if (analysisContext.builtIns.areSameArrayTypeIgnoringProjections(containingArrayType, constantType)) {
        // If an element in the array has the same type as the containing array, it's a spread component that needs
        // to be expanded here. (It should have the array element type instead.)
        (constantValue as ArrayValue).value.expandArrayAnnotationValue(containingArrayType, analysisContext)
    } else {

        }
    }

    /**
     * Finds the parent symbol of the given [ResolveResult] by traversing back up the symbol hierarchy a [goBackSteps] steps,
     * or until the containing class or object symbol is found.
     *
     * Knows about the [ResolveResult.receiverClassReference] field and uses it in case it's not empty.
     */

                it.isDeclaredInOwner() && it.isDelegatedIfRequired()
            }.mapToDelegatedIfRequired()
        }

        override fun getContributedFunctions(name: Name, location: LookupLocation): Collection<SimpleFunctionDescriptor> {
            return allMemberScope.getContributedFunctions(name, location).filter {
                it.isDeclaredInOwner() && it.isDelegatedIfRequired()

        val annotations = type.annotations
            .filter { it.annotationClass?.classId != StandardClassIds.Annotations.ExtensionFunctionType }

        printer.printCollectionIfNotEmpty(annotations, separator = " ", postfix = "  ") {
            renderTypeAnnotationDebug(it, printer)
        }
    }

                scope.processFunctionsByName(selectedName) { add(it.fir.buildSymbol(builder)) }
                scope.processPropertiesByName(selectedName) { add(it.fir.buildSymbol(builder)) }
            }
            scope.processClassifiersByName(selectedName) { addIfNotNull(it.fir.buildSymbol(builder)) }
            builder.createPackageSymbolIfOneExists(selectedFqName)?.let(::add)
        }

        }

        val exitPoints = firTargets
            .mapNotNull { findLast(it) }
            .flatMap { node ->
                node.followingNodes
                    .filter { it !is StubNode }
                    .map { it.unwrap() }
                    .distinct()
                    .sortedBy { it.id }
            }.distinct()

        return exitPoints.size > 1
    }

        val capturedSymbols = capturedData.symbols
        val capturedValues = capturedSymbols.map { it.value }
        val injectedSymbols = capturedSymbols.map {
            InjectedValue(it.symbol, it.contextReceiverNumber, it.typeRef, it.value.isMutated)
        }

        codeFragment.conversionData = CodeFragmentConversionData(

        }

        getContainingDeclarationForDependentDeclaration(symbol)?.let { return it }

        if (symbolModule is KtDanglingFileModule && symbolModule.resolutionMode == DanglingFileResolutionMode.IGNORE_SELF) {
            if (hasParentPsi(symbol)) {
                // getSymbol(ClassId) returns a symbol from the original file, so here we avoid using it
                return getContainingDeclarationByPsi(symbol)
            }
        }

     *
     * This have a few caveats when it comes to the inner classes. TODO Provide a reference to some more in-detail description of that.
     *
     * @receiver A declaration that needs to be unwrapped.
     * @return An unsubstituted declaration ([originalForSubstitutionOverride]]) if it exists and if it does not have any change
     * in signature; `null` otherwise.
     */

            val availableScopes = towerDataElement
                .getAvailableScopes { coneType -> withSyntheticPropertiesScopeOrSelf(coneType) }
                .flatMap { flattenFirScope(it) }
            availableScopes.map { IndexedValue(index, it) }
        }
        val ktScopesWithKinds = createScopesWithKind(firScopes)

        return KtScopeContext(ktScopesWithKinds, implicitReceivers, token)
    }