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-->The .NET Compiler Platform SDK provides the tools you need to create custom warnings that target C# or Visual Basic code. Your analyzer contains code that recognizes violations of your rule. Your code fix contains the code that fixes the violation. The rules you implement can be anything from code structure to coding style to naming conventions and more. The .NET Compiler Platform provides the framework for running analysis as developers are writing code, and all the Visual Studio UI features for fixing code: showing squiggles in the editor, populating the Visual Studio Error List, creating the 'light bulb' suggestions and showing the rich preview of the suggested fixes.
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In this tutorial, you'll explore the creation of an analyzer and an accompanying code fix using the Roslyn APIs. An analyzer is a way to perform source code analysis and report a problem to the user. Optionally, an analyzer can also provide a code fix that represents a modification to the user's source code. This tutorial creates an analyzer that finds local variable declarations that could be declared using the
const
modifier but are not. The accompanying code fix modifies those declarations to add the const
modifier.Prerequisites
Note
The current Visual Studio Analyzer with code fix (.NET Standard) template has a known bug in it and should be fixed in Visual Studio 2019 version 16.7. The projects in the template will not compile unless the following changes are made:
- Select Tools > Options > NuGet Package Manager > Package Sources
- Select the plus button, to add a new source:
- Set the Source to
https://dotnet.myget.org/F/roslyn-analyzers/api/v3/index.json
and select Update
- From the Solution Explorer, right-click on the MakeConst.Vsix project, and select Edit Project File
- Update the
<AssemblyName>
node to add the.Visx
suffix:<AssemblyName>MakeConst.Vsix</AssemblyName>
- Update the
<ProjectReference>
node on line 41 to alter theTargetFramework
value:<ProjectReference Update='@(ProjectReference)' AdditionalProperties='TargetFramework=netstandard2.0' />
- Update the
- Update the MakeConstUnitTests.cs file, in the MakeConst.Test project:
- Change line 9 to the following, notice namespace alteration:
using Verify = Microsoft.CodeAnalysis.CSharp.Testing.MSTest.CodeFixVerifier<
- Change line 24 to the following method:
await Verify.VerifyAnalyzerAsync(test);
- Change line 62 to the following method:
await Verify.VerifyCodeFixAsync(test, expected, fixtest);
- Change line 9 to the following, notice namespace alteration:
You'll need to install the .NET Compiler Platform SDK via the Visual Studio Installer:
Installation instructions - Visual Studio Installer
There are two different ways to find the .NET Compiler Platform SDK in the Visual Studio Installer:
Install using the Visual Studio Installer - Workloads view
The .NET Compiler Platform SDK is not automatically selected as part of the Visual Studio extension development workload. You must select it as an optional component.
- Run Visual Studio Installer
- Select Modify
- Check the Visual Studio extension development workload.
- Open the Visual Studio extension development node in the summary tree.
- Check the box for .NET Compiler Platform SDK. You'll find it last under the optional components.
Optionally, you'll also want the DGML editor to display graphs in the visualizer:
- Open the Individual components node in the summary tree.
- Check the box for DGML editor
Install using the Visual Studio Installer - Individual components tab
- Run Visual Studio Installer
- Select Modify
- Select the Individual components tab
- Check the box for .NET Compiler Platform SDK. You'll find it at the top under the Compilers, build tools, and runtimes section.
Optionally, you'll also want the DGML editor to display graphs in the visualizer:
- Check the box for DGML editor. You'll find it under the Code tools section.
There are several steps to creating and validating your analyzer:
- Create the solution.
- Register the analyzer name and description.
- Report analyzer warnings and recommendations.
- Implement the code fix to accept recommendations.
- Improve the analysis through unit tests.
Explore the analyzer template
Your analyzer reports to the user any local variable declarations that can be converted to local constants. For example, consider the following code:
In the code above,
x
is assigned a constant value and is never modified. It can be declared using the const
modifier:The analysis to determine whether a variable can be made constant is involved, requiring syntactic analysis, constant analysis of the initializer expression and dataflow analysis to ensure that the variable is never written to. The .NET Compiler Platform provides APIs that make it easier to perform this analysis. The first step is to create a new C# Analyzer with code fix project.
- In Visual Studio, choose File > New > Project... to display the New Project dialog.
- Under Visual C# > Extensibility, choose Analyzer with code fix (.NET Standard).
- Name your project 'MakeConst' and click OK.
The analyzer with code fix template creates three projects: one contains the analyzer and code fix, the second is a unit test project, and the third is the VSIX project. The default startup project is the VSIX project. Press F5 to start the VSIX project. This starts a second instance of Visual Studio that has loaded your new analyzer.
Tip
When you run your analyzer, you start a second copy of Visual Studio. This second copy uses a different registry hive to store settings. That enables you to differentiate the visual settings in the two copies of Visual Studio. You can pick a different theme for the experimental run of Visual Studio. In addition, don't roam your settings or login to your Visual Studio account using the experimental run of Visual Studio. That keeps the settings different.
In the second Visual Studio instance that you just started, create a new C# Console Application project (either .NET Core or .NET Framework project will work -- analyzers work at the source level.) Hover over the token with a wavy underline, and the warning text provided by an analyzer appears.
The template creates an analyzer that reports a warning on each type declaration where the type name contains lowercase letters, as shown in the following figure:
The template also provides a code fix that changes any type name containing lower case characters to all upper case. You can click on the light bulb displayed with the warning to see the suggested changes. Accepting the suggested changes updates the type name and all references to that type in the solution. Now that you've seen the initial analyzer in action, close the second Visual Studio instance and return to your analyzer project.
You don't have to start a second copy of Visual Studio and create new code to test every change in your analyzer. The template also creates a unit test project for you. That project contains two tests.
TestMethod1
shows the typical format of a test that analyzes code without triggering a diagnostic. TestMethod2
shows the format of a test that triggers a diagnostic, and then applies a suggested code fix. As you build your analyzer and code fix, you'll write tests for different code structures to verify your work. Unit tests for analyzers are much quicker than testing them interactively with Visual Studio.Tip
Analyzer unit tests are a great tool when you know what code constructs should and shouldn't trigger your analyzer. Loading your analyzer in another copy of Visual Studio is a great tool to explore and find constructs you may not have thought about yet.
Create analyzer registrations
The template creates the initial
DiagnosticAnalyzer
class, in the MakeConstAnalyzer.cs file. This initial analyzer shows two important properties of every analyzer.- Every diagnostic analyzer must provide a
[DiagnosticAnalyzer]
attribute that describes the language it operates on. - Every diagnostic analyzer must derive from the DiagnosticAnalyzer class.
The template also shows the basic features that are part of any analyzer:
- Register actions. The actions represent code changes that should trigger your analyzer to examine code for violations. When Visual Studio detects code edits that match a registered action, it calls your analyzer's registered method.
- Create diagnostics. When your analyzer detects a violation, it creates a diagnostic object that Visual Studio uses to notify the user of the violation.
You register actions in your override of DiagnosticAnalyzer.Initialize(AnalysisContext) method. In this tutorial, you'll visit syntax nodes looking for local declarations, and see which of those have constant values. If a declaration could be constant, your analyzer will create and report a diagnostic.
The first step is to update the registration constants and
Initialize
method so these constants indicate your 'Make Const' analyzer. Most of the string constants are defined in the string resource file. You should follow that practice for easier localization. Open the Resources.resx file for the MakeConst analyzer project. This displays the resource editor. Update the string resources as follows:- Change
AnalyzerTitle
to 'Variable can be made constant'. - Change
AnalyzerMessageFormat
to 'Can be made constant'. - Change
AnalyzerDescription
to 'Make Constant'.
Also, change the Access Modifier drop-down to
public
. That makes it easier to use these constants in unit tests. When you have finished, the resource editor should appear as follow figure shows:The remaining changes are in the analyzer file. Open MakeConstAnalyzer.cs in Visual Studio. Change the registered action from one that acts on symbols to one that acts on syntax. In the
MakeConstAnalyzerAnalyzer.Initialize
method, find the line that registers the action on symbols:Replace it with the following line:
After that change, you can delete the
AnalyzeSymbol
method. This analyzer examines SyntaxKind.LocalDeclarationStatement, not SymbolKind.NamedType statements. Notice that AnalyzeNode
has red squiggles under it. The code you just added references an AnalyzeNode
method that hasn't been declared. Declare that method using the following code:Change the
Category
to 'Usage' in MakeConstAnalyzer.cs as shown in the following code:Find local declarations that could be const
It's time to write the first version of the
AnalyzeNode
method. It should look for a single local declaration that could be const
but is not, like the following code:The first step is to find local declarations. Add the following code to
AnalyzeNode
in MakeConstAnalyzer.cs:This cast always succeeds because your analyzer registered for changes to local declarations, and only local declarations. No other node type triggers a call to your
AnalyzeNode
method. Next, check the declaration for any const
modifiers. If you find them, return immediately. The following code looks for any const
modifiers on the local declaration:Finally, you need to check that the variable could be
const
. That means making sure it is never assigned after it is initialized.You'll perform some semantic analysis using the SyntaxNodeAnalysisContext. You use the
context
argument to determine whether the local variable declaration can be made const
. A Microsoft.CodeAnalysis.SemanticModel represents all of semantic information in a single source file. You can learn more in the article that covers semantic models. You'll use the Microsoft.CodeAnalysis.SemanticModel to perform data flow analysis on the local declaration statement. Then, you use the results of this data flow analysis to ensure that the local variable isn't written with a new value anywhere else. Call the GetDeclaredSymbol extension method to retrieve the ILocalSymbol for the variable and check that it isn't contained with the DataFlowAnalysis.WrittenOutside collection of the data flow analysis. Add the following code to the end of the AnalyzeNode
method:The code just added ensures that the variable isn't modified, and can therefore be made
const
. It's time to raise the diagnostic. Add the following code as the last line in AnalyzeNode
:You can check your progress by pressing F5 to run your analyzer. You can load the console application you created earlier and then add the following test code:
The light bulb should appear, and your analyzer should report a diagnostic. However, the light bulb still uses the template generated code fix, and tells you it can be made upper case. The next section explains how to write the code fix.
Write the code fix
An analyzer can provide one or more code fixes. A code fix defines an edit that addresses the reported issue. For the analyzer that you created, you can provide a code fix that inserts the const keyword:
The user chooses it from the light bulb UI in the editor and Visual Studio changes the code.
Open the MakeConstCodeFixProvider.cs file added by the template. This code fix is already wired up to the Diagnostic ID produced by your diagnostic analyzer, but it doesn't yet implement the right code transform. First you should remove some of the template code. Change the title string to 'Make constant':
Next, delete the
MakeUppercaseAsync
method. It no longer applies.All code fix providers derive from CodeFixProvider. They all override CodeFixProvider.RegisterCodeFixesAsync(CodeFixContext) to report available code fixes. In
RegisterCodeFixesAsync
, change the ancestor node type you're searching for to a LocalDeclarationStatementSyntax to match the diagnostic:Next, change the last line to register a code fix. Your fix will create a new document that results from adding the
const
modifier to an existing declaration:You'll notice red squiggles in the code you just added on the symbol
MakeConstAsync
. Add a declaration for MakeConstAsync
like the following code:Your new
MakeConstAsync
method will transform the Document representing the user's source file into a new Document that now contains a const
declaration.You create a new
const
keyword token to insert at the front of the declaration statement. Be careful to first remove any leading trivia from the first token of the declaration statement and attach it to the const
token. Add the following code to the MakeConstAsync
method:Next, add the
const
token to the declaration using the following code:Next, format the new declaration to match C# formatting rules. Formatting your changes to match existing code creates a better experience. Add the following statement immediately after the existing code:
A new namespace is required for this code. Add the following
using
directive to the top of the file:The final step is to make your edit. There are three steps to this process:
- Get a handle to the existing document.
- Create a new document by replacing the existing declaration with the new declaration.
- Return the new document.
Add the following code to the end of the
MakeConstAsync
method:Your code fix is ready to try. Press F5 to run the analyzer project in a second instance of Visual Studio. In the second Visual Studio instance, create a new C# Console Application project and add a few local variable declarations initialized with constant values to the Main method. You'll see that they are reported as warnings as below.
You've made a lot of progress. There are squiggles under the declarations that can be made
const
. But there is still work to do. This works fine if you add const
to the declarations starting with i
, then j
and finally k
. But, if you add the const
modifier in a different order, starting with k
, your analyzer creates errors: k
can't be declared const
, unless i
and j
are both already const
. You've got to do more analysis to ensure you handle the different ways variables can be declared and initialized.Build data driven tests
Your analyzer and code fix work on a simple case of a single declaration that can be made const. There are numerous possible declaration statements where this implementation makes mistakes. You'll address these cases by working with the unit test library written by the template. It's much faster than repeatedly opening a second copy of Visual Studio.
Open the MakeConstUnitTests.cs file in the unit test project. The template created two tests that follow the two common patterns for an analyzer and code fix unit test.
TestMethod1
shows the pattern for a test that ensures the analyzer doesn't report a diagnostic when it shouldn't. TestMethod2
shows the pattern for reporting a diagnostic and running the code fix.The code for almost every test for your analyzer follows one of these two patterns. For the first step, you can rework these tests as data driven tests. Then, it will be easy to create new tests by adding new string constants to represent different test inputs.
For efficiency, the first step is to refactor the two tests into data driven tests. Then, you only need to define a couple string constants for each new test. While you are refactoring, rename both methods to better names. Replace
TestMethod1
with this test that ensures no diagnostic is raised:You can create a new data row for this test by defining any code fragment that should not cause your diagnostic to trigger a warning. This overload of
VerifyCSharpDiagnostic
passes when there are no diagnostics triggered for the source code fragment.Next, replace
TestMethod2
with this test that ensures a diagnostic is raised and a code fix applied for the source code fragment:The preceding code also made a couple changes to the code that builds the expected diagnostic result. It uses the public constants registered in the
MakeConst
analyzer. In addition, it uses two string constants for the input and fixed source. Add the following string constants to the UnitTest
class:Run these two tests to make sure they pass. In Visual Studio, open the Test Explorer by selecting Test > Windows > Test Explorer. Then select the Run All link.
Create tests for valid declarations
As a general rule, analyzers should exit as quickly as possible, doing minimal work. Visual Studio calls registered analyzers as the user edits code. Responsiveness is a key requirement. There are several test cases for code that should not raise your diagnostic. Your analyzer already handles one of those tests, the case where a variable is assigned after being initialized. Add the following string constant to your tests to represent that case:
Then, add a data row for this test as shown in the snippet below:
This test passes as well. Next, add constants for conditions you haven't handled yet:
- Declarations that are already
const
, because they are already const: - Declarations that have no initializer, because there is no value to use:
- Declarations where the initializer is not a constant, because they can't be compile-time constants:
It can be even more complicated because C# allows multiple declarations as one statement. Consider the following test case string constant:
The variable
i
can be made constant, but the variable j
cannot. Therefore, this statement cannot be made a const declaration. Add the DataRow
declarations for all these tests:Run your tests again, and you'll see these new test cases fail.
Update your analyzer to ignore correct declarations
You need some enhancements to your analyzer's
AnalyzeNode
method to filter out code that matches these conditions. They are all related conditions, so similar changes will fix all these conditions. Make the following changes to AnalyzeNode
:- Your semantic analysis examined a single variable declaration. This code needs to be in a
foreach
loop that examines all the variables declared in the same statement. - Each declared variable needs to have an initializer.
- Each declared variable's initializer must be a compile-time constant.
In your
AnalyzeNode
method, replace the original semantic analysis:with the following code snippet:
The first
foreach
loop examines each variable declaration using syntactic analysis. The first check guarantees that the variable has an initializer. The second check guarantees that the initializer is a constant. The second loop has the original semantic analysis. The semantic checks are in a separate loop because it has a greater impact on performance. Run your tests again, and you should see them all pass.Add the final polish
You're almost done. There are a few more conditions for your analyzer to handle. Visual Studio calls analyzers while the user is writing code. It's often the case that your analyzer will be called for code that doesn't compile. The diagnostic analyzer's
AnalyzeNode
method does not check to see if the constant value is convertible to the variable type. So, the current implementation will happily convert an incorrect declaration such as int i = 'abc' to a local constant. Add a source string constant for that condition:In addition, reference types are not handled properly. The only constant value allowed for a reference type is
null
, except in this case of System.String, which allows string literals. In other words, const string s = 'abc'
is legal, but const object s = 'abc'
is not. This code snippet verifies that condition:To be thorough, you need to add another test to make sure that you can create a constant declaration for a string. The following snippet defines both the code that raises the diagnostic, and the code after the fix has been applied:
Finally, if a variable is declared with the
var
keyword, the code fix does the wrong thing and generates a const var
declaration, which is not supported by the C# language. To fix this bug, the code fix must replace the var
keyword with the inferred type's name:These changes update the data row declarations for both tests. The following code shows these tests with all data row attributes:
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Fortunately, all of the above bugs can be addressed using the same techniques that you just learned.
To fix the first bug, first open DiagnosticAnalyzer.cs and locate the foreach loop where each of the local declaration's initializers are checked to ensure that they're assigned with constant values. Immediately before the first foreach loop, call
context.SemanticModel.GetTypeInfo()
to retrieve detailed information about the declared type of the local declaration:Then, inside your
foreach
loop, check each initializer to make sure it's convertible to the variable type. Add the following check after ensuring that the initializer is a constant:The next change builds upon the last one. Before the closing curly brace of the first foreach loop, add the following code to check the type of the local declaration when the constant is a string or null.
You must write a bit more code in your code fix provider to replace the
var
keyword with the correct type name. Return to CodeFixProvider.cs. The code you'll add does the following steps:- Check if the declaration is a
var
declaration, and if it is: - Create a new type for the inferred type.
- Make sure the type declaration is not an alias. If so, it is legal to declare
const var
. - Make sure that
var
isn't a type name in this program. (If so,const var
is legal). - Simplify the full type name
That sounds like a lot of code. It's not. Replace the line that declares and initializes
newLocal
with the following code. It goes immediately after the initialization of newModifiers
:You'll need to add one
using
directive to use the Simplifier type:Run your tests, and they should all pass. Congratulate yourself by running your finished analyzer. Press Ctrl+F5 to run the analyzer project in a second instance of Visual Studio with the Roslyn Preview extension loaded.
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- In the second Visual Studio instance, create a new C# Console Application project and add
int x = 'abc';
to the Main method. Thanks to the first bug fix, no warning should be reported for this local variable declaration (though there's a compiler error as expected). - Next, add
object s = 'abc';
to the Main method. Because of the second bug fix, no warning should be reported. - Finally, add another local variable that uses the
var
keyword. You'll see that a warning is reported and a suggestion appears beneath to the left. - Move the editor caret over the squiggly underline and press Ctrl+.. to display the suggested code fix. Upon selecting your code fix, note that the
var
keyword is now handled correctly.
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Finally, add the following code:
After these changes, you get red squiggles only on the first two variables. Add
const
to both i
and j
, and you get a new warning on k
because it can now be const
.Congratulations! You've created your first .NET Compiler Platform extension that performs on-the-fly code analysis to detect an issue and provides a quick fix to correct it. Along the way, you've learned many of the code APIs that are part of the .NET Compiler Platform SDK (Roslyn APIs). You can check your work against the completed sample in our samples GitHub repository.
Other resources
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Total Visual CodeTools supports your coding efforts in all VB/VBA hosts, including Visual Basic 6.0 (VB6) the 32-bit versions of Microsoft Office 365/Access 2019, 2016, 2013, 2010, 2007, 2003, Office XP/2002, and Office 2000. Increase your productivity and take advantage of the enterprise features to make your entire development team more effective. We hope you find Total Visual CodeTools useful in your daily coding activities, for cleaning up old or inherited projects, and for delivering more robust applications.
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When you install Total Visual CodeTools, the setup program creates registry entries so the Microsoft Visual Basic and Office programs can integrate it into their add-ins menu. Total Visual CodeTools installs as a 'loaded' add-in. This means that whenever you start Visual Basic or the Office Visual Basic Editor, the CodeTools menu and toolbar is ready to go.
While we have designed Total Visual CodeTools to be as easy to use as possible, you should spend some time familiarizing yourself with the basics before using it. To do this, use the Online Help that comes with the product. You can access Online Help from the program by pressing [F1], or by going to your Windows Start Menu and selecting Programs, FMS, Total Visual CodeTools, Help.
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This trial version is designed to provide you with the opportunity to evaluate the power of Total Visual CodeTools. It is identical to the full version of the product with the following exceptions:
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