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<Type Name="DHKeyGeneration" FullName="Mono.Security.Cryptography.DHKeyGeneration">
<TypeSignature Language="C#" Value="public enum DHKeyGeneration" Maintainer="auto" />
<AssemblyInfo>
<AssemblyName>Mono.Security</AssemblyName>
<AssemblyPublicKey>[00 24 00 00 04 80 00 00 94 00 00 00 06 02 00 00 00 24 00 00 52 53 41 31 00 04 00 00 01 00 01 00 79 15 99 77 D2 D0 3A 8E 6B EA 7A 2E 74 E8 D1 AF CC 93 E8 85 19 74 95 2B B4 80 A1 2C 91 34 47 4D 04 06 24 47 C3 7E 0E 68 C0 80 53 6F CF 3C 3F BE 2F F9 C9 79 CE 99 84 75 E5 06 E8 CE 82 DD 5B 0F 35 0D C1 0E 93 BF 2E EE CF 87 4B 24 77 0C 50 81 DB EA 74 47 FD DA FA 27 7B 22 DE 47 D6 FF EA 44 96 74 A4 F9 FC CF 84 D1 50 69 08 93 80 28 4D BD D3 5F 46 CD FF 12 A1 BD 78 E4 EF 00 65 D0 16 DF]</AssemblyPublicKey>
<AssemblyVersion>1.0.5000.0</AssemblyVersion>
<AssemblyCulture>neutral</AssemblyCulture>
<Attributes>
<Attribute>
<AttributeName>System.Resources.NeutralResourcesLanguageAttribute</AttributeName>
</Attribute>
<Attribute>
<AttributeName>System.Runtime.InteropServices.ComVisibleAttribute</AttributeName>
</Attribute>
<Attribute>
<AttributeName>System.CLSCompliantAttribute</AttributeName>
</Attribute>
<Attribute>
<AttributeName>System.Resources.SatelliteContractVersionAttribute</AttributeName>
</Attribute>
</Attributes>
</AssemblyInfo>
<ThreadSafetyStatement>Gtk# is thread aware, but not thread safe; See the <link location="node:gtk-sharp/programming/threads">Gtk# Thread Programming</link> for details.</ThreadSafetyStatement>
<Docs>
<summary>Defines the different Diffie-Hellman key generation methods.</summary>
<remarks>To be added</remarks>
</Docs>
<Base>
<BaseTypeName>System.Enum</BaseTypeName>
</Base>
<Interfaces>
<Interface>
<InterfaceName>System.IComparable</InterfaceName>
</Interface>
<Interface>
<InterfaceName>System.IConvertible</InterfaceName>
</Interface>
<Interface>
<InterfaceName>System.IFormattable</InterfaceName>
</Interface>
</Interfaces>
<Attributes />
<Members>
<Member MemberName="Random">
<MemberSignature Language="C#" Value="Random" />
<MemberType>Field</MemberType>
<ReturnValue>
<ReturnType>Mono.Security.Cryptography.DHKeyGeneration</ReturnType>
</ReturnValue>
<Parameters>
</Parameters>
<Docs>
<summary>Returns dynamically generated values for P and G. Unlike the Sophie Germain or DSA key generation methods, this method does not ensure that the selected prime offers an adequate security level.</summary>
<remarks>To be added</remarks>
</Docs>
</Member>
<Member MemberName="Static">
<MemberSignature Language="C#" Value="Static" />
<MemberType>Field</MemberType>
<ReturnValue>
<ReturnType>Mono.Security.Cryptography.DHKeyGeneration</ReturnType>
</ReturnValue>
<Parameters>
</Parameters>
<Docs>
<summary>Returns values for P and G that are hard coded in this library. Contrary to what your intuition may tell you, using these hard coded values is perfectly safe. The values of the P and G parameters are taken from 'The OAKLEY Key Determination Protocol' [RFC2412]. This is the prefered key generation method, because it is very fast and very safe. Because this method uses fixed values for the P and G parameters, not all bit sizes are supported. The current implementation supports bit sizes of 768, 1024 and 1536.</summary>
<remarks>To be added</remarks>
</Docs>
</Member>
<Member MemberName="value__">
<MemberSignature Language="C#" Value="value__" />
<MemberType>Field</MemberType>
<ReturnValue>
<ReturnType>System.Int32</ReturnType>
</ReturnValue>
<Parameters>
</Parameters>
<Docs>
<summary>To be added</summary>
<remarks>To be added</remarks>
</Docs>
</Member>
</Members>
</Type>
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