Class PermissibleContinuousAxialLoadResults

Inheritance

System.Object

System.MarshalByRefObject

SMT.MastaAPIUtility.MarshalByRefObjectPermanent

APIBase

PermissibleContinuousAxialLoadResults

Implements

System.IEquatable<APIBase>

Inherited Members

APIBase.DisconnectFromMASTA()

APIBase.GetProperty<T>(String)

APIBase.SetProperty(String, Object)

APIBase.cacheRpds

APIBase.clearCachedRpds()

APIBase.getNamedObjectList<TElementType>(String)

APIBase.getExpandableProperty<TReturnType>(String)

APIBase.callPartialMethod(String, (T1, T2)<Type, Object>[])

APIBase.callPartialMethod<T>(String, T)

APIBase.callPartialMethod<T>(String, (T1, T2)<Type, Object>, T)

APIBase.callPartialMethod<T>(String, (T1, T2)<Type, Object>, (T1, T2)<Type, Object>, T)

APIBase.callPartialMethod<T>(String, (T1, T2)<Type, Object>, (T1, T2)<Type, Object>, (T1, T2)<Type, Object>, T)

APIBase.callPartialMethod<T1, T2>(String, (T1, T2)<Type, Object>, T1, T2)

APIBase.getPartialProperty(String)

APIBase.setPartialProperty(String, Object)

APIBase.IsValid(String)

APIBase.IsReadOnly(String)

APIBase.isInvalid

APIBase.DocumentationUrl()

APIBase.ToString()

APIBase.RunPython<T>(String, String, Object)

APIBase.RunPythonCode<T>(String, String, Object)

APIBase.RunPythonCode<T>(String)

APIBase.RunPython<T>(String, String)

APIBase.CreateObjRef(Type)

APIBase.RunPython(String, String, Object)

APIBase.createWrappedRange(Double, Double)

APIBase.createWrappedVector2D(Double, Double)

APIBase.createWrappedPosition3D(Double, Double, Double)

APIBase.Equals(APIBase)

APIBase.GetHashCode()

APIBase.Equals(Object)

SMT.MastaAPIUtility.MarshalByRefObjectPermanent.InitializeLifetimeService()

Namespace: SMT.MastaAPI.Bearings.BearingResults.Rolling

Assembly: SMT.MastaAPI.13.0.dll

Syntax

public class PermissibleContinuousAxialLoadResults : APIBase, IEquatable<APIBase>

Fields

_parent

Declaration

protected readonly APIBase _parent

Field Value

Type	Description
APIBase

Properties

AllowableAxialLoadFactor

If the axial load exceed the radial load multiplied by this factor then this causes abnormal roller movement.

Declaration

public Overridable<double> AllowableAxialLoadFactor { get; }

Property Value

Type	Description
Overridable<System.Double>

AllowableConstantAxialLoadNTN

Unlike basic road ratings based on rolling fatigue, allowable axial load is determined by heat produced on the sliding surface between the ends of the rollers and rib, seizure and wear.

Measurement: Force

Declaration

public double AllowableConstantAxialLoadNTN { get; }

Property Value

Type	Description
System.Double

AllowableIntermittentAxialLoadNTN

Unlike basic road ratings based on rolling fatigue, allowable axial load is determined by heat produced on the sliding surface between the ends of the rollers and rib, seizure and wear.

Measurement: Force

Declaration

public double AllowableIntermittentAxialLoadNTN { get; }

Property Value

Type	Description
System.Double

AllowableMomentaryAxialLoadNTN

Unlike basic road ratings based on rolling fatigue, allowable axial load is determined by heat produced on the sliding surface between the ends of the rollers and rib, seizure and wear.

Measurement: Force

Declaration

public double AllowableMomentaryAxialLoadNTN { get; }

Property Value

Type	Description
System.Double

AxialLoad

Measurement: Force

Declaration

public double AxialLoad { get; }

Property Value

Type	Description
System.Double

CalculationMethod

Declaration

public CylindricalRollerMaxAxialLoadMethod CalculationMethod { get; }

Property Value

Type	Description
CylindricalRollerMaxAxialLoadMethod

CapacityLubricationFactorForPermissibleAxialLoadGrease

Factor that scales the basic static load rating to calculate a limit due to thermal effects on continuous axial load. For use when lubricated with grease.

Declaration

public Overridable<double> CapacityLubricationFactorForPermissibleAxialLoadGrease { get; }

Property Value

Type	Description
Overridable<System.Double>

CapacityLubricationFactorForPermissibleAxialLoadOil

Factor that scales the basic static load rating to calculate a limit due to thermal effects on continuous axial load. For use when lubricated with oil.

Declaration

public Overridable<double> CapacityLubricationFactorForPermissibleAxialLoadOil { get; }

Property Value

Type	Description
Overridable<System.Double>

DiameterExponentFactorForPermissibleAxialLoad

Exponent for the outer diameter to calculate a limit due to mechanical effects on continuous axial load.

Declaration

public Overridable<double> DiameterExponentFactorForPermissibleAxialLoad { get; }

Property Value

Type	Description
Overridable<System.Double>

DiameterScalingFactorForPermissibleAxialLoad

Factor that scales the outer diameter to calculate a limit due to mechanical effects on continuous axial load.

Declaration

public Overridable<double> DiameterScalingFactorForPermissibleAxialLoad { get; }

Property Value

Type	Description
Overridable<System.Double>

MaximumPermissibleAxialLoadSchaeffler

For bearings with rollers of the standard or TB design, the maximum permissible axial load is calculated from the rib strength and the security against wear. This must not be exceeded, even if F a per gives higher values.

Measurement: Force

Declaration

public double MaximumPermissibleAxialLoadSchaeffler { get; }

Property Value

Type	Description
System.Double

PermissibleAxialLoadDimensionFactor

Declaration

public Overridable<double> PermissibleAxialLoadDimensionFactor { get; }

Property Value

Type	Description
Overridable<System.Double>

PermissibleAxialLoadForBriefPeriodsSKF

An axial load should not exceed this value for more than brief periods (1000 revolutions) to avoid any risk of flange damage, also assuming that the bearing operating temperature does not increase by more than 5 degrees temporarily. This calculation is valid under normal operating conditions, defined as a difference of 60 degrees between operating and ambient temperatures, specific heat loss of 0.5 mW/mm^2, a viscosity ratio of at least 2, and a misalignment of less than 1 minute of arc.

Measurement: Force

Declaration

public double PermissibleAxialLoadForBriefPeriodsSKF { get; }

Property Value

Type	Description
System.Double

PermissibleAxialLoadForOccasionalPeakLoadsSKF

The peak axial load should not exceed this value to avoid any risk of flange damage, and this load should only be considered suitable for occasional peak loads. This calculation is valid under normal operating conditions, defined as a difference of 60 degrees between operating and ambient temperatures, specific heat loss of 0.5 mW/mm^2, a viscosity ratio of at least 2, and a misalignment of less than 1 minute of arc.

Measurement: Force

Declaration

public double PermissibleAxialLoadForOccasionalPeakLoadsSKF { get; }

Property Value

Type	Description
System.Double

PermissibleAxialLoadingNACHI

Since any axial loading on a cylindrical roller bearing is supported by a "sliding" action between the roller ends and flanges, allowable axial load is based on the limiting values of heat, seizure, and wear caused by this "sliding" contact.

Measurement: Force

Declaration

public double PermissibleAxialLoadingNACHI { get; }

Property Value

Type	Description
System.Double

PermissibleAxialLoadInternalDimensionFactor

Declaration

public Overridable<double> PermissibleAxialLoadInternalDimensionFactor { get; }

Property Value

Type	Description
Overridable<System.Double>

PermissibleAxialLoadSchaeffler

The permissible axial load F a per can be calculated from the hydrodynamic load carrying capacity of the contact. The axial load carrying capacity of the bearing is therefore essentially dependent on the size of the sliding surfaces between the ribs and the end faces of the rolling elements, the sliding velocity at the ribs, the lubrication of the contact surfaces, tilting of the bearing, and friction.

Measurement: Force

Declaration

public double PermissibleAxialLoadSchaeffler { get; }

Property Value

Type	Description
System.Double

PermissibleAxialLoadUnderShaftDeflectionSchaeffler

Under considerable shaft deflection, the shaft shoulder presses against the inner ring rib. In combination with the active axial load, this can lead to high alternating loading of the inner ring ribs. Under a shaft deflection of up to 2 arc minutes, the permissible axial load can be estimated.

Measurement: Force

Declaration

public double PermissibleAxialLoadUnderShaftDeflectionSchaeffler { get; }

Property Value

Type	Description
System.Double

PermissibleContinuousAxialLoadSKF

A continuous axial load should not exceed this value to avoid any risk of flange damage, based on a recommendation of SKF for a constantly acting load. This calculation is valid under normal operating conditions, defined as a difference of 60 degrees between operating and ambient temperatures, specific heat loss of 0.5 mW/mm^2, a viscosity ratio of at least 2, and a misalignment of less than 1 minute of arc.

Measurement: Force

Declaration

public double PermissibleContinuousAxialLoadSKF { get; }

Property Value

Type	Description
System.Double

RadialLoadLubricationFactorForPermissibleAxialLoadGrease

Factor that scales the radial load to calculate a limit due to thermal effects on continuous axial load. For use when lubricated with grease.

Declaration

public Overridable<double> RadialLoadLubricationFactorForPermissibleAxialLoadGrease { get; }

Property Value

Type	Description
Overridable<System.Double>

RadialLoadLubricationFactorForPermissibleAxialLoadOil

Factor that scales the radial load to calculate a limit due to thermal effects on continuous axial load. For use when lubricated with oil.

Declaration

public Overridable<double> RadialLoadLubricationFactorForPermissibleAxialLoadOil { get; }

Property Value

Type	Description
Overridable<System.Double>

SafetyFactor

Measurement: SafetyFactor

Declaration

public double SafetyFactor { get; }

Property Value

Type	Description
System.Double

Implements

System.IEquatable<T>

Extension Methods

UtilityMethods.IsReadOnly<T>(T, Expression<Func<T, Object>>)

UtilityMethods.IsValid<T>(T, Expression<Func<T, Object>>)

UtilityMethods.IsMethodValid<T>(T, Expression<Func<T, Action>>)

UtilityMethods.IsMethodReadOnly<T>(T, Expression<Func<T, Action>>)