def binary = new File("any")
        when:
        def metadata = metadataProvider(compiler).getCompilerMetaData([]) { it.executable(binary) }

        then:
        interaction compilerShouldBeExecuted

        when:
        def newMetadata = metadataProvider(compiler).getCompilerMetaData([]) { it.executable(binary) }

        then:
        0 * _

    }
    tasks {
        verify(Task) {
            doLast {
                def comp = $.components.mylib
                def binary = comp.binaries.main
                assert comp.sources.size() == 1
                assert binary.sources.size() == 1
                assert binary.inputs == comp.sources + binary.sources as Set
            }
        }
    }
}
'''

        expect:
        succeeds "verify"
    }

//
// Basic selection logic is as follows:
// 1. see if we have `nft` binary set in our $PATH
// 2. see if we have existing rules in `nft` in our netns
// 3. If so, use `nft` binary set
// 4. Otherwise, see if we have `legacy` binary set, and use that.
// 5. Otherwise, see if we have `iptables` binary set, and use that (detecting whether it's nft or legacy).

exec $WORK/lib/goroot/bin/go list -f '{{.ImportPath}}: {{.Dir}}' encoding/binary
stdout '^encoding/binary: '$WORK${/}lib${/}goroot${/}src${/}encoding${/}binary'$'

exec $WORK/lib/goroot/bin/go list -f '{{.ImportPath}}: {{.Dir}}' std
stdout '^encoding/binary: '$WORK${/}lib${/}goroot${/}src${/}encoding${/}binary'$'

# Most path lookups in GOROOT are not sensitive to symlinks. However, patterns

 *          //building the binary
 *      }
 * }
 *
 * class MyCustomBinariesPlugin extends RuleSource {
 *     {@literal @}ComponentType
 *     void register(TypeBuilder<SampleBinary> builder) {}
 *
 *     {@literal @}BinaryTasks
 *     void createBinaryTasks(ModelMap<Task> tasks, SampleBinary binary) {
 *         tasks.create("${binary.name}Task1", MyCustomBinaryCreationTask)

                    linkTask.getTargetPlatform().set(binary.getTargetPlatform());
                    linkTask.getLinkedFile().set(binary.getSharedLibraryFile());
                    linkTask.getInstallName().set(binary.getSharedLibraryFile().getName());
                    linkTask.getLinkerArgs().set(binary.getLinker().getArgs());
                    linkTask.getImportLibrary().set(binary.getSharedLibraryLinkFile());

    private final CppSharedLibrary binary;

    public CppSharedLibraryVisualStudioTargetBinary(String projectName, String projectPath, CppComponent component, CppSharedLibrary binary, ProjectLayout projectLayout) {
        super(projectName, projectPath, component, projectLayout);
        this.binary = binary;
    }

    @Override
    CppBinary getBinary() {
        return binary;
    }

    @Override

            final Names names = binary.getNames();
            TaskProvider<SwiftCompile> compile = tasks.register(names.getCompileTaskName("swift"), SwiftCompile.class, task -> {
                task.getModules().from(binary.getCompileModules());
                task.getSource().from(binary.getSwiftSource());
                task.getDebuggable().set(binary.isDebuggable());

    private final VisualStudioTargetBinary binary;

    public VisualStudioProjectConfiguration(DefaultVisualStudioProject vsProject, String configurationName, VisualStudioTargetBinary binary) {
        this.vsProject = vsProject;
        this.configurationName = configurationName;
        this.name = configurationName + "|" + platformName;
        this.binary = binary;
    }

    @Input
    public String getName() {

        failure.assertHasCause("""No buildable binaries found:
  - SampleBinary 'lib:notBuildableBinary1':
      - Binary notBuildableBinary1 has 'notBuildable' in the name
  - SampleBinary 'lib:notBuildableBinary2':
      - Binary notBuildableBinary2 has 'notBuildable' in the name""")
    }

    def "builds those component binaries that are buildable and skips those that are not" () {