The second special case consists of stack events. These events are identified
by the IsStack flag. These events also have a trailing unsigned integer argument
describing the number of stack frame descriptors that follow. Each stack frame
descriptor is on its own line following the event, consisting of four signed
integer arguments: the PC, an integer describing the function name, an integer
describing the file name, and the line number in that file that function was at

        with(printer) {
            val classifier = typeSegment.classifierDescriptor

            append(classifier.maybeLocalClassId.asString())

            val arguments = typeSegment.arguments
            printCollectionIfNotEmpty(arguments, separator = ", ", prefix = "<", postfix = ">") {
                renderTypeProjection(it, printer)
            }
        }
    }

    }

    public static Stream<Arguments> activateBatchModeArguments() {
        return Stream.of(
                Arguments.of(false, new String[] {}, false),
                Arguments.of(true, new String[] {}, true),
                Arguments.of(true, new String[] {"--force-interactive"}, false),
                Arguments.of(true, new String[] {"--force-interactive", "--non-interactive"}, false),

	//  var x = len(s)
	InvalidLen

	// SwappedMakeArgs occurs when make is called with three arguments, and its
	// length argument is larger than its capacity argument.
	//
	// Example:
	//  var x = make([]int, 3, 2)
	SwappedMakeArgs

	// InvalidMake occurs when make is called with an unsupported type argument.
	//
	// See https://golang.org/ref/spec#Making_slices_maps_and_channels for

public typealias KtEnumEntryAnnotationValue = KaEnumEntryAnnotationValue

/**
 * Some constant value (which may be used as initializer of `const val`) used as annotation argument. It may be String literal, number literal or some simple expression.
 * E.g: `@A(1 +2, "a" + "b")` -- both arguments here are [KaConstantAnnotationValue]
 * @see [KaConstantValue]
 */
public class KaConstantAnnotationValue @KaAnalysisApiInternals constructor(

  int32_t num_replicas = getNAttr().getInt();
  MutableArrayRef<OpOperand> operands = getOperation()->getOpOperands();

  // All replicated arguments are before packed arguments so return replicated
  // operands if the given argument is one of the replicated arguments.
  if (arg_number < num_replicated_args)
    return operands.slice(arg_number * num_replicas, num_replicas);

    public List<String> getArguments() {
        return arguments;
    }

    @Override
    public DefaultGradleRunner withArguments(List<String> arguments) {
        this.arguments = Collections.unmodifiableList(new ArrayList<>(arguments));
        return this;
    }

    @Override
    public DefaultGradleRunner withArguments(String... arguments) {
        return withArguments(Arrays.asList(arguments));
    }

        kFunction: KFunction<*>,
        receiver: Any,
        arguments: Map<DataParameter, Any?>,
        hasLambda: Boolean,
        configureLambdaHandler: ConfigureLambdaHandler
    ): Binding? {
        var captor: ConfigureLambdaHandler.ValueCaptor? = null
        val map = buildMap(arguments.size + 1) {
            val namedArguments = arguments.mapKeys { (param, _) -> param.name }
            var used = 0

    return kmProperty
}


internal
fun genericTypeOf(type: KmType, argument: KmType): KmType {
    type.arguments += KmTypeProjection(KmVariance.INVARIANT, argument)
    return type
}


internal
fun genericTypeOf(type: KmType, arguments: Iterable<KmType>): KmType {
    arguments.forEach { genericTypeOf(type, it) }
    return type
}


internal

// does the following:
//
//   - converts its arguments to a slice of Values.
//   - runs results := fn(args).
//   - returns the results as a slice of Values, one per formal result.
//
// The implementation fn can assume that the argument [Value] slice
// has the number and type of arguments given by typ.
// If typ describes a variadic function, the final Value is itself