}

    private
    abstract class MyTopLevelReceiver {
        @Adding
        abstract fun addSomething(x: Int, configure: MyTopLevelReceiver.() -> Unit): MyTopLevelReceiver

        @Adding
        abstract fun addSomething(x: Int): MyTopLevelReceiver
    }

    @Suppress("unused")
    private
    abstract class Receiver {
        @Adding
        abstract fun lambdaRequired(x: Int, configure: Receiver.() -> Unit): Receiver

        @Adding
        abstract fun lambdaOptional(x: Int, configure: Receiver.() -> Unit = { }): Receiver

        @Adding
        abstract fun lambdaNotAllowed(x: Int): Receiver
    }

In test execution, the modules are then treated as standard Java libraries with the encapsulation deactivated.

Blackbox (e.g. integration) tests, which should also follow the encapsulation rules during test execution, can be written by turning the corresponding test sources set itself into a module by adding a `module-info.java`.

        return this;
    }

    public SuggestRequestBuilder addField(final String field) {
        request.addField(field);
        return this;
    }

    public SuggestRequestBuilder addKind(final String kind) {
        request.addKind(kind);
        return this;
    }

    public SuggestRequestBuilder setSuggestDetail(final boolean suggestDetail) {
        request.setSuggestDetail(suggestDetail);
        return this;
    }

                analyzeNetworkInterface(interfaces.nextElement());
            }
        }
    }

    private void analyzeNetworkInterface(NetworkInterface networkInterface) {
        logger.debug("Adding IP addresses for network interface {}", networkInterface.getDisplayName());
        try {
            boolean isLoopbackInterface = networkInterface.isLoopback();

                    }
                }
            }

            dependencies {
                custom 'log4j:log4j:1.2.17'
            }
        """
    }

    def "test adding custom variant with dependency mapped to Maven runtime scope"() {
        given:
        buildFile << """
            components.java.addVariantsFromConfiguration(configurations.custom) {

    @get:Restricted
    abstract var superClassProp: SuperClass

    @get:Restricted
    abstract var superInterfaceProp: SuperInterface

    @Adding
    abstract fun addSuperClass(superclass: SuperClass)

    @Adding
    abstract fun addSuperInterface(superclass: SuperInterface)

    @Restricted
    abstract fun sub(): Subtype

    @Restricted
    abstract fun notASub(): NotASubtype

func (f *File) LineCount() int {
	f.mutex.Lock()
	n := len(f.lines)
	f.mutex.Unlock()
	return n
}

// AddLine adds the line offset for a new line.
// The line offset must be larger than the offset for the previous line
// and smaller than the file size; otherwise the line offset is ignored.
func (f *File) AddLine(offset int) {
	f.mutex.Lock()
	if i := len(f.lines); (i == 0 || f.lines[i-1] < offset) && offset < f.size {

    val specs: List<MutablePluginDependencySpec>
        get() = _specs

    private
    val _specs = mutableListOf<MutablePluginDependencySpec>()

    @Adding
    override fun id(id: String): MutablePluginDependencySpec = MutablePluginDependencySpec(id).also(_specs::add)

    @Adding
    fun kotlin(id: String) = id("org.jetbrains.kotlin.$id")
}


class MutablePluginDependencySpec(
    val id: String
) : PluginDependencySpec {

		print("a binary compiled for hard floating point. Recompile adding ,softfloat\n")
		print("to GOARM.\n")
		exit(1)
	}
	if goarm > 6 && cpu.HWCap&_HWCAP_VFPv3 == 0 && goarmsoftfp == 0 {
		print("runtime: this CPU has no VFPv3 floating point hardware, so it cannot run\n")
		print("a binary compiled for VFPv3 hard floating point. Recompile adding ,softfloat\n")
		print("to GOARM or changing GOARM to 6.\n")
		exit(1)
	}