if isComplex(Vu) && isComplex(Tu) {
		return true
	}

	// "V is an integer or a slice of bytes or runes and T is a string type"
	if (isInteger(Vu) || isBytesOrRunes(Vu)) && isString(Tu) {
		return true
	}

	// "V is a string and T is a slice of bytes or runes"
	if isString(Vu) && isBytesOrRunes(Tu) {
		return true
	}

	// package unsafe:

	if isComplex(Vu) && isComplex(Tu) {
		return true
	}

	// "V is an integer or a slice of bytes or runes and T is a string type"
	if (isInteger(Vu) || isBytesOrRunes(Vu)) && isString(Tu) {
		return true
	}

	// "V is a string and T is a slice of bytes or runes"
	if isString(Vu) && isBytesOrRunes(Tu) {
		return true
	}

	// package unsafe:

// a string, the result is of type (possibly untyped) string.
func coreString(t Type) Type {
	t = Unalias(t)
	tpar, _ := t.(*TypeParam)
	if tpar == nil {
		return under(t) // string or untyped string
	}

	var su Type
	hasString := false
	if tpar.underIs(func(u Type) bool {
		if u == nil {
			return false
		}
		if isString(u) {
			u = NewSlice(universeByte)

// a string, the result is of type (possibly untyped) string.
func coreString(t Type) Type {
	t = Unalias(t)
	tpar, _ := t.(*TypeParam)
	if tpar == nil {
		return under(t) // string or untyped string
	}

	var su Type
	hasString := false
	if tpar.underIs(func(u Type) bool {
		if u == nil {
			return false
		}
		if isString(u) {
			u = NewSlice(universeByte)

// necessary so that we can use alias type names that may not be reachable from
// inType itself).
func describe(typ, inType types.Type, inName string) string {
	name := inName
	if typ != inType {
		name = typeName(typ)
	}
	if name == "" {
		return ""
	}

	var parentheticals []string
	if underName := typeName(typ.Underlying()); underName != "" && underName != name {
		parentheticals = append(parentheticals, underName)
	}

        public int hashCode() {
            return delegate.hashCode();
        }

        @Override
        public String asString() {
            return delegate.toString();
        }

        @Override
        public String toString() {
            return asString();
        }
    }

    static class DefaultVersionRange implements VersionRange {
        private final VersionScheme versionScheme;

// Update the C environment if cgo is loaded.
func setenv_c(k string, v string) {
	if _cgo_setenv == nil {
		return
	}
	arg := [2]unsafe.Pointer{cstring(k), cstring(v)}
	asmcgocall(_cgo_setenv, unsafe.Pointer(&arg))
}

// Update the C environment if cgo is loaded.
func unsetenv_c(k string) {
	if _cgo_unsetenv == nil {
		return
	}
	arg := [1]unsafe.Pointer{cstring(k)}
	asmcgocall(_cgo_unsetenv, unsafe.Pointer(&arg))
}

func gbit64(b []byte) (uint64, []byte) {
	return byteorder.LeUint64(b), b[8:]
}

// gstring reads a string from b, prefixed with a 16-bit length in little-endian order.
// It returns the string with the remaining slice of b and a boolean. If the length is
// greater than the number of bytes in b, the boolean will be false.
func gstring(b []byte) (string, []byte, bool) {
	n, b := gbit16(b)
	if int(n) > len(b) {
		return "", b, false
	}

        if (descriptor == null) {
            val name = when (builder) {
                is KaClassTypeBuilder.ByClassId -> builder.classId.asString()
                is KaClassTypeBuilder.BySymbol ->
                    builder.symbol.classId?.asString()
                        ?: builder.symbol.name?.asString()
                        ?: SpecialNames.ANONYMOUS_STRING
            }

                if (parentInternalName != null) "$parentInternalName$$selfName" else null
            }
            else -> selfName.asString()
        }
    }

    private fun computeSupertypeInternalName(descriptor: ClassDescriptor): String {
        var interfaceSupertypeInternalName: String? = null

        for (supertype in descriptor.typeConstructor.supertypes) {