InterfaceFillerCodeGen 5.0.0-rc02
See the version list below for details.
dotnet add package InterfaceFillerCodeGen --version 5.0.0-rc02
NuGet\Install-Package InterfaceFillerCodeGen -Version 5.0.0-rc02
<PackageReference Include="InterfaceFillerCodeGen" Version="5.0.0-rc02" />
paket add InterfaceFillerCodeGen --version 5.0.0-rc02
#r "nuget: InterfaceFillerCodeGen, 5.0.0-rc02"
// Install InterfaceFillerCodeGen as a Cake Addin #addin nuget:?package=InterfaceFillerCodeGen&version=5.0.0-rc02&prerelease // Install InterfaceFillerCodeGen as a Cake Tool #tool nuget:?package=InterfaceFillerCodeGen&version=5.0.0-rc02&prerelease
InterfaceFiller - Aspect Oriented Programming (AOP) in C# (AOT support)
The most minimal and concise but fully features AOP library in C#. All junk codes are 4 custom attributes:
- InterfaceFiller(params string[] wrappers)
- Wrapper()
- CallerParamByIndex(int value, bool fromEnd = false)
- CallerParamByName(string paramName)
Support:
- AOT
- Async (await) method
- C# Caller attribute and two more
- Roslyn analyzers
Within minutes reading, all magic is revealed by 'Find all References'.
Table of content:
[4. Wrapper parameters resolution]
[5. Wrapper return]
[10. Wrapper resolution in summary]
Changelog
[5.0.0] - 2024-03-09
Added
- Wrapper method returning type is supported.
[3.1.0] - 2023-12-04
Added
- Reuse your Wrapper logic
[3.0.1] - 2023-11-22
Added
- CallerParamByName and CallerParamByIndex attributes
Updated
- Nuget package model but backward compatible
[2.0.1] - 2023-08-28 - Breaking Change to version 1.1.x
Added
- Support C# Caller attributes
Deprecated
- [string methodName]
[1.1.0] - 2023-08-10
Added
- [string methodName]
Specification
1. InterfaceFiller attribute
public interface ITestApi
{
int FunA(int x, int y);
Task<StreamContent> FunB(Barrier barrier, Random randomAccess);
}
The must be partial TestApi
class, contains testApi
backup field (ITestApi
type).
public partial class TestApi : ITestApi
{
[InterfaceFiller]
private ITestApi testApi;
public TestApi(ITestApi testApi)
{
this.testApi = testApi;
}
}
TestApi
has no implementation for interface ITestApi
but no compiler error
because InterfaceFiller
attribute marks to auto-generate the default implementation using the backup field testApi
.
// auto-generated
namespace WrapperNormal1
{
partial class TestApi
{
[InterfaceFillerCodeGen.IFCodeGen]
public int FunA(int x, int y)
{
var f1 = this.testApi.FunA;
return f1(x, y);
}
[InterfaceFillerCodeGen.IFCodeGen]
public async System.Threading.Tasks.Task<System.Net.Http.StreamContent> FunB(System.Threading.Barrier barrier, System.Random randomAccess)
{
var f1 = this.testApi.FunB;
return await f1(barrier, randomAccess);
}
}
}
Note
- Class must be
partial
- Class must have backup-field which field type is same as the interface type.
- Backup-field has
[InterfaceFiller]
attribute. - If there is an implementation for a method, code-gen will skips.
2. Wrapper attribute
'Aspect' your interface with custom behavior before and/or after execution.
2.1 Normal method
Note: Normal method is the method NOT returns Task
or Task<T>
public interface ITestApi
{
int FunA(int x);
string FunB(int x, string y);
}
public class ApiClient : ITestApi
{
public int FunA(int x) => x;
public string FunB(int x, string y) => $"{x} {y}";
}
public partial class TestApi : ITestApi
{
[InterfaceFiller]
private ITestApi testApi;
public TestApi(ITestApi testApi)
{
this.testApi = testApi;
}
[Wrapper]
private T Wrapper<T>(Func<T> next)
{
Console.WriteLine("Hello");
var r = next();
Console.WriteLine(r);
Console.WriteLine("World");
return r;
}
}
Using
TestApi api = new TestApi(new ApiClient());
api.FunA(1)
//Output:
// Hello
// 1
// World
api.FunB(1, "SJC")
//Output:
// Hello
// 1 SJC
// World
Wrapper method:
- Having
[Wrapper]
attribute - The wrapper's return type must be convertible to wrapped's return type (in this case, the type int is convertible to the generic type
T
) - The wrapper must have a
Func<>
parameter
2.2 Task
method
public interface ITestApi
{
Task FunA(int x);
Task FunB(int x, string y);
}
public class ApiClient : ITestApi
{
public async Task FunA(int x)
{
await Task.Delay(500);
Console.WriteLine("Task await 500ms");
}
public async Task FunB(int x, string y)
{
await Task.Delay(600);
Console.WriteLine("Task await 600ms");
}
}
public partial class TestApi : ITestApi
{
[InterfaceFiller]
private ITestApi testApi;
public TestApi(ITestApi testApi)
{
this.testApi = testApi;
}
[Wrapper]
private async Task Wrapper(Func<Task> next)
{
Console.WriteLine("Hello");
await next();
Console.WriteLine("World");
}
}
Using
TestApi api = new TestApi(new ApiClient());
api.FunA(1)
//Output:
// Hello
// Task await 500ms
// World
api.FunB(1, "SJC")
//Output:
// Hello
// Task await 600ms
// World
Wrapper for Task
method:
- Having
[Wrapper]
attribute - Signature:
async Task Wrapper(Func<Task> next)
2.3 Task<TResult>
method
public interface ITestApi
{
Task<int> FunA(int x);
Task<string> FunB(int x, string y);
}
public class ApiClient : ITestApi
{
public async Task<int> FunA(int x)
{
await Task.Delay(100);
Console.WriteLine("Task await 100ms");
return x;
}
public async Task<string> FunB(int x, string y)
{
await Task.Delay(200);
Console.WriteLine("Task await 200ms");
return x + y;
}
}
public partial class TestApi : ITestApi
{
[InterfaceFiller]
private ITestApi testApi;
public TestApi(ITestApi testApi)
{
this.testApi = testApi;
}
[Wrapper]
private async Task<T> Wrapper<T>(Func<Task<T>> next)
{
Console.WriteLine("Hello");
var r = await next();
Console.WriteLine("World");
return r;
}
}
Using
TestApi api = new TestApi(new ApiClient());
api.FunA(1)
//Output:
// Hello
// Task await 100ms
// World
api.FunB(1, "SJC")
//Output:
// Hello
// Task await 200ms
// World
Wrapper method:
- Having
[Wrapper]
attribute - Signature:
async Task<T> Wrapper<T>(Func<Task<T>> next)
- The wrapper's return type
Task<>
must be convertible to wrapped's return typeTask<>
(in this case, the generic typeTask<T>
is convertible toTask<int>
orTask<string>
) - The wrapper must have a
Func<>
parameter
3. Wrapper parameters
3.1 Single param
public interface ITestApi
{
int FunA(int role);
string FunB(int role, string y);
}
public class ApiClient : ITestApi
{
public int FunA(int role)
{
Console.WriteLine(role);
return role;
}
public string FunB(int role, string y)
{
Console.WriteLine($"{role} {y}");
return $"{role} {y}";
}
}
public partial class TestApi : ITestApi
{
[InterfaceFiller]
private ITestApi testApi;
public TestApi(ITestApi testApi)
{
this.testApi = testApi;
}
[Wrapper]
private T Wrapper<T>(int role, Func<int, T> next)
{
Console.WriteLine("Hello");
var r = next(role);
Console.WriteLine("World");
return r;
}
}
Using
TestApi api = new TestApi(new ApiClient());
api.FunA(1)
//Output:
// Hello
// 1
// World
api.FunB(1, "SJC")
//Output:
// Hello
// 1 SJC
// World
Wrapper method:
- Having
[Wrapper]
attribute - Signature:
T Wrapper<T>(int role, Func<int, T> next)
- All parameters before the last param (
Func<int, T> next
) must be match exactly within parameters of each interface methods. If not, default implementation is used. E.g.int userRole
ordouble role
will not be match. - Last param signature
Func<int, T> next)
. - Param type in last param
Func
isint
must match withint role
- All parameters before the last param (
3.2 Too many param
public interface ITestApi
{
int FunA(int role);
string FunB(int role, string y);
}
public class ApiClient : ITestApi
{
public int FunA(int role)
{
Console.WriteLine(role);
return role;
}
public string FunB(int role, string y)
{
Console.WriteLine($"{role} {y}");
return $"{role} {y}";
}
}
public partial class TestApi : ITestApi
{
[InterfaceFiller]
private ITestApi testApi;
public TestApi(ITestApi testApi)
{
this.testApi = testApi;
}
[Wrapper]
private T Wrapper<T>(int role, string name, Func<int, string, T> next)
{
Console.WriteLine("Hello");
var r = next(role, name);
Console.WriteLine("World");
return r;
}
}
It will generate the interface implementation using default not using wrapper. Using
TestApi api = new TestApi(new ApiClient());
api.FunA(1)
//Output:
// 1
api.FunB(1, "SJC")
//Output:
// 1 SJC
Wrapper method:
string name
param in wrapper method match NO param in all interface methods.
3.3 Wrapper parameters resolution
3.3.1 More params - higher precedence
public interface ITestApi
{
int FunA(int role, string name);
}
public class ApiClient : ITestApi
{
public int FunA(int role, string name)
{
Console.WriteLine($"{role}");
return role;
}
}
public partial class TestApi : ITestApi
{
[InterfaceFiller]
private ITestApi testApi;
public TestApi(ITestApi testApi)
{
this.testApi = testApi;
}
[Wrapper]
private T Wrapper1<T>(int role, Func<int, T> next)
{
Console.WriteLine("Wrapper1");
var r = next(role);
return r;
}
[Wrapper]
private T Wrapper2<T>(int role, string name, Func<int, string, T> next)
{
Console.WriteLine("Wrapper2");
var r = next(role, name);
return r;
}
}
It will generate the interface implementation.
Wrapper2
→FunA
Wrapper2
is higher precedence thanWrapper1
because it covers more aspect (params) ofFunA
thanWrapper1
Using
TestApi api = new TestApi(new ApiClient());
api.FunA(1, "SJC")
//Output:
// Wrapper2
// 1
3.3.2 Equal params - compile error
public interface ITestApi
{
int FunA(int role, string name, DateTime dob, decimal amount);
}
public partial class TestApi : ITestApi
{
[InterfaceFiller]
private ITestApi testApi;
public TestApi(ITestApi testApi)
{
this.testApi = testApi;
}
[Wrapper]
private T Wrapper1<T>(int role, string name, Func<int, string, T> next)
{
// If role is VIP then call manager for permission
var r = next(role, name);
// More logging code here...
return r;
}
[Wrapper]
private T Wrapper2<T>(int role, DateTime dob, Func<int, DateTime, T> next)
{
// If role is VIP then call manager for permission
var r = next(role, dob);
// More logging code here...
return r;
}
}
It will raises two compiler errors:
IFI1002 Wrapper method FunA matches Wrapper1
IFI1002 Wrapper method FunA matches Wrapper2
because both Wrapper1
and Wrapper2
cover equally 2 params of FunA
4. Wrapper return
4.1 Convertible types
The following concrete types are convertible to other generic type or equal to itself:
int
is convertible toint
(equally)int
is convertible to genericT
IEnumerable<int>
is convertible to genericT
IEnumerable<int>
is convertible to genericIEnumerable<T>
IEnumerable<int>
is convertible to genericIEnumerable<int>
(equally)IEnumerable<IDictionary<int, string>>
is convertible to genericT
IEnumerable<IDictionary<int, string>>
is convertible to genericIEnumerable<T>
IEnumerable<IDictionary<int, string>>
is convertible to genericIEnumerable<IDictionary<TKey, TValue>>
IEnumerable<IDictionary<int, string>>
is convertible to genericIEnumerable<IDictionary<int, TValue>>
IEnumerable<IDictionary<int, string>>
is convertible to genericIEnumerable<IDictionary<TKey, string>>
IEnumerable<IDictionary<int, int>>
is convertible to genericIEnumerable<IDictionary<T, T>>
IEnumerable<IDictionary<int, int>>
is convertible to genericIEnumerable<IDictionary<TKey, TValue>>
Note: the following types are NOT convertible
IEnumerable<int>
is NOT convertible to genericIEnumerable<decimal>
IEnumerable<IDictionary<int, string>>
is NOT convertible to genericIEnumerable<IDictionary<T, T>>
4.2 Wrapper return type resolution
4.2.1 Exactly match (Type Equal)
public interface ITest
{
int Func(int arg1);
}
public class ApiClient : ITest
{
public int Func(int arg1)
{
Console.WriteLine(arg1);
return arg1;
}
}
public partial class Test : ITest
{
[InterfaceFiller]
private ITest test1;
public Test(ITest test1)
{
this.test1 = test1;
}
[Wrapper]
private int Wrapper1(Func<int> next)
{
Console.WriteLine("Wrapper1");
return next();
}
[Wrapper]
private T Wrapper2<T>(Func<T> next)
{
Console.WriteLine("Wrapper2");
return next();
}
}
It will generate implementation using Wrapper1
because it has exactly match (equal) return type int
with method ITest.Func
Using
TestApi api = new TestApi(new ApiClient());
api.Func(1)
//Output:
// Wrapper1
// 1
4.2.2 Less generic parameter type
public interface ITest
{
IDictionary<int, decimal> Func(int arg1);
}
public class ApiClient : ITest
{
public IDictionary<int, decimal> Func(int arg1)
{
Console.WriteLine(arg1);
return default;
}
}
public partial class Test : ITest
{
[InterfaceFiller]
private ITest test1;
public Test(ITest test1)
{
this.test1 = test1;
}
[Wrapper]
private IDictionary<TKey, TValue> Wrapper1<TKey, TValue>(Func<IDictionary<TKey, TValue>> next)
{
Console.WriteLine("Wrapper1");
return next();
}
[Wrapper]
private IDictionary<int, TValue> Wrapper2<TValue>(Func<IDictionary<int, TValue>> next)
{
Console.WriteLine("Wrapper2");
return next();
}
}
It will generate implementation using Wrapper2
because it has less generic parameter type (TValue
) than Wrapper1
(TKey
, TValue
)
Using
TestApi api = new TestApi(new ApiClient());
api.Func(1)
//Output:
// Wrapper2
// 1
4.2.2 Less generic parameter type (2)
public interface ITest
{
IDictionary<int, int> Func(int arg1);
}
public class ApiClient : ITest
{
public IDictionary<int, int> Func(int arg1)
{
Console.WriteLine(arg1);
return default;
}
}
public partial class Test : ITest
{
[InterfaceFiller]
private ITest test1;
public Test(ITest test1)
{
this.test1 = test1;
}
[Wrapper]
private IDictionary<TKey, TValue> Wrapper1<TKey, TValue>(Func<IDictionary<TKey, TValue>> next)
{
Console.WriteLine("Wrapper1");
return next();
}
[Wrapper]
private IDictionary<T, T> Wrapper2<T>(Func<IDictionary<T, T>> next)
{
Console.WriteLine("Wrapper2");
return next();
}
}
It will generate implementation using Wrapper2
because it has less generic parameter type (T
) than Wrapper1
(TKey
, TValue
)
Using
TestApi api = new TestApi(new ApiClient());
api.Func(1)
//Output:
// Wrapper2
// 1
4.2.3 More generic level
public interface ITest
{
IEnumerable<int> Func(int arg1);
}
public class ApiClient : ITest
{
public IEnumerable<int> Func(int arg1)
{
Console.WriteLine(arg1);
return default;
}
}
public partial class Test : ITest
{
[InterfaceFiller]
private ITest test1;
public Test(ITest test1)
{
this.test1 = test1;
}
[Wrapper]
private T Wrapper1<T>(Func<T> next)
{
Console.WriteLine("Wrapper1");
return next();
}
[Wrapper]
private IEnumerable<T> Wrapper2<T>(Func<IEnumerable<T>> next)
{
Console.WriteLine("Wrapper2");
return next();
}
}
It will generate implementation using Wrapper2
because it has more generic level return type IEnumerable<T>
than T
in Wrapper1
Using
TestApi api = new TestApi(new ApiClient());
api.Func(1)
//Output:
// Wrapper2
// 1
4.2.4 More generic level (win over less generic param)
public interface ITest
{
IDictionary<int, IEnumerable<decimal>> Func(int arg1);
}
public class ApiClient : ITest
{
public IDictionary<int, IEnumerable<decimal>> Func(int arg1)
{
Console.WriteLine(arg1);
return default;
}
}
public partial class Test : ITest
{
[InterfaceFiller]
private ITest test1;
public Test(ITest test1)
{
this.test1 = test1;
}
[Wrapper]
private IDictionary<int, T> Wrapper1<T>(Func<IDictionary<int, T>> next)
{
Console.WriteLine("Wrapper1");
return next();
}
[Wrapper]
private IDictionary<T, IEnumerable<T1>> Wrapper2<T, T1>(Func<IDictionary<T, IEnumerable<T1>>> next)
{
Console.WriteLine("Wrapper2");
return next();
}
}
It will generate implementation using Wrapper2
because it has more generic level return type IDictionary<IEnumerable<>>
than IDictionary<>
in Wrapper1
Using
TestApi api = new TestApi(new ApiClient());
api.Func(1)
//Output:
// Wrapper2
// 1
6. Wrapper (with parameter) for Task
method
Signature: async Task Wrapper(int a, Func<int, Task> next)
7. Wrapper (with parameter) for Task<TResult>
method
Signature: async Task<T> Wrapper<T>(int a, Func<int, Task<T>> next)
8. C# Caller Attributes
Support C# built-in caller attributes
Wrapper resolution note: if two wrapper methods cover equally on param then which has more caller params will win.
public interface ITestApi
{
int FunA(int role, string name, DateTime dob, decimal amount);
}
public partial class TestApi : ITestApi
{
[InterfaceFiller]
private ITestApi testApi;
public TestApi(ITestApi testApi)
{
this.testApi = testApi;
}
[Wrapper]
private T Wrapper1<T>(int role, string name, Func<int, string, T> next, [CallerMemberName] string memberName = "", [CallerLineNumber] int line = 0, [CallerArgumentExpression("next")] string exp = "", [CallerFilePath] string sourceFilePath = "")
{
// If role is VIP then call manager for permission
var r = next(role, name);
// More logging code here...
return r;
}
}
9. CallerParamByName and CallerParamByIndex attributes
- Apply attribute [CallerParamByName("paramName")] or [CallerParamByIndex(1,true)] to wrapper method param to match with interface method param
- [CallerParamByName("paramName")] will match by paramName
- [CallerParamByIndex(1,true)] will match by applying index value to interface method param list
- The wrapper method param must have default value
- If no matching then default value is used
- The type of interface param and the type of wrapper param:
- Equals then interface param is passed to wrapper param
- Convertible then interface param is converted and passed to wrapper param
- Not convertible then default value is used
Note: Should NOT update/modify the value matched param. It causes side effect if it is reference object.
public class EncrytionArth
{
public string Pseed;
}
public class S15 : EncrytionArth
{
public string Title;
}
public interface ITestApi
{
int FunA(int idm, EncrytionArth strat, string name, DateTime dob, decimal amount);
int FunB(S15 strat, string hasCode);
}
public partial class TestApi : ITestApi
{
[InterfaceFiller]
private ITestApi testApi;
public TestApi(ITestApi testApi)
{
this.testApi = testApi;
}
[Wrapper]
private T Wrapper1<T>(Func<T> next, [CallerParamByName("strat")] EncrytionArth arth = default)
{
// this will match both FunA and FunB
Log.Info(arth.Pseed);
var r = next();
// More logging code here...
return r;
}
}
10 Wrapper resolution in summary
- Has more parameters
- Then return type
- Then more caller parameters
NOTE: All wrapper methods name should NOT be the same in the class.
11. Reuse your Wrapper logic
- Move your Wrapper methods to other class.
- Decorate it's methods with [Wrapper] attribute and make them public.
- Create the instance of it in the using class
- Add the variable name to [InterfaceFiller]
public interface ITestApi
{
int FunA(int idm, EncrytionArth strat, string name, DateTime dob, decimal amount);
int FunB(S15 strat, string hasCode);
}
public class WrapperLogic
{
[Wrapper]
public T Wrapper1<T>(Func<T> next, [CallerParamByName("strat")] EncrytionArth arth = default)
{
Log.Info("WrapperLogic");
return next();
}
}
public partial class TestApi : ITestApi
{
[InterfaceFiller(nameof(wrapperLogic))]
private ITestApi testApi;
private WrapperLogic wrapperLogic;
public TestApi(ITestApi testApi)
{
this.testApi = testApi;
wrapperLogic = new WrapperLogic();
}
}
10.1 Combine a wrapper object with class own wrapper methods
public interface ITestApi
{
int FunA(int idm, EncrytionArth strat, string name, DateTime dob, decimal amount);
int FunB(S15 strat, string hasCode);
}
public class WrapperLogic
{
[Wrapper]
public T Wrapper1<T>(Func<T> next, [CallerParamByName("strat")] EncrytionArth arth = default)
{
Log.Info("WrapperLogic message");
return next();
}
}
public partial class TestApi : ITestApi
{
[InterfaceFiller(nameof(wrapperLogic))]
private ITestApi testApi;
private WrapperLogic wrapperLogic;
public TestApi(ITestApi testApi)
{
this.testApi = testApi;
wrapperLogic = new WrapperLogic();
}
[Wrapper]
public T Wrapper1<T>(Func<T> next, [CallerParamByName("strat")] EncrytionArth arth = default)
{
Log.Info("Own class begin");
var v = next();
return v;
}
}
- The calling order: WrapperLogic object → class own wrapper methods
- Log result is:
- WrapperLogic message
- Own class wrapper
10.2 Combine multiple wrapper objects with class own wrapper methods
public interface ITestApi
{
int FunA(int idm, EncrytionArth strat, string name, DateTime dob, decimal amount);
int FunB(S15 strat, string hasCode);
}
public class WrapperLogging
{
[Wrapper]
public T Wrapper<T>(Func<T> next, [CallerParamByName("strat")] EncrytionArth arth = default)
{
Log.Info("WrapperLogging begin");
var v = next();
Log.Info("WrapperLogging end");
return v;
}
}
public class WrapperTiming
{
[Wrapper]
public T Wrapper<T>(Func<T> next, [CallerParamByName("strat")] EncrytionArth arth = default)
{
Log.Info("WrapperTiming begin");
var v = next();
Log.Info("WrapperTiming end");
return v;
}
}
public partial class TestApi : ITestApi
{
[InterfaceFiller(nameof(wrapperLogging), nameof(wrapperTiming))]
private ITestApi testApi;
private WrapperLogging wrapperLogging;
private WrapperTiming wrapperTiming;
public TestApi(ITestApi testApi)
{
this.testApi = testApi;
wrapperLogging = new WrapperLogging();
wrapperTiming = new WrapperTiming();
}
[Wrapper]
public T Wrapper<T>(Func<T> next, [CallerParamByName("strat")] EncrytionArth arth = default)
{
Log.Info("Own class wrapper");
return next();
}
}
- The calling order (right to left): WrapperTiming → WrapperLogging → class own wrapper methods
- Log result is:
- WrapperTiming begin
- WrapperLogging begin
- Own class wrapper
- WrapperLogging end
- WrapperLogging begin
- WrapperTiming end
- WrapperTiming begin
Void method
Void (Unsupported)
Issue Report
Product | Versions Compatible and additional computed target framework versions. |
---|---|
.NET | net5.0 was computed. net5.0-windows was computed. net6.0 was computed. 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. |
.NET Core | netcoreapp2.0 was computed. netcoreapp2.1 was computed. netcoreapp2.2 was computed. netcoreapp3.0 was computed. netcoreapp3.1 was computed. |
.NET Standard | netstandard2.0 is compatible. netstandard2.1 was computed. |
.NET Framework | net461 was computed. net462 was computed. net463 was computed. net47 was computed. net471 was computed. net472 was computed. net48 was computed. net481 was computed. |
MonoAndroid | monoandroid was computed. |
MonoMac | monomac was computed. |
MonoTouch | monotouch was computed. |
Tizen | tizen40 was computed. tizen60 was computed. |
Xamarin.iOS | xamarinios was computed. |
Xamarin.Mac | xamarinmac was computed. |
Xamarin.TVOS | xamarintvos was computed. |
Xamarin.WatchOS | xamarinwatchos was computed. |
-
.NETStandard 2.0
- No dependencies.
NuGet packages
This package is not used by any NuGet packages.
GitHub repositories
This package is not used by any popular GitHub repositories.
Version | Downloads | Last updated |
---|---|---|
5.0.0 | 132 | 3/23/2024 |
5.0.0-rc02 | 93 | 3/9/2024 |
5.0.0-rc01 | 89 | 3/9/2024 |
3.1.0 | 216 | 12/7/2023 |
3.1.0-rc03 | 121 | 12/5/2023 |
3.1.0-rc02 | 118 | 12/5/2023 |
3.1.0-rc01 | 119 | 12/4/2023 |
3.0.1-rc02 | 101 | 11/22/2023 |
3.0.1-rc01 | 80 | 11/22/2023 |
3.0.1-alpha01 | 113 | 11/16/2023 |
2.0.2-alpha02 | 128 | 8/30/2023 |
2.0.2-alpha01 | 112 | 8/28/2023 |
2.0.1 | 156 | 8/28/2023 |
2.0.0 | 140 | 8/28/2023 |
1.1.1-alpha | 129 | 8/11/2023 |
1.1.0 | 176 | 8/10/2023 |
1.0.9 | 174 | 7/16/2023 |
1.0.8 | 161 | 7/16/2023 |
1.0.7 | 153 | 6/16/2023 |
1.0.6 | 143 | 6/16/2023 |
1.0.5 | 136 | 6/4/2023 |
1.0.4 | 128 | 6/4/2023 |
1.0.3 | 128 | 6/4/2023 |
1.0.2 | 133 | 6/4/2023 |
1.0.1 | 132 | 6/4/2023 |
1.0.0 | 132 | 6/3/2023 |