DotMake.CommandLine 1.5.9

There is a newer version of this package available.
See the version list below for details.
dotnet add package DotMake.CommandLine --version 1.5.9
NuGet\Install-Package DotMake.CommandLine -Version 1.5.9
This command is intended to be used within the Package Manager Console in Visual Studio, as it uses the NuGet module's version of Install-Package.
<PackageReference Include="DotMake.CommandLine" Version="1.5.9" />
For projects that support PackageReference, copy this XML node into the project file to reference the package.
paket add DotMake.CommandLine --version 1.5.9
#r "nuget: DotMake.CommandLine, 1.5.9"
#r directive can be used in F# Interactive and Polyglot Notebooks. Copy this into the interactive tool or source code of the script to reference the package.
// Install DotMake.CommandLine as a Cake Addin
#addin nuget:?package=DotMake.CommandLine&version=1.5.9

// Install DotMake.CommandLine as a Cake Tool
#tool nuget:?package=DotMake.CommandLine&version=1.5.9

DotMake Command-Line Logo

DotMake Command-Line

System.CommandLine is a very good parser but you need a lot of boilerplate code to get going and the API is hard to discover. This becomes complicated to newcomers and also you would have a lot of ugly code in your Program.cs to maintain. What if you had an easy class-based layer combined with a good parser?

DotMake.CommandLine is a library which provides declarative syntax for System.CommandLine via attributes for easy, fast, strongly-typed (no reflection) usage. The library includes includes a source generator which automagically converts your classes to CLI commands and properties to CLI options or CLI arguments. Supports trimming and AOT compilation !

Nuget

Getting started

Install the library to your console app project with NuGet.

In your project directory, via dotnet cli:

dotnet add package DotMake.CommandLine

or in Visual Studio Package Manager Console:

PM> Install-Package DotMake.CommandLine

Prerequisites

  • .NET 6.0 and later project or .NET Standard 2.0 and later project (note that .NET Framework 4.7.2+ can reference netstandard2.0 libraries).
  • Visual Studio 2022 v17.3+ or .NET SDK 6.0.407+ (our incremental source generator requires performance features added first in these versions).
  • Usually a console app project but you can also use a class library project which will be consumed later.

Usage

Create a simple class like this:

using System;
using DotMake.CommandLine;

[CliCommand(Description = "A root cli command")]
public class RootCliCommand
{
    [CliOption(Description = "Description for Option1")]
    public string Option1 { get; set; } = "DefaultForOption1";
 
    [CliArgument(Description = "Description for Argument1")]
    public string Argument1 { get; set; }
 
    public void Run()
    {
        Console.WriteLine($@"Handler for '{GetType().FullName}' is run:");
        Console.WriteLine($@"Value for {nameof(Option1)} property is '{Option1}'");
        Console.WriteLine($@"Value for {nameof(Argument1)} property is '{Argument1}'");
        Console.WriteLine();
    }
}

In Program.cs, add this single line:

Cli.Run<RootCliCommand>(args);

And that's it! You now have a fully working command-line app. You just specify the name of your class which represents your root command to Cli.Run<> method and everything is wired.

args is the string array typically passed to a program. This is usually the special variable args available in Program.cs (new style with top-level statements) or the string array passed to the program's Main method (old style). We also have method signatures which does not require args, for example you can also call Cli.Run<RootCliCommand>() and in that case args will be retrieved automatically from the current process via Cli.GetArgs().

If you want to go async, just use this:

await Cli.RunAsync<RootCliCommand>(args);

To handle exceptions, you just use a try-catch block:

try
{
    Cli.Run<RootCliCommand>(args);
}
catch (Exception e)
{
    Console.WriteLine(@"Exception in main: {0}", e.Message);
}

System.CommandLine, by default overtakes your exceptions that are thrown in command handlers (even if you don't set an exception handler explicitly) but DotMake.CommandLine, by default allows the exceptions to pass through. However if you wish, you can easily use an exception handler by using configureBuilder delegate parameter like this:

Cli.Run<RootCliCommand>(args, builder => 
    builder.UseExceptionHandler((e, context) => Console.WriteLine(@"Exception in command handler: {0}", e.Message))
);

If you need to simply parse the command-line arguments without invocation, use this:

var rootCliCommand = Cli.Parse<RootCliCommand>(args);

If you need to examine the parse result, such as errors:

var rootCliCommand = Cli.Parse<RootCliCommand>(args, out var parseResult);
if (parseResult.Errors.Count > 0)
{

}

Summary

  • Mark the class with CliCommand attribute to make it a CLI command (see CliCommandAttribute docs for more info).

  • Mark a property with CliOption attribute to make it a CLI option (see CliOptionAttribute docs for more info).

  • Mark a property with CliArgument attribute to make it a CLI argument (see CliArgumentAttribute docs for more info).

  • Add a method with name Run or RunAsync to make it the handler for the CLI command. The method can have one of the following signatures:

    • void Run()
      
    • int Run()
      
    • async Task RunAsync()
      
    • async Task<int> RunAsync()
      

    Optionally the method signature can have a System.CommandLine.Invocation.InvocationContext parameter in case you need to access it:

    • Run(InvocationContext context)
      
    • RunAsync(InvocationContext context)
      

    The signatures which return int value, sets the ExitCode of the app.

  • Call Cli.Run<> orCli.RunAsync<> method with your class name to run your CLI app (see Cli docs for more info).

Model binding

When the command handler is run, the properties for CLI options and arguments will be already populated and bound from values passed in the command-line. If no matching value is passed, the property will have its default value.

When you run the app via

  • TestApp.exe in project output path (e.g. in TestApp\bin\Debug\net6.0)
  • or dotnet runin project directory (e.g. in TestApp)

You see this result:

Required argument missing for command: 'TestApp'.

This is because a CliArgument or CliOption decorated property is required if the decorated property does not have a default value (set via a property initializer) or if it's not forced via attribute property Required.

If you want to make a CliArgument or CliOption optional (not required), set a default value for the decorated property:

[CliArgument]
public string Argument1 { get; set; } = "DefaultForArgument1";

or set Required property to false, to force it:

[CliArgument(Required = false)]
public string Argument1 { get; set; }

In that case, the default value for the decorated property will be used when the user does not specify the argument on the command line.


When you run,

TestApp.exe NewValueForArgument1

or (note the double hyphen/dash which allows dotnet run to pass arguments to our actual application):

dotnet run -- NewValueForArgument1

You see this result:

Handler for 'TestApp.Commands.RootCliCommand' is run:
Value for Option1 property is 'DefaultForOption1'
Value for Argument1 property is 'NewValueForArgument1'

This is because a CliArgument or CliOption decorated property is not required if the decorated property has a default value (set via a property initializer) or if it's not forced via attribute property Required.

If you want to make a CliArgument or CliOption required, remove the default value for the decorated property:

[CliOption]
public string Option1 { get; set; }

or set Required property to true, to force it:

[CliOption(Required = true)]
public string Option1 { get; set; } = "DefaultForOption1";

In that case, the default value for the decorated property will be ignored (if exists) and the user has to specify the option on the command line.


When you run,

TestApp.exe NewValueForArgument1 --option-1 NewValueForOption1

or (note the double hyphen/dash which allows dotnet run to pass arguments to our actual application):

dotnet run -- NewValueForArgument1 --option-1 NewValueForOption1

You see this result:

Handler for 'TestApp.Commands.RootCliCommand' is run:
Value for Option1 property is 'NewValueForOption1'
Value for Argument1 property is 'NewValueForArgument1'

Supported types

Note that you can have a specific type (other than string) for a property which a CliOption or CliArgument attribute is applied to, for example these properties will be parsed and bound/populated automatically:

[CliCommand]
public class WriteFileCommand
{
    [CliArgument]
    public FileInfo OutputFile { get; set; }

    [CliOption]
    public List<string> Lines { get; set; }
}

The following types for properties is supported:

  • Booleans (flags) - If true or false is passed for an option having a bool argument, it is parsed and bound as expected. But an option whose argument type is bool doesn't require an argument to be specified. The presence of the option token on the command line, with no argument following it, results in a value of true.

  • Enums - The values are bound by name, and the binding is case insensitive

  • Common CLR types:

    • string, bool
    • FileSystemInfo, FileInfo, DirectoryInfo
    • int, long, short, uint, ulong, ushort
    • double, float, decimal
    • byte, sbyte
    • DateTime, DateTimeOffset, TimeSpan, DateOnly, TimeOnly
    • Guid
    • Uri, IPAddress, IPEndPoint
  • Arrays, lists, collections - any type that implements IEnumerable<T> and has a public constructor with a IEnumerable<T> or IList<T> parameter (other parameters, if any, should be optional). If type is generic IEnumerable<T>, IList<T>, ICollection<T> interfaces itself, array T[] will be used. If type is non-generic IEnumerable, IList, ICollection interfaces itself, array string[] will be used.

    [CliCommand]
    public class EnumerableCliCommand
    {
        [CliOption]
        public IEnumerable<int> OptEnumerable { get; set; }
    
        [CliOption]
        public List<string> OptList { get; set; }
    
        [CliOption(AllowMultipleArgumentsPerToken = true)]
        public FileAccess[] OptEnumArray { get; set; }
    
        [CliOption]
        public Collection<string> OptCollection { get; set; }
    
        [CliOption]
        public HashSet<string> OptHashSet { get; set; }
    
        [CliOption]
        public Queue<FileInfo> OptQueue { get; set; }
    
        [CliOption]
        public CustomList<string> OptCustomList { get; set; }
    
        [CliArgument]
        public IList ArgIList { get; set; }
    }
    
    public class CustomList<T> : List<T>
    {
        public CustomList(IEnumerable<T> items)
            : base(items)
        {
    
        }
    }
    
  • Any type with a public constructor or a static Parse method with a string parameter (other parameters, if any, should be optional) - These types can be bound/parsed automatically even if they are wrapped with Enumerable or Nullable type.

    [CliCommand]
    public class ArgumentConverterCliCommand
    {
        [CliOption]
        public ClassWithConstructor Opt { get; set; }
    
        [CliOption(AllowMultipleArgumentsPerToken = true)]
        public ClassWithConstructor[] OptArray { get; set; }
    
        [CliOption]
        public CustomStruct? OptNullable { get; set; }
    
        [CliOption]
        public IEnumerable<ClassWithConstructor> OptEnumerable { get; set; }
    
        [CliOption]
        public List<ClassWithConstructor> OptList { get; set; }
    
        [CliOption]
        public CustomList<ClassWithConstructor> OptCustomList { get; set; }
    
        [CliArgument]
        public IEnumerable<ClassWithParser> Arg { get; set; }
    }
    
    public class ClassWithConstructor
    {
        private readonly string value;
    
        public ClassWithConstructor(string value)
        {
            this.value = value;
        }
    
        public override string ToString()
        {
            return value;
        }
    }
    
    public class ClassWithParser
    {
        private string value;
    
        public override string ToString()
        {
            return value;
        }
    
        public static ClassWithParser Parse(string value)
        {
            var instance = new ClassWithParser();
            instance.value = value;
            return instance;
        }
    }
    
    public struct CustomStruct
    {
        private readonly string value;
    
        public CustomStruct(string value)
        {
            this.value = value;
        }
    
        public override string ToString()
        {
            return value;
        }
    }
    

Help output

When you run the app via TestApp.exe -? or dotnet run -- -?, you see this usage help:

DotMake Command-Line TestApp v1.5.4
Copyright © 2023 DotMake

A root cli command

Usage:
  TestApp <argument-1> [options]

Arguments:
  <argument-1>  Description for Argument1 [required]

Options:
  -o, --option-1 <option-1>  Description for Option1 [default: DefaultForOption1]
  -v, --version              Show version information
  -?, -h, --help             Show help and usage information

Note, how command/option/argument names, descriptions and default values are automatically populated.

By default, command/option/argument names are generated as follows;

  • First the following suffixes are stripped out from class and property names:

    • For commands: "RootCliCommand", "RootCommand", "SubCliCommand", "SubCommand", "CliCommand", "Command", "Cli"
    • For options: "RootCommandOption", "SubCliCommandOption", "SubCommandOption", "CliCommandOption", "CommandOption", "CliOption", "Option"
    • For arguments: "RootCliCommandArgument", "RootCommandArgument", "SubCliCommandArgument", "SubCommandArgument", "CliCommandArgument", "CommandArgument", "CliArgument", "Argument"
  • Then the names are converted to kebab-case, this can be changed by setting NameCasingConvention property of the CliCommand attribute to one of the following values:

    • CliNameCasingConvention.None
    • CliNameCasingConvention.LowerCase
    • CliNameCasingConvention.UpperCase
    • CliNameCasingConvention.TitleCase
    • CliNameCasingConvention.PascalCase
    • CliNameCasingConvention.CamelCase
    • CliNameCasingConvention.KebabCase
    • CliNameCasingConvention.SnakeCase
  • For options, double hyphen/dash prefix is added to the name (e.g. --option), this can be changed by setting NamePrefixConvention (default: DoubleHyphen) property of the CliCommand attribute to one of the following values:

    • CliNamePrefixConvention.SingleHyphen
    • CliNamePrefixConvention.DoubleHyphen
    • CliNamePrefixConvention.ForwardSlash
  • For options, short-form alias with first letter (e.g. -o) is automatically added. This can be changed by setting ShortFormAutoGenerate (default: true) and ShortFormPrefixConvention (default: SingleHyphen) properties of the CliCommand attribute.


For example, change the name casing and prefix convention:

using System;
using DotMake.CommandLine;
 
[CliCommand(
    Description = "A cli command with snake_case name casing and forward slash prefix conventions",
    NameCasingConvention = CliNameCasingConvention.SnakeCase,
    NamePrefixConvention = CliNamePrefixConvention.ForwardSlash,
    ShortFormPrefixConvention = CliNamePrefixConvention.ForwardSlash
)]
public class RootSnakeSlashCliCommand
{
    [CliOption(Description = "Description for Option1")]
    public string Option1 { get; set; } = "DefaultForOption1";
 
    [CliArgument(Description = "Description for Argument1")]
    public string Argument1 { get; set; }
 
    public void Run()
    {
        Console.WriteLine($@"Handler for '{GetType().FullName}' is run:");
        Console.WriteLine($@"Value for {nameof(Option1)} property is '{Option1}'");
        Console.WriteLine($@"Value for {nameof(Argument1)} property is '{Argument1}'");
        Console.WriteLine();
    }
}

When you run the app via TestApp.exe -? or dotnet run -- -?, you see this usage help:

DotMake Command-Line TestApp v1.5.4
Copyright © 2023 DotMake

A cli command with snake_case name casing and forward slash prefix conventions

Usage:
  TestApp <argument_1> [options]

Arguments:
  <argument_1>  Description for Argument1 [required]

Options:
  /o, /option_1 <option_1>  Description for Option1 [default: DefaultForOption1]
  /v, /version              Show version information
  -?, -h, /help             Show help and usage information

Note how even the default options version and help use the new prefix convention ForwardSlash. By the way, as help is a special option, which allows user to discover your app, we still add short-form aliases with other prefix to prevent confusion.

Command Hierarchy

A command in command-line input is a token that specifies an action or defines a group of related actions. For example:

  • In dotnet run, run is a command that specifies an action.
  • In dotnet tool install, install is a command that specifies an action, and tool is a command that specifies a group of related commands. There are other tool-related commands, such as tool uninstall, tool list, and tool update.

Root commands

The root command is the one that specifies the name of the app's executable. For example, the dotnet command specifies the dotnet.exe executable.

Subcommands

Most command-line apps support subcommands, also known as verbs. For example, the dotnet command has a run subcommand that you invoke by entering dotnet run.

Subcommands can have their own subcommands. In dotnet tool install, install is a subcommand of tool.


Defining sub-commands in DotMake.Commandline is very easy. We simply use nested classes to create a hierarchy:

[CliCommand(Description = "A root cli command with nested children")]
public class RootWithNestedChildrenCliCommand
{
    [CliOption(Description = "Description for Option1")]
    public string Option1 { get; set; } = "DefaultForOption1";
 
    [CliArgument(Description = "Description for Argument1")]
    public string Argument1 { get; set; }
 
    public void Run()
    {
        Console.WriteLine($@"Handler for '{GetType().FullName}' is run:");
        Console.WriteLine($@"Value for {nameof(Option1)} property is '{Option1}'");
        Console.WriteLine($@"Value for {nameof(Argument1)} property is '{Argument1}'");
        Console.WriteLine();
    }
 
    [CliCommand(Description = "A nested level 1 sub-command")]
    public class Level1SubCliCommand
    {
        [CliOption(Description = "Description for Option1")]
        public string Option1 { get; set; } = "DefaultForOption1";
 
        [CliArgument(Description = "Description for Argument1")]
        public string Argument1 { get; set; }
 
        public void Run()
        {
            Console.WriteLine($@"Handler for '{GetType().FullName}' is run:");
            Console.WriteLine($@"Value for {nameof(Option1)} property is '{Option1}'");
            Console.WriteLine($@"Value for {nameof(Argument1)} property is '{Argument1}'");
            Console.WriteLine();
        }
 
        [CliCommand(Description = "A nested level 2 sub-command")]
        public class Level2SubCliCommand
        {
            [CliOption(Description = "Description for Option1")]
            public string Option1 { get; set; } = "DefaultForOption1";
 
            [CliArgument(Description = "Description for Argument1")]
            public string Argument1 { get; set; }
 
            public void Run()
            {
                Console.WriteLine($@"Handler for '{GetType().FullName}' is run:");
                Console.WriteLine($@"Value for {nameof(Option1)} property is '{Option1}'");
                Console.WriteLine($@"Value for {nameof(Argument1)} property is '{Argument1}'");
                Console.WriteLine();
            }
        }
    }
}

Just make sure you apply CliCommand attribute to the nested classes as well. Command hierarchy in above example is: RootWithNestedChildrenCliCommandLevel1SubCliCommandLevel2SubCliCommand

Another way to create hierarchy between commands, especially if you want to use standalone classes, is to use Parent property of CliCommand attribute to specify typeof parent class:

[CliCommand(Description = "A root cli command")]
public class RootWithExternalChildrenCliCommand
{
    [CliOption(Description = "Description for Option1")]
    public string Option1 { get; set; } = "DefaultForOption1";
 
    [CliArgument(Description = "Description for Argument1")]
    public string Argument1 { get; set; }
 
    public void Run()
    {
        Console.WriteLine($@"Handler for '{GetType().FullName}' is run:");
        Console.WriteLine($@"Value for {nameof(Option1)} property is '{Option1}'");
        Console.WriteLine($@"Value for {nameof(Argument1)} property is '{Argument1}'");
        Console.WriteLine();
    }
}

[CliCommand(
    Name = "Level1External",
    Description = "An external level 1 sub-command",
    Parent = typeof(RootWithExternalChildrenCliCommand)
)]
public class ExternalLevel1SubCliCommand
{
    [CliOption(Description = "Description for Option1")]
    public string Option1 { get; set; } = "DefaultForOption1";

    [CliArgument(Description = "Description for Argument1")]
    public string Argument1 { get; set; }

    public void Run()
    {
        Console.WriteLine($@"Handler for '{GetType().FullName}' is run:");
        Console.WriteLine($@"Value for {nameof(Option1)} property is '{Option1}'");
        Console.WriteLine($@"Value for {nameof(Argument1)} property is '{Argument1}'");
        Console.WriteLine();
    }

    [CliCommand(Description = "A nested level 2 sub-command")]
    public class Level2SubCliCommand
    {
        [CliOption(Description = "Description for Option1")]
        public string Option1 { get; set; } = "DefaultForOption1";

        [CliArgument(Description = "Description for Argument1")]
        public string Argument1 { get; set; }

        public void Run()
        {
            Console.WriteLine($@"Handler for '{GetType().FullName}' is run:");
            Console.WriteLine($@"Value for {nameof(Option1)} property is '{Option1}'");
            Console.WriteLine($@"Value for {nameof(Argument1)} property is '{Argument1}'");
            Console.WriteLine();
        }
    }
}

Command hierarchy in above example is: RootWithExternalChildrenCliCommandExternalLevel1SubCliCommandLevel2SubCliCommand


The class that CliCommand attribute is applied to,

  • will be a root command if the class is not a nested class and Parentproperty is not set.
  • will be a sub command if the class is a nested class or Parent property is set.

The properties for CliCommand attribute (see CliCommandAttribute docs for more info):

  • Name
  • Description
  • Aliases
  • Hidden
  • Parent
  • TreatUnmatchedTokensAsErrors
  • NameCasingConvention (inherited by child options, child arguments and subcommands)
  • NamePrefixConvention (inherited by child options and subcommands)
  • ShortFormPrefixConvention (inherited by child options and subcommands)
  • ShortFormAutoGenerate (inherited by child options and subcommands)

Command Inheritance

When you have repeating/common options and arguments for your commands, you can define them once in a base class and then share them by inheriting that base class in other command classes. Interfaces are also supported !

[CliCommand]
public class InheritanceCliCommand : CredentialCommandBase, IDepartmentCommand
{
    public string Department { get; set; } = "Accounting";
}

public abstract class CredentialCommandBase
{
    [CliOption(Description = "Username of the identity performing the command")]
    public string Username { get; set; } = "admin";

    [CliOption(Description = "Password of the identity performing the command")]
    public string Password { get; set; }

    public void Run()
    {
        Console.WriteLine($@"I am {Username}");
    }
}

public interface IDepartmentCommand
{
    [CliOption(Description = "Department of the identity performing the command (interface)")]
    string Department { get; set; }
}

The property attribute and the property initializer from the most derived class in the hierarchy will be used (they will override the base ones). The command handler (Run or RunAsync) will be also inherited. So in the above example, InheritanceCliCommand inherits options Username, Password from a base class and option Department from an interface. Note that the property initializer for Department is in the derived class, so that default value will be used.

Options

An option is a named parameter that can be passed to a command. POSIX CLIs typically prefix the option name with two hyphens (--). The following example shows two options:

dotnet tool update dotnet-suggest --verbosity quiet --global
                                  ^---------^       ^------^

As this example illustrates, the value of the option may be explicit (quiet for --verbosity) or implicit (nothing follows --global). Options that have no value specified are typically Boolean parameters that default to true if the option is specified on the command line.

For some Windows command-line apps, you identify an option by using a leading slash (/) with the option name. For example:

msbuild /version
        ^------^

Both POSIX and Windows prefix conventions are supported. When you configure an option, you specify the option name including the prefix.


When manually setting a name (overriding target property's name), you should specify the option name including the prefix (e.g. --option, -option or /option)

The properties for CliOption attribute (see CliOptionAttribute docs for more info):

  • Name
  • Description
  • Aliases
  • HelpName
  • Hidden
  • Required
  • Global
  • Arity
  • AllowedValues
  • AllowMultipleArgumentsPerToken

Arguments

An argument is a value passed to an option or a command. The following examples show an argument for the verbosity option and an argument for the build command.

dotnet tool update dotnet-suggest --verbosity quiet --global
                                              ^---^
dotnet build myapp.csproj
             ^----------^

Arguments can have default values that apply if no argument is explicitly provided. For example, many options are implicitly Boolean parameters with a default of true when the option name is in the command line. The following command-line examples are equivalent:

dotnet tool update dotnet-suggest --global
                                  ^------^

dotnet tool update dotnet-suggest --global true
                                  ^-----------^

Some options have required arguments. For example in the .NET CLI, --output requires a folder name argument. If the argument is not provided, the command fails.

Arguments can have expected types, and System.CommandLine displays an error message if an argument can't be parsed into the expected type. For example, the following command errors because "silent" isn't one of the valid values for --verbosity:

dotnet build --verbosity silent
Cannot parse argument 'silent' for option '-v' as expected type 'Microsoft.DotNet.Cli.VerbosityOptions'. Did you mean one of the following?
Detailed
Diagnostic
Minimal
Normal
Quiet

The properties for CliArgument attribute (see CliArgumentAttribute docs for more info):

  • Name
  • Description
  • HelpName
  • Hidden
  • Required
  • Arity
  • AllowedValues

Additional documentation

Product Compatible and additional computed target framework versions.
.NET net5.0 was computed.  net5.0-windows was computed.  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. 
.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. 
Compatible target framework(s)
Included target framework(s) (in package)
Learn more about Target Frameworks and .NET Standard.

NuGet packages

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GitHub repositories

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1.5.9 73 1/4/2024
1.5.8 75 1/3/2024
1.5.7 78 1/1/2024
1.5.6 70 12/29/2023
1.5.5 61 12/27/2023
1.5.4 76 12/25/2023
1.5.2 55 12/23/2023
1.5.0 62 12/22/2023
1.4.0 70 12/19/2023
1.2.1 75 12/15/2023
1.2.0 71 12/15/2023
1.0.0 68 12/12/2023

- Fixed: inheritance logic for CliOption and CliArgument attributes, the attibute from the most derived property should be used
       and other ones should be ignored (double option or argument should not be created).
     - Added: Cli.GetArgs method which returns the same as the special variable `args` available in `Program.cs` (new style with top-level statements)
       or as the string array passed to the program's `Main` method (old style).
       For more more concise syntax when writing cli apps, made `args` parameter optional for Cli.Run, Cli.RunAsync and Cli.Parse methods
       so user does not have to specify it, i.e. it will be retrieved automatically from the process with Cli.GetArgs.