withCDIDevices("vendor1.com/class1=device1", "vendor2.com/class2=device2"),
				),
			},
			expected: &DeviceRunContainerOptions{
				Annotations: []kubecontainer.Annotation{
					{Name: "cdi.k8s.io/devicemanager_pod-container", Value: "vendor1.com/class1=device1,vendor2.com/class2=device2"},
				},
				CDIDevices: []kubecontainer.CDIDevice{
					{Name: "vendor1.com/class1=device1"},

        when:
        processor.startProcessing(testResultProcessor)
        ['Class1', 'Class2', 'Class3'].each { processor.processTestClass(new DefaultTestClassRunInfo(it)) }
        processor.stop()

        then:
        1 * delegate.startProcessing(testResultProcessor)
        then:
        1 * delegate.processTestClass(new DefaultTestClassRunInfo('Class3'))
        then:

trait CodeNarcTestFixture {
    def goodCode() {
        file("src/main/groovy/org/gradle/class1.java") << "package org.gradle; class class1 { }"
        file("src/test/groovy/org/gradle/testclass1.java") << "package org.gradle; public class testclass1 { @org.junit.Test public void test1() { } }"
        file("src/main/groovy/org/gradle/Class2.groovy") << "package org.gradle; class Class2 { }"

## Recursos do Starlette

**FastAPI** é totalmente compatível com (e baseado no) <a href="https://www.starlette.io/" class="external-link" target="_blank"><strong>Starlette</strong></a>. Então, qualquer código adicional Starlette que você tiver, também funcionará.

`FastAPI` é na verdade uma sub-classe do `Starlette`. Então, se você já conhece ou usa Starlette, a maioria das funcionalidades se comportará da mesma forma.

            Interface12.class,
            Interface1.class,
            Interface2.class,
            Class1.class,
            Object.class);
    makeUnmodifiable(types.interfaces().rawTypes())
        .containsExactly(
            Interface3.class,
            Interface12.class,
            Interface1.class,
            Interface2.class,
            Iterable.class);
    makeUnmodifiable(types.classes().rawTypes())

        when:
        scanner.run()

        then:
        1 * detector.startDetection(processor)
        then:
        1 * files.visit(_) >> { args ->
            FileVisitor visitor = args[0]
            assert visitor
            visitor.visitFile(class1)
            visitor.visitFile(class2)
        }
        then:

        file('src/main/groovy/org/gradle/Class2.java') << 'package org.gradle; class Class2 { }'
        file('src/test/groovy/org/gradle/TestClass2.java') << 'package org.gradle; public class TestClass2 { @org.junit.Test public void test2() { } }'
    }

    private badCode() {
        file("src/main/java/org/gradle/class1.java") << "package org.gradle; class class1 { }"

Illustration of Jar instrumentation is shown below.

```mermaid
flowchart TB
    jar(Jar)
    modifiedJar(Jar*)
    class1("Class1")
    class2("Class2")
    class3("Class3")
    modifiedClass1("Class1*")
    modifiedClass2("Class2*")
    modifiedClass3("Class3*")
    instrumentingClassTransform{{"InstrumentingClassTransform\n(ClassVisitor)"}}
    interceptors(Generated interceptors)

        TestDomainObject value2 = new TestDomainObject('a')
        repository.put('class1', value1)
        repository.put('class2', value2)
        Closure cl = Mock()

        when:
        repository.each(cl)

        then:
        1 * cl.call(['class1', value1] as Object[])
        1 * cl.call(['class2', value2] as Object[])
        0 * cl._
    }

    def canIterateOverClassesUsingAction() {

        """
            package org.gradle.ruleusing;
            public class Class2 extends Class1 { }
        """
    }

    private static classReferencingIntermediate() {
        """
        package org.gradle.ruleusing;
        public class Class1 {
            private org.gradle.intermediate.IntermediateClass mClass = null;
        }
       """
    }