class SensorDrillingProperty {
+double? Accuracy
+double? Precision
}
class FullScaleDrillingProperty {
+double? FullScale
+double? ProportionError
}
class UniformDrillingProperty {
+UniformDistribution UniformValue
+double? Min
+double? Max
}
class GeneralDistributionDrillingProperty {
+GeneralContinuousDistribution GeneralDistributionValue
+Tuple<double, double>[]? Histogram
}
end
Example
Here is an example.
using OSDC.DotnetLibraries.Drilling.DrillingProperties;
using System.Globalization;
namespace DrillingProperties
{
class TestClass
{
public ScalarDrillingProperty Value1 { get; set; } = new ScalarDrillingProperty();
public UniformDrillingProperty Value2 { get; set; } = new UniformDrillingProperty();
public GaussianDrillingProperty Value3 { get; set; } = new GaussianDrillingProperty();
public GeneralDistributionDrillingProperty Value4 { get; set; } = new GeneralDistributionDrillingProperty();
public SensorDrillingProperty Value5 { get; set; } = new SensorDrillingProperty();
public FullScaleDrillingProperty Value6 { get; set; }= new FullScaleDrillingProperty();
}
class Example
{
static void Main()
{
TestClass testClass = new TestClass();
testClass.Value1.ScalarValue = 1.0;
testClass.Value2.Min = -1.0;
testClass.Value2.Max = 1.0;
testClass.Value3.Mean = 10.0;
testClass.Value3.StandardDeviation = 0.5;
testClass.Value4.Histogram = new Tuple<double, double>[] {
new Tuple<double, double>(0.0, 0.1),
new Tuple<double, double>(1.0, 0.2),
new Tuple<double, double>(2.0, 0.3),
new Tuple<double, double>(3.0, 0.4)
};
testClass.Value5.Accuracy = 0.1;
testClass.Value5.Precision = 0.01;
testClass.Value5.Mean = 1.0;
testClass.Value6.FullScale = 10.0;
testClass.Value6.ProportionError = 0.001;
testClass.Value6.Mean = 1.0;
for (int i = 0; i < 10; i++)
{
Realize(testClass);
}
}
static void Realize(TestClass testClass)
{
double? value1 = testClass.Value1.Realize();
double? value2 = testClass.Value2.Realize();
double? value3 = testClass.Value3.Realize();
double? value4 = testClass.Value4.Realize();
double? value5 = testClass.Value5.Realize();
double? value6 = testClass.Value6.Realize();
Console.WriteLine("Realized values:" +
" value1 = " + value1?.ToString("F", CultureInfo.InvariantCulture) +
" value2 = " + value2?.ToString("F", CultureInfo.InvariantCulture) +
" value3 = " + value3?.ToString("F", CultureInfo.InvariantCulture) +
" value4 = " + value4?.ToString("F", CultureInfo.InvariantCulture) +
" value5 = " + value5?.ToString("F", CultureInfo.InvariantCulture) +
" value6 = " + value6?.ToString("F", CultureInfo.InvariantCulture));
}
}
}
The execution of the program gives:
Realized values: value1 = 1.00 value2 = 0.58 value3 = 10.14 value4 = 2.98 value5 = 0.93 value6 = 1.01
Realized values: value1 = 1.00 value2 = 0.12 value3 = 10.75 value4 = 1.22 value5 = 0.85 value6 = 0.99
Realized values: value1 = 1.00 value2 = -0.98 value3 = 10.76 value4 = 2.40 value5 = 0.95 value6 = 0.99
Realized values: value1 = 1.00 value2 = -0.23 value3 = 9.05 value4 = 2.65 value5 = 1.01 value6 = 1.01
Realized values: value1 = 1.00 value2 = 0.51 value3 = 10.45 value4 = 0.74 value5 = 1.09 value6 = 0.99
Realized values: value1 = 1.00 value2 = -0.83 value3 = 10.35 value4 = 1.65 value5 = 0.98 value6 = 0.99
Realized values: value1 = 1.00 value2 = 0.06 value3 = 10.62 value4 = 1.48 value5 = 0.96 value6 = 1.01
Realized values: value1 = 1.00 value2 = 0.46 value3 = 10.11 value4 = 0.25 value5 = 0.77 value6 = 1.01
Realized values: value1 = 1.00 value2 = 0.38 value3 = 9.99 value4 = 0.96 value5 = 1.21 value6 = 1.00
Realized values: value1 = 1.00 value2 = 0.74 value3 = 9.61 value4 = 2.94 value5 = 0.95 value6 = 1.01
Providing Meta Information
There is the possibility to provide meta information with the declation of a DrillingProperty
. This is achieved using
specific attributes. The possible attributes are:
PhysicalQuantityAttribute
: It takes one argument, which is a value of thePhysicalQuantity.QuantityEnum
defined in the libraryOSDC.UnitConversion.Conversion
. This attribute is to be used to declare the physical quantity of the property, more precisely a general quantity that is not further specialized as aDrillingPhysicalQuantity
. This attribute shall be defined only once for the property.PhysicalQuantityAttribute
andDrillingPhysicalQuantityAttribute
are supposed to be exclusive from eachothers, even there is no enforcement of that rule by the compiler.DrillingPhysicalQuantityAttribute
: It takes one argument of the typeDrillingPhysicalQuantity.QuantityEnum
, which is defined in the libraryOSDC.UnitConversion.Conversion.DrillingEngineering
. This attribute is intended to be used for properties that have a physical quantity that is described inDrillingPhysicalQuantity
. This attribute shall be defined only once for the property.PhysicalQuantityAttribute
andDrillingPhysicalQuantityAttribute
are supposed to be exclusive from eachothers, even there is no enforcement of that rule by the compiler.AccessToVariableAttribute
: It takes one argument of the typeCommonProperty.VariableAccessType
. This attribute is used to inform whether the property will be only fetched (CommonProperty.VariableAccessType.Readable
) or if it can be assigned (CommonProperty.VariableAccessType.Assignable
). In relation with the semantic definition of the property that is interpreted as the semantic will be turned into a sparql query (readable) or it will be used to inject the semantic in the DDHub (assignable).MandatoryAttribute
: It takes one argument of the typeCommonProperty.MandatoryType
. This attribute is used to inform whether the property is mandatory and in the affirmative in which context. The valueGeneral
means that it is always mandatory. The valueNone
means that it is always optional. Other values can be combined together using a logical "or", therefore allowing to state that the property can be mandatory in one or several context. Example contexts are:Mechanical
,Hydraulic
,Directional
, ... This attribute shall be defined only once for the property.SemanticFactAttribute
: It takes three or more arguments:Subject
,Verb
andObject
.Subject
andObject
belongs to either the enumerationNouns.Enum
or astring
, whileVerb
is a choice from the enumVerbs.Enum
. BothNouns.Enum
andVerbs.Enum
are defined in the libraryDWIS.Vocabulary.Schemas
which contains the vocabulary defined in the D-WIS project (see D-WIS.org). If there are more than three arguments, the additional one must come in pair and are strings. They correspond toattribute
andvalue
for theObject
. This attribute is used to defined a true assertion about that property. The use of astring
for theSubject
or theObject
is to refer to internal variables of the semantic definition. This attribute can be used multiple times therefore allowing to describe multiple facts about the property, i.e., a semantic network.OptionalFactAttribute
: It is a subclass ofSemanticFactAttribute
. When the property has an attributeAccessToVariableAttribute
that is set to readable, and therefore a sparql query will be generated to populate the value of the property, thenOptionalFactAttribute
may be dropped in the sparql query in case there are no matching data.OptionalFactAttribute
has an additional property calledGroupIndex
, abyte
. The purpose ofGroupIndex
is to state that a set ofOptionalFactAttribute
are bound together when they use the same value forGroupIndex
. This information is used to generate the multiple variant of Sparql queries that result from the combinatorial choices related to theOptionalFactAttribute
.
SemanticDiracVariableAttribute
: It takes one argument that is the name used for aDrillingSignal
that will be used for theValue
of this property.SemanticGaussianVariableAttribute
: It takes two arguments. The first one is the name of aDrillingSignal
used in the semantic facts that is used as theMean
value of this property. The second argument is the name of aDrillingSignal
used in the semantic facts and that is used as theStandardDeviation
value of this property.SemanticUniformVariableAttribute
: It takes two arguments that are the names of aDrillingSignal
used in the semantic facts that are used as theMin
and theMax
value of this property.SemanticGeneralDistributionVariableAttribute
: It takes one argument that is the name of aDrillingSignal
used in the semantic facts to access theHistogram
value of this property.AbscissaReferenceAttribute
: It takes one argument of typeCommonProperty.AbscissaReferenceType
. It allows to specify the reference of the property with regards to a curvilinear abscissa coordinate system. For example whether a distance is relative to the top or the bottom of an element.AnglePositionReferenceAttribute
: It takes one argument of typeCommonProperty.AnglePositionReferenceType
. It allows to specify the reference of the property with regards to an angular position.AxialPositionReferenceAttribute
: It takes one argument of typeCommonProperty.AxialPositionReferenceType
. It allows to specify the reference of the property with regards to an axial position.AzimuthReferenceAttribute
: It takes one argument of typeCommonProperty.AzimuthReferenceType
. It allows to specify the reference of the property with regards to the origin of azimuth.DepthReferenceAttribute
: It takes one argument of typeCommonProperty.DepthReferenceType
. It allows to specify the reference of the property with regards to the origin of depth.PositionReferenceAttribute
: It takes one argument of typeCommonProperty.PositionReferenceType
. It allows to specify the reference of the property with regards to the origin of position.PressureReferenceAttribute
: It takes one argument of typeCommonProperty.PressureReferenceType
. It allows to specify the reference for pressure of the property.TimeReferenceAttribute
: It takes one argument of typeCommonProperty.TimeReferenceType
. It allows to specify the reference for time of a property.
classDiagram
PhysicalQuantityAttribute <|-- DrillingPhysicalQuantityAttribute
PhysicalQuantityAttribute : +PhysicalQuantity.QuantityEnum PhysicalQuantity
class DrillingPhysicalQuantityAttribute {
+DrillingPhysicalQuantity.QuantityEnum PhysicalQuantity
}
class AccessToVariableAttribute {
+CommonProperty.VariableAccessType AccessType
}
class MandatoryAttribute {
+CommonProperty.MandatoryType Mandatory
}
SemanticFactAttribute <|-- OptionalFactAttribute
SemanticFactAttribute : +Nouns.Enum? Subject
SemanticFactAttribute : +string? SubjectName
SemanticFactAttribute : +Verbs.Enum Verb
SemanticFactAttribute : +Nouns.Enum? Object
SemanticFactAttribute : +string? ObjectName
class OptionalFactAttribute {
+byte GroupIndex
}
class SemanticDiracVariableAttribute {
+string? Value
}
class SemanticGaussianVariableAttribute {
+string? Mean
+string? StandardDeviation
}
class SemanticUniformVariableAttribute {
+string? Min
+string? Max
}
class SemanticGeneralDistributionVariableAttribute {
+string? Histogram
}
classDiagram
ReferenceAttribute <|-- AbscissaReferenceAttribute
ReferenceAttribute <|-- AnglePositionReferenceAttribute
ReferenceAttribute <|-- AxialPositionReferenceAttribute
ReferenceAttribute <|-- AzimuthReferenceAttribute
ReferenceAttribute <|-- DepthReferenceAttribute
ReferenceAttribute <|-- PositionReferenceAttribute
ReferenceAttribute <|-- PressureReferenceAttribute
ReferenceAttribute <|-- TimeReferenceAttribute
class AbscissaReferenceAttribute {
+CommonProperty.AbscissaReferenceType ReferenceType
}
class AnglePositionReferenceAttribute {
+CommonProperty.AnglePositionReferenceType ReferenceType
}
class AxialPositionReferenceAttribute {
+CommonProperty.AxialPositionReferenceType ReferenceType
}
class AzimuthReferenceAttribute {
+CommonProperty.AzimuthReferenceType ReferenceType
}
class DepthReferenceAttribute {
+CommonProperty.DepthReferenceType ReferenceType
}
class PositionReferenceAttribute {
+CommonProperty.PositionReferenceType ReferenceType
}
class PressureReferenceAttribute {
+CommonProperty.PressureReferenceType ReferenceType
}
class TimeReferenceAttribute {
+CommonProperty.TimeReferenceType ReferenceType
}
Example
Here is an example:
using OSDC.DotnetLibraries.Drilling.DrillingProperties;
using OSDC.UnitConversion.Conversion;
using OSDC.UnitConversion.Conversion.DrillingEngineering;
using DWIS.Vocabulary.Schemas;
namespace DrillingProperties
{
public class TestClass
{
[AccessToVariable(CommonProperty.VariableAccessType.Assignable)]
[DrillingPhysicalQuantity(DrillingPhysicalQuantity.QuantityEnum.Depth)]
[DepthReference(CommonProperty.DepthReferenceType.WGS84)]
[Mandatory(CommonProperty.MandatoryType.General)]
[SemanticGaussianVariables("BitDepthValue#01", "BitDepthStandardDeviationValue#01")]
[SemanticFact("BitDepthValue#01", Verbs.Enum.BelongsToClass, Nouns.Enum.DynamicDrillingSignal)]
[SemanticFact("BitDepth#01", Verbs.Enum.BelongsToClass, Nouns.Enum.BitDepth)]
[SemanticFact("BitDepth#01", Verbs.Enum.BelongsToClass, Nouns.Enum.DerivedMeasurement)]
[SemanticFact("BitDepth#01", Verbs.Enum.HasDynamicValue, "BitDepthValue#01")]
[SemanticFact("BitDepth#01", Verbs.Enum.IsMechanicallyLocatedAt, "Bit#01")]
[SemanticFact("Bit#01", Verbs.Enum.BelongsToClass, Nouns.Enum.Bit)]
[SemanticFact("BitDepthStandardDeviation#01", Verbs.Enum.BelongsToClass, Nouns.Enum.DrillingDataPoint)]
[SemanticFact("BitDepthStandardDeviationValue#01", Verbs.Enum.BelongsToClass, Nouns.Enum.DynamicDrillingSignal)]
[SemanticFact("BitDepthStandardDeviation#01", Verbs.Enum.HasDynamicValue, "BitDepthStandardDeviationValue#01")]
[SemanticFact("GaussianUncertainty#01", Verbs.Enum.BelongsToClass, Nouns.Enum.GaussianUncertainty)]
[SemanticFact("BitDepth#01", Verbs.Enum.HasUncertainty, "GaussianUncertainty")]
[SemanticFact("GaussianUncertainty#01", Verbs.Enum.HasUncertaintyStandardDeviation, "BitDepthStandardDeviation#01")]
public GaussianDrillingProperty MeasuredBitDepth { get; set; } = new GaussianDrillingProperty();
[AccessToVariable(CommonProperty.VariableAccessType.Readable)]
[PhysicalQuantity(PhysicalQuantity.QuantityEnum.StandardLength)]
[DepthReference(CommonProperty.DepthReferenceType.DerrickFloor)]
[Mandatory(CommonProperty.MandatoryType.PipeHandling| CommonProperty.MandatoryType.Mechanical | CommonProperty.MandatoryType.Hydraulic)]
[SemanticDiracVariable("BlockPositionSPValue#01")]
[SemanticFact("BlockPositionSPValue#01", Verbs.Enum.BelongsToClass, Nouns.Enum.DynamicDrillingSignal)]
[SemanticFact("BlockPositionSP#01", Verbs.Enum.BelongsToClass, Nouns.Enum.HookPosition)]
[SemanticFact("BlockPositionSP#01", Verbs.Enum.BelongsToClass, Nouns.Enum.SetPoint)]
[SemanticFact("BlockPositionSP#01", Verbs.Enum.HasDynamicValue, "BlockPositionSPValue#01")]
[SemanticFact("BlockPositionSP#01", Verbs.Enum.IsMechanicallyLocatedAt, "Elevator#01")]
[SemanticFact("Elevator#01", Verbs.Enum.BelongsToClass, Nouns.Enum.Elevator)]
public ScalarDrillingProperty BlockPositionSetPoint { get; set;} = new ScalarDrillingProperty();
[AccessToVariable(CommonProperty.VariableAccessType.Assignable)]
[DrillingPhysicalQuantity(DrillingPhysicalQuantity.QuantityEnum.BlockVelocity)]
[Mandatory(CommonProperty.MandatoryType.Mechanical | CommonProperty.MandatoryType.Hydraulic | CommonProperty.MandatoryType.MaterialTransport)]
[SemanticUniformVariable("TopOfStringVelocityUpwardMinValue#01", "TopOfStringVelocityUpwardMaxValue#01")]
[SemanticFact("TopOfStringVelocityUpward#01", Verbs.Enum.BelongsToClass, Nouns.Enum.HookVelocity)]
[SemanticFact("TopOfStringVelocityUpwardMin#01", Verbs.Enum.BelongsToClass, Nouns.Enum.DrillingDataPoint)]
[SemanticFact("TopOfStringVelocityUpwardMax#01", Verbs.Enum.BelongsToClass, Nouns.Enum.DrillingDataPoint)]
[SemanticFact("TopOfStringVelocityUpwardMinValue#01", Verbs.Enum.BelongsToClass, Nouns.Enum.DynamicDrillingSignal)]
[SemanticFact("TopOfStringVelocityUpwardMaxValue#01", Verbs.Enum.BelongsToClass, Nouns.Enum.DynamicDrillingSignal)]
[SemanticFact("TopOfStringVelocityUpwardMin#01", Verbs.Enum.HasDynamicValue, "TopOfStringVelocityUpwardMinValue#01")]
[SemanticFact("TopOfStringVelocityUpwardMax#01", Verbs.Enum.HasDynamicValue, "TopOfStringVelocityUpwardMaxValue#01")]
[SemanticFact("TopOfStringVelocityUpward#01", Verbs.Enum.BelongsToClass, Nouns.Enum.Limit)]
[SemanticFact("TopOfStringVelocityUpward#01", Verbs.Enum.IsMechanicallyLocatedAt, Nouns.Enum.DrillString)]
[SemanticFact("TopOfStringVelocityUpward#01", Verbs.Enum.IsPhysicallyLocatedAt, Nouns.Enum.TopOfStringReferenceLocation)]
[SemanticFact("UniformUncertainty#01", Verbs.Enum.BelongsToClass, Nouns.Enum.MinMaxUncertainty)]
[SemanticFact("TopOfStringVelocityUpward#01", Verbs.Enum.HasUncertainty, "UniformUncertainty#01")]
[SemanticFact("UniformUncertainty#01", Verbs.Enum.HasUncertaintyMin, "TopOfStringVelocityUpwardMin#01")]
[SemanticFact("UniformUncertainty#01", Verbs.Enum.HasUncertaintyMax, "TopOfStringVelocityUpwardMax#01")]
public UniformDrillingProperty TopOfStringSpeedUpwardLimit { get; set;} = new UniformDrillingProperty();
[AccessToVariable(CommonProperty.VariableAccessType.Readable)]
[DrillingPhysicalQuantity(DrillingPhysicalQuantity.QuantityEnum.Depth)]
[DepthReference(CommonProperty.DepthReferenceType.WGS84)]
[Mandatory(CommonProperty.MandatoryType.None)]
[SemanticGeneralDistributionVariable("EstimatedBitDepthHistogramValue#01")]
[SemanticFact("EstimatedBitDepth#01", Verbs.Enum.BelongsToClass, Nouns.Enum.BitDepth)]
[SemanticFact("EstimatedBitDepth#01", Verbs.Enum.BelongsToClass, Nouns.Enum.ComputedData)]
[SemanticFact("EstimatedBitDepth#01", Verbs.Enum.IsMechanicallyLocatedAt, "Bit#01")]
[SemanticFact("Bit#01", Verbs.Enum.BelongsToClass, Nouns.Enum.Bit)]
[SemanticFact("TransientT&D#01", Verbs.Enum.BelongsToClass, Nouns.Enum.ComputationUnit)]
[OptionalFact(0, "TransientT&D#01", Verbs.Enum.BelongsToClass, Nouns.Enum.ModelledDegreeOfFreedom, "DegreeOfFreedom", "4")]
[SemanticFact("EstimatedBitDepth#01", Verbs.Enum.IsTransformationOutput, "TransientT&D#01")]
[SemanticFact("EstimatedBitDepthHistogramValue#01", Verbs.Enum.BelongsToClass, Nouns.Enum.DynamicDrillingSignal)]
[SemanticFact("EstimatedBitDepthHistogram#01", Verbs.Enum.BelongsToClass, Nouns.Enum.GenericUncertainty)]
[SemanticFact("GeneralUncertaintyDistribution#01", Verbs.Enum.BelongsToClass, Nouns.Enum.GenericUncertainty)]
[SemanticFact("EstimatedBitDepth#01", Verbs.Enum.HasUncertainty, "GeneralUncertaintyDistribution#01")]
[SemanticFact("GeneralUncertaintyDistribution#01", Verbs.Enum.HasUncertaintyHistogram, "EstimatedBitDepthHistogram#01")]
public GeneralDistributionDrillingProperty EstimatedBitDepth { get; set; } = new GeneralDistributionDrillingProperty();
}
class Example
{
static void Main()
{
TestClass testClass = new TestClass();
testClass.MeasuredBitDepth.Mean = 1000.0;
testClass.MeasuredBitDepth.StandardDeviation = 0.1;
testClass.BlockPositionSetPoint.ScalarValue = 10.0;
testClass.TopOfStringSpeedUpwardLimit.Min = 0.10;
testClass.TopOfStringSpeedUpwardLimit.Max = 0.11;
testClass.EstimatedBitDepth.Histogram = new Tuple<double, double>[]
{
new Tuple<double, double>(999.8, 0.05),
new Tuple<double, double>(999.9, 0.10),
new Tuple<double, double>(1000.0, 0.25),
new Tuple<double, double>(1000.1, 0.50),
new Tuple<double, double>(1000.2, 0.08),
new Tuple<double, double>(1000.3, 0.02)
};
}
}
}
Transfer of Meta Information via Json
Json schema does not support the possibility to define attributes (C#), annotations (Java), decoration (Python).
As most data exchanges utilize json formatting for the payload, another way to convey the meta information had to be found.
A static method GenerateDrillingPropertyMetaData.GetDrillingPropertyMetaData
is available to generate a dictionary of DrillingProperty
described in an Assembly
. The keys of the dictionary are the Tuple<string, string>
where the first item is the classname and the second item is the property name of the DrillingProperty
.
The values are instances of the class MetaDataDrillingProperty
. A MetaDataDrillingProperty
has the following properties:
Namespace
, a string that contains the namespace of the class where this property is definedClassName
, a string that contains the class name where this property is definedPropertyName
, a string that contains the name of the propertyAbscissaReferenceType
, which is of typeCommonProperty.AbscissaReferenceType?
AnglePositionReferenceType
, which is typeCommonProperty.AnglePositionReferenceType
AxialPositionReferenceType
, which is typeCommonProperty.AxialPositionReferenceType
AzimuthReferenceType
, which is of typeCommonProperty.AzimuthReferenceType?
DepthReferenceType
, which is of typeCommonProperty.DepthReferenceType?
MandatoryType
, which is of typeCommonProperty.MandatoryType?
PositionReferenceType
, which is of typeCommonProperty.PositionReferenceType?
PressureReferenceType
, which is of typeCommonProperty.PressureReferenceType?
TimeReferenceType
, which is of typeCommonProperty.TimeReferenceType?
PhysicalQuantity
, which is of typePhysicalQuantity.QuantityEnum?
DrillingPhysicalQuantity
, which is of typeDrillingPhysicalQuantity.QuantityEnum?
SemanticFacts
, which is of typeList<SemanticFact>?
This method can be used to generate the meta information of all the properties defined in an Assembly
.
The dictionary can be serialized to json and stored on a file together with the json schema to supplement the data model with the attributes, annotations, decorations that could not be saved inside the json schema.
In the context of the generation of code from a json schema, the dictionary can be used to add attributes (C#), annotations (Java) or decoration (Python) to the generated properties in the classes.
In the context of a micro-service architecture, the generated dictionary can be made available through the Get
interface of a
specific end-point of the micro-service.
Example
Here is an example.
using OSDC.DotnetLibraries.Drilling.DrillingProperties;
using OSDC.UnitConversion.Conversion;
using OSDC.UnitConversion.Conversion.DrillingEngineering;
using DWIS.Vocabulary.Schemas;
using System.Reflection;
using System.Text.Json;
namespace DrillingProperties
{
public class TestClass
{
[AccessToVariable(CommonProperty.VariableAccessType.Assignable)]
[DrillingPhysicalQuantity(DrillingPhysicalQuantity.QuantityEnum.Depth)]
[DepthReference(CommonProperty.DepthReferenceType.WGS84)]
[Mandatory(CommonProperty.MandatoryType.General)]
[SemanticGaussianVariables("BitDepthValue#01", "BitDepthStandardDeviationValue#01")]
[SemanticFact("BitDepthValue#01", Verbs.Enum.BelongsToClass, Nouns.Enum.DynamicDrillingSignal)]
[SemanticFact("BitDepth#01", Verbs.Enum.BelongsToClass, Nouns.Enum.BitDepth)]
[SemanticFact("BitDepth#01", Verbs.Enum.BelongsToClass, Nouns.Enum.DerivedMeasurement)]
[SemanticFact("BitDepth#01", Verbs.Enum.HasDynamicValue, "BitDepthValue#01")]
[SemanticFact("BitDepth#01", Verbs.Enum.IsMechanicallyLocatedAt, "Bit#01")]
[SemanticFact("Bit#01", Verbs.Enum.BelongsToClass, Nouns.Enum.Bit)]
[SemanticFact("BitDepthStandardDeviation#01", Verbs.Enum.BelongsToClass, Nouns.Enum.DrillingDataPoint)]
[SemanticFact("BitDepthStandardDeviationValue#01", Verbs.Enum.BelongsToClass, Nouns.Enum.DynamicDrillingSignal)]
[SemanticFact("BitDepthStandardDeviation#01", Verbs.Enum.HasDynamicValue, "BitDepthStandardDeviationValue#01")]
[SemanticFact("GaussianUncertainty#01", Verbs.Enum.BelongsToClass, Nouns.Enum.GaussianUncertainty)]
[SemanticFact("BitDepth#01", Verbs.Enum.HasUncertainty, "GaussianUncertainty")]
[SemanticFact("GaussianUncertainty#01", Verbs.Enum.HasUncertaintyStandardDeviation, "BitDepthStandardDeviation#01")]
public GaussianDrillingProperty MeasuredBitDepth { get; set; } = new GaussianDrillingProperty();
[AccessToVariable(CommonProperty.VariableAccessType.Readable)]
[PhysicalQuantity(PhysicalQuantity.QuantityEnum.StandardLength)]
[DepthReference(CommonProperty.DepthReferenceType.DerrickFloor)]
[Mandatory(CommonProperty.MandatoryType.PipeHandling | CommonProperty.MandatoryType.Mechanical | CommonProperty.MandatoryType.Hydraulic)]
[SemanticDiracVariable("BlockPositionSPValue#01")]
[SemanticFact("BlockPositionSPValue#01", Verbs.Enum.BelongsToClass, Nouns.Enum.DynamicDrillingSignal)]
[SemanticFact("BlockPositionSP#01", Verbs.Enum.BelongsToClass, Nouns.Enum.HookPosition)]
[SemanticFact("BlockPositionSP#01", Verbs.Enum.BelongsToClass, Nouns.Enum.SetPoint)]
[SemanticFact("BlockPositionSP#01", Verbs.Enum.HasDynamicValue, "BlockPositionSPValue#01")]
[SemanticFact("BlockPositionSP#01", Verbs.Enum.IsMechanicallyLocatedAt, "Elevator#01")]
[SemanticFact("Elevator#01", Verbs.Enum.BelongsToClass, Nouns.Enum.Elevator)]
public ScalarDrillingProperty BlockPositionSetPoint { get; set; } = new ScalarDrillingProperty();
[AccessToVariable(CommonProperty.VariableAccessType.Assignable)]
[DrillingPhysicalQuantity(DrillingPhysicalQuantity.QuantityEnum.BlockVelocity)]
[Mandatory(CommonProperty.MandatoryType.Mechanical | CommonProperty.MandatoryType.Hydraulic | CommonProperty.MandatoryType.MaterialTransport)]
[SemanticUniformVariable("TopOfStringVelocityUpwardMinValue#01", "TopOfStringVelocityUpwardMaxValue#01")]
[SemanticFact("TopOfStringVelocityUpward#01", Verbs.Enum.BelongsToClass, Nouns.Enum.HookVelocity)]
[SemanticFact("TopOfStringVelocityUpwardMin#01", Verbs.Enum.BelongsToClass, Nouns.Enum.DrillingDataPoint)]
[SemanticFact("TopOfStringVelocityUpwardMax#01", Verbs.Enum.BelongsToClass, Nouns.Enum.DrillingDataPoint)]
[SemanticFact("TopOfStringVelocityUpwardMinValue#01", Verbs.Enum.BelongsToClass, Nouns.Enum.DynamicDrillingSignal)]
[SemanticFact("TopOfStringVelocityUpwardMaxValue#01", Verbs.Enum.BelongsToClass, Nouns.Enum.DynamicDrillingSignal)]
[SemanticFact("TopOfStringVelocityUpwardMin#01", Verbs.Enum.HasDynamicValue, "TopOfStringVelocityUpwardMinValue#01")]
[SemanticFact("TopOfStringVelocityUpwardMax#01", Verbs.Enum.HasDynamicValue, "TopOfStringVelocityUpwardMaxValue#01")]
[SemanticFact("TopOfStringVelocityUpward#01", Verbs.Enum.BelongsToClass, Nouns.Enum.Limit)]
[SemanticFact("TopOfStringVelocityUpward#01", Verbs.Enum.IsMechanicallyLocatedAt, Nouns.Enum.DrillString)]
[SemanticFact("TopOfStringVelocityUpward#01", Verbs.Enum.IsPhysicallyLocatedAt, Nouns.Enum.TopOfStringReferenceLocation)]
[SemanticFact("UniformUncertainty#01", Verbs.Enum.BelongsToClass, Nouns.Enum.MinMaxUncertainty)]
[SemanticFact("TopOfStringVelocityUpward#01", Verbs.Enum.HasUncertainty, "UniformUncertainty#01")]
[SemanticFact("UniformUncertainty#01", Verbs.Enum.HasUncertaintyMin, "TopOfStringVelocityUpwardMin#01")]
[SemanticFact("UniformUncertainty#01", Verbs.Enum.HasUncertaintyMax, "TopOfStringVelocityUpwardMax#01")]
public UniformDrillingProperty TopOfStringSpeedUpwardLimit { get; set; } = new UniformDrillingProperty();
[AccessToVariable(CommonProperty.VariableAccessType.Readable)]
[DrillingPhysicalQuantity(DrillingPhysicalQuantity.QuantityEnum.Depth)]
[DepthReference(CommonProperty.DepthReferenceType.WGS84)]
[Mandatory(CommonProperty.MandatoryType.None)]
[SemanticGeneralDistributionVariable("EstimatedBitDepthHistogramValue#01")]
[SemanticFact("EstimatedBitDepth#01", Verbs.Enum.BelongsToClass, Nouns.Enum.BitDepth)]
[SemanticFact("EstimatedBitDepth#01", Verbs.Enum.BelongsToClass, Nouns.Enum.ComputedData)]
[SemanticFact("EstimatedBitDepth#01", Verbs.Enum.IsMechanicallyLocatedAt, "Bit#01")]
[SemanticFact("Bit#01", Verbs.Enum.BelongsToClass, Nouns.Enum.Bit)]
[SemanticFact("TransientT&D#01", Verbs.Enum.BelongsToClass, Nouns.Enum.ComputationUnit)]
[OptionalFact(0, "TransientT&D#01", Verbs.Enum.BelongsToClass, Nouns.Enum.ModelledDegreeOfFreedom, "DegreeOfFreedom", "4")]
[SemanticFact("EstimatedBitDepth#01", Verbs.Enum.IsTransformationOutput, "TransientT&D#01")]
[SemanticFact("EstimatedBitDepthHistogramValue#01", Verbs.Enum.BelongsToClass, Nouns.Enum.DynamicDrillingSignal)]
[SemanticFact("EstimatedBitDepthHistogram#01", Verbs.Enum.BelongsToClass, Nouns.Enum.GenericUncertainty)]
[SemanticFact("GeneralUncertaintyDistribution#01", Verbs.Enum.BelongsToClass, Nouns.Enum.GenericUncertainty)]
[SemanticFact("EstimatedBitDepth#01", Verbs.Enum.HasUncertainty, "GeneralUncertaintyDistribution#01")]
[SemanticFact("GeneralUncertaintyDistribution#01", Verbs.Enum.HasUncertaintyHistogram, "EstimatedBitDepthHistogram#01")]
public GeneralDistributionDrillingProperty EstimatedBitDepth { get; set; } = new GeneralDistributionDrillingProperty();
}
class Example
{
static void Main()
{
var dict = GenerateDrillingPropertyMetaData.GetDrillingPropertyMetaData(Assembly.GetExecutingAssembly());
if (dict != null)
{
foreach (var keyValue in dict)
{
Console.WriteLine("(" + keyValue.Key.Item1 + ", " + keyValue.Key.Item2 + ") " + "=" + JsonSerializer.Serialize(keyValue.Value));
}
}
}
}
}
The output is the following:
(TestClass, MeasuredBitDepth) ={"Namespace":"DrillingProperties","ClassName":"TestClass","PropertyName":"MeasuredBitDepth","DepthReferenceType":1,"MandatoryType":65535,"DrillingPhysicalQuantity":3,"SemanticFacts":[{"SubjectName":"BitDepthValue#01","Verb":59,"Object":142,"ObjectAttributes":[]},{"SubjectName":"BitDepth#01","Verb":59,"Object":79,"ObjectAttributes":[]},{"SubjectName":"BitDepth#01","Verb":59,"Object":138,"ObjectAttributes":[]},{"SubjectName":"BitDepth#01","Verb":54,"ObjectName":"BitDepthValue#01","ObjectAttributes":[]},{"SubjectName":"BitDepth#01","Verb":95,"ObjectName":"Bit#01","ObjectAttributes":[]},{"SubjectName":"Bit#01","Verb":59,"Object":163,"ObjectAttributes":[]},{"SubjectName":"BitDepthStandardDeviation#01","Verb":59,"Object":76,"ObjectAttributes":[]},{"SubjectName":"BitDepthStandardDeviationValue#01","Verb":59,"Object":142,"ObjectAttributes":[]},{"SubjectName":"BitDepthStandardDeviation#01","Verb":54,"ObjectName":"BitDepthStandardDeviationValue#01","ObjectAttributes":[]},{"SubjectName":"GaussianUncertainty#01","Verb":59,"Object":349,"ObjectAttributes":[]},{"SubjectName":"BitDepth#01","Verb":115,"ObjectName":"GaussianUncertainty","ObjectAttributes":[]},{"SubjectName":"GaussianUncertainty#01","Verb":122,"ObjectName":"BitDepthStandardDeviation#01","ObjectAttributes":[]}]}
(TestClass, BlockPositionSetPoint) ={"Namespace":"DrillingProperties","ClassName":"TestClass","PropertyName":"BlockPositionSetPoint","DepthReferenceType":4,"MandatoryType":19,"PhysicalQuantity":65,"SemanticFacts":[{"SubjectName":"BlockPositionSPValue#01","Verb":59,"Object":142,"ObjectAttributes":[]},{"SubjectName":"BlockPositionSP#01","Verb":59,"Object":91,"ObjectAttributes":[]},{"SubjectName":"BlockPositionSP#01","Verb":59,"Object":124,"ObjectAttributes":[]},{"SubjectName":"BlockPositionSP#01","Verb":54,"ObjectName":"BlockPositionSPValue#01","ObjectAttributes":[]},{"SubjectName":"BlockPositionSP#01","Verb":95,"ObjectName":"Elevator#01","ObjectAttributes":[]},{"SubjectName":"Elevator#01","Verb":59,"Object":182,"ObjectAttributes":[]}]}
(TestClass, TopOfStringSpeedUpwardLimit) ={"Namespace":"DrillingProperties","ClassName":"TestClass","PropertyName":"TopOfStringSpeedUpwardLimit","MandatoryType":11,"DrillingPhysicalQuantity":0,"SemanticFacts":[{"SubjectName":"TopOfStringVelocityUpward#01","Verb":59,"Object":92,"ObjectAttributes":[]},{"SubjectName":"TopOfStringVelocityUpwardMin#01","Verb":59,"Object":76,"ObjectAttributes":[]},{"SubjectName":"TopOfStringVelocityUpwardMax#01","Verb":59,"Object":76,"ObjectAttributes":[]},{"SubjectName":"TopOfStringVelocityUpwardMinValue#01","Verb":59,"Object":142,"ObjectAttributes":[]},{"SubjectName":"TopOfStringVelocityUpwardMaxValue#01","Verb":59,"Object":142,"ObjectAttributes":[]},{"SubjectName":"TopOfStringVelocityUpwardMin#01","Verb":54,"ObjectName":"TopOfStringVelocityUpwardMinValue#01","ObjectAttributes":[]},{"SubjectName":"TopOfStringVelocityUpwardMax#01","Verb":54,"ObjectName":"TopOfStringVelocityUpwardMaxValue#01","ObjectAttributes":[]},{"SubjectName":"TopOfStringVelocityUpward#01","Verb":59,"Object":134,"ObjectAttributes":[]},{"SubjectName":"TopOfStringVelocityUpward#01","Verb":95,"Object":176,"ObjectAttributes":[]},{"SubjectName":"TopOfStringVelocityUpward#01","Verb":99,"Object":274,"ObjectAttributes":[]},{"SubjectName":"UniformUncertainty#01","Verb":59,"Object":351,"ObjectAttributes":[]},{"SubjectName":"TopOfStringVelocityUpward#01","Verb":115,"ObjectName":"UniformUncertainty#01","ObjectAttributes":[]},{"SubjectName":"UniformUncertainty#01","Verb":119,"ObjectName":"TopOfStringVelocityUpwardMin#01","ObjectAttributes":[]},{"SubjectName":"UniformUncertainty#01","Verb":117,"ObjectName":"TopOfStringVelocityUpwardMax#01","ObjectAttributes":[]}]}
(TestClass, EstimatedBitDepth) ={"Namespace":"DrillingProperties","ClassName":"TestClass","PropertyName":"EstimatedBitDepth","DepthReferenceType":1,"MandatoryType":0,"DrillingPhysicalQuantity":3,"SemanticFacts":[{"SubjectName":"EstimatedBitDepth#01","Verb":59,"Object":79,"ObjectAttributes":[]},{"SubjectName":"EstimatedBitDepth#01","Verb":59,"Object":140,"ObjectAttributes":[]},{"SubjectName":"EstimatedBitDepth#01","Verb":95,"ObjectName":"Bit#01","ObjectAttributes":[]},{"SubjectName":"Bit#01","Verb":59,"Object":163,"ObjectAttributes":[]},{"SubjectName":"TransientT\u0026D#01","Verb":59,"Object":16,"ObjectAttributes":[]},{"SubjectName":"TransientT\u0026D#01","Verb":59,"Object":254,"ObjectAttributes":[{"Item1":"DegreeOfFreedom","Item2":"4"}]},{"SubjectName":"EstimatedBitDepth#01","Verb":37,"ObjectName":"TransientT\u0026D#01","ObjectAttributes":[]},{"SubjectName":"EstimatedBitDepthHistogramValue#01","Verb":59,"Object":142,"ObjectAttributes":[]},{"SubjectName":"EstimatedBitDepthHistogram#01","Verb":59,"Object":350,"ObjectAttributes":[]},{"SubjectName":"GeneralUncertaintyDistribution#01","Verb":59,"Object":350,"ObjectAttributes":[]},{"SubjectName":"EstimatedBitDepth#01","Verb":115,"ObjectName":"GeneralUncertaintyDistribution#01","ObjectAttributes":[]},{"SubjectName":"GeneralUncertaintyDistribution#01","Verb":123,"ObjectName":"EstimatedBitDepthHistogram#01","ObjectAttributes":[]}]}
Dependence
This library depends on the following nugets:
DWIS.Vocabulary.Schemas
OSDC.DotnetLibraries.General.Statistics
OSDC.UnitConversion.Conversion.DrillingEngineering
Product | Versions Compatible and additional computed target framework versions. |
---|---|
.NET | net6.0 is compatible. net6.0-android was computed. net6.0-ios was computed. net6.0-maccatalyst was computed. net6.0-macos was computed. net6.0-tvos was computed. net6.0-windows was computed. net7.0 was computed. net7.0-android was computed. net7.0-ios was computed. net7.0-maccatalyst was computed. net7.0-macos was computed. net7.0-tvos was computed. net7.0-windows was computed. net8.0 was computed. net8.0-android was computed. net8.0-browser was computed. net8.0-ios was computed. net8.0-maccatalyst was computed. net8.0-macos was computed. net8.0-tvos was computed. net8.0-windows was computed. |
-
net6.0
- DWIS.Vocabulary.Schemas (>= 1.0.79)
- OSDC.DotnetLibraries.General.Statistics (>= 1.0.12)
- OSDC.UnitConversion.Conversion.DrillingEngineering (>= 1.0.27)
NuGet packages (2)
Showing the top 2 NuGet packages that depend on OSDC.DotnetLibraries.Drilling.DrillingProperties:
Package | Downloads |
---|---|
DWIS.MicroState.Model
This is the complete data model (including the semantical attributes) of the data used by the D-WIS Microstate interpretation engine |
|
OSDC.DotnetLibraries.Drilling.DrillingProperties.RDF
Package Description |
GitHub repositories
This package is not used by any popular GitHub repositories.
Version | Downloads | Last updated |
---|---|---|
10.2.2-build.16 | 68 | 12/13/2024 |
10.2.2-build.13 | 70 | 12/9/2024 |
10.2.2-build.10 | 58 | 10/21/2024 |
10.2.2-build.7 | 73 | 10/17/2024 |
10.2.2-build.4 | 53 | 10/14/2024 |
10.2.2-build.1 | 61 | 10/11/2024 |
10.1.14 | 129 | 10/9/2024 |
10.1.13 | 168 | 10/8/2024 |
10.1.12 | 101 | 10/7/2024 |
10.1.11 | 102 | 10/3/2024 |
10.1.10 | 144 | 9/30/2024 |
10.1.9 | 104 | 9/22/2024 |
10.1.8 | 103 | 9/22/2024 |
10.1.7 | 95 | 9/22/2024 |
10.1.6 | 97 | 9/20/2024 |
10.1.5 | 120 | 9/2/2024 |
10.1.4 | 254 | 5/10/2024 |
10.1.3 | 117 | 5/9/2024 |
10.1.2 | 140 | 5/6/2024 |
10.1.1 | 94 | 5/3/2024 |
10.1.0 | 74 | 5/2/2024 |
10.0.2 | 105 | 4/29/2024 |
10.0.1 | 101 | 4/29/2024 |
10.0.0 | 117 | 4/26/2024 |
9.1.0 | 110 | 4/26/2024 |
9.0.1 | 116 | 4/25/2024 |
9.0.0 | 114 | 4/23/2024 |
8.0.3 | 118 | 4/23/2024 |
8.0.2 | 130 | 4/22/2024 |
8.0.1 | 118 | 4/22/2024 |
8.0.0 | 120 | 4/22/2024 |
7.0.0 | 110 | 4/21/2024 |
6.0.0 | 109 | 4/10/2024 |
5.3.0 | 130 | 4/3/2024 |
5.2.8 | 126 | 4/3/2024 |
5.2.7 | 112 | 4/2/2024 |
5.2.6 | 123 | 4/2/2024 |
5.2.5 | 125 | 4/1/2024 |
5.2.4 | 131 | 4/1/2024 |
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5.1.8 | 120 | 3/30/2024 |
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5.1.5 | 134 | 3/30/2024 |
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5.1.3 | 131 | 3/27/2024 |
5.1.2 | 118 | 3/27/2024 |
5.1.1 | 123 | 3/27/2024 |
5.1.0 | 125 | 3/27/2024 |
5.0.1 | 107 | 3/27/2024 |
5.0.0 | 116 | 3/27/2024 |
4.0.1 | 143 | 3/26/2024 |
4.0.0 | 149 | 3/26/2024 |
3.0.6 | 140 | 3/1/2024 |
3.0.5 | 113 | 3/1/2024 |
3.0.4 | 135 | 2/29/2024 |
3.0.3 | 120 | 2/29/2024 |
3.0.2 | 124 | 2/29/2024 |
3.0.1 | 126 | 2/21/2024 |
2.0.1 | 143 | 2/16/2024 |
2.0.0 | 156 | 2/8/2024 |