assertEquals(Types.subtypeOf(Number[].class), Types.newArrayType(wildcard));
  }

  public void testNewArrayType_lowerBoundedWildcard() {
    Type wildcard = Types.supertypeOf(Number.class);
    assertEquals(Types.supertypeOf(Number[].class), Types.newArrayType(wildcard));
  }

  public void testNewArrayType_serializable() {
    SerializableTester.reserializeAndAssert(Types.newArrayType(int[].class));
  }

    assertEquals(Types.subtypeOf(Number[].class), Types.newArrayType(wildcard));
  }

  public void testNewArrayType_lowerBoundedWildcard() {
    Type wildcard = Types.supertypeOf(Number.class);
    assertEquals(Types.supertypeOf(Number[].class), Types.newArrayType(wildcard));
  }

  public void testNewArrayType_serializable() {
    SerializableTester.reserializeAndAssert(Types.newArrayType(int[].class));
  }

		if reflect.PointerTo(typ).Implements(gobEncDecType) {
			return true, -1
		}
	}
	return false, 0
}

// userType returns, and saves, the information associated with user-provided type rt.
// If the user type is not valid, it calls error.
func userType(rt reflect.Type) *userTypeInfo {
	ut, err := validUserType(rt)
	if err != nil {
		error_(err)
	}
	return ut
}

      Comparator<? super T> comparator,
      @ParametricNullness T lower,
      BoundType lowerType,
      @ParametricNullness T upper,
      BoundType upperType) {
    return new GeneralRange<>(comparator, true, lower, lowerType, true, upper, upperType);
  }

  private final Comparator<? super T> comparator;
  private final boolean hasLowerBound;
  @CheckForNull private final T lowerEndpoint;

      Comparator<? super T> comparator,
      @ParametricNullness T lower,
      BoundType lowerType,
      @ParametricNullness T upper,
      BoundType upperType) {
    return new GeneralRange<>(comparator, true, lower, lowerType, true, upper, upperType);
  }

  private final Comparator<? super T> comparator;
  private final boolean hasLowerBound;
  @CheckForNull private final T lowerEndpoint;

            KaTypeMappingMode.DEFAULT_UAST -> TypeMappingMode.DEFAULT_UAST
            KaTypeMappingMode.GENERIC_ARGUMENT -> TypeMappingMode.GENERIC_ARGUMENT
            KaTypeMappingMode.SUPER_TYPE -> TypeMappingMode.SUPER_TYPE
            KaTypeMappingMode.SUPER_TYPE_KOTLIN_COLLECTIONS_AS_IS -> TypeMappingMode.SUPER_TYPE_KOTLIN_COLLECTIONS_AS_IS
            KaTypeMappingMode.RETURN_TYPE_BOXED -> TypeMappingMode.RETURN_TYPE_BOXED

    }

    private <T extends NativeCompileSpec> WorkResult doCompile(T spec, PlatformToolProvider platformToolProvider) {
        Class<T> specType = Cast.uncheckedCast(spec.getClass());
        Compiler<T> baseCompiler = platformToolProvider.newCompiler(specType);
        Compiler<T> incrementalCompiler = this.incrementalCompiler.createCompiler(baseCompiler);

		result := make(map[string]*apiservercel.DeclField, len(fields))
		for _, f := range fields {
			result[f.Name] = f
		}
		return result
	}

	specType := apiservercel.NewObjectType("kubernetes.NamespaceSpec", fields(
		field("finalizers", apiservercel.NewListType(apiservercel.StringType, -1), true),
	))

        val matchingClassesRanking = matchingClasses
            .associateWith { matchingClassSet.intersect(it.allSuperclasses).size }

        // Find supertypes with the highest number of frontend-independent supertypes
        // It means more specific classes will be selected (such as KaClassSymbol instead of KaSymbol)
        val minSupertypeCount = matchingClassesRanking.maxOf { it.value }

    private fun Fe10AnalysisContext.renderIntersectionType(typeConstructor: IntersectionTypeConstructor, printer: PrettyPrinter) {
        with(printer) {
            append("it")
            printCollection(typeConstructor.supertypes, separator = " & ", prefix = "(", postfix = ")") {
                renderType(it, printer)
            }
        }
    }