}

        val shadowedScope = GlobalSearchScope.union(
            buildSet {
                // Add an empty scope to the shadowed set to give GlobalSearchScope.union something
                // to work with if there are no extension tools.
                // If there are extension tools, any empty scopes, whether from shadowedSearchScope
                // on the extension tools or from this add() call, will be ignored.

 *
 * Since this fallback is not suitable for symbols from binary libraries in Standalone mode, the symbol names provider absolutely needs to
 * work there. This functionality is covered by package scope tests.
 */
@OptIn(ExperimentalTopLevelDeclarationsGenerationApi::class)
internal object DeclarationsInPackageProvider {

        return getFirTypeScope(type)
            ?.withSyntheticPropertiesScopeOrSelf(type.coneType)
            ?.let { convertToKtTypeScope(it) }
    }

    override fun getSyntheticJavaPropertiesScope(type: KtType): KtTypeScope? {
        check(type is KtFirType) { "KtFirScopeProvider can only work with KtFirType, but ${type::class} was provided" }

            goToNthParent(symbol, goBackSteps)?.let { return it }
        }

        return getPackageSymbolIfPackageExists(selectedFqName)
    }

    /**
     * N.B. Works only for [KtClassOrObjectSymbol] parents chain.
     */
    private fun KtAnalysisSession.goToNthParent(symbol: KtDeclarationSymbol, steps: Int): KtDeclarationSymbol? {
        var currentSymbol = symbol

After cloning the project, import the project in IntelliJ by choosing the project directory in the Open project dialog.

For handy work with compiler tests it's recommended to use [
Kotlin Compiler Test Helper](https://github.com/demiurg906/test-data-helper-plugin)

### Dependency verification

    is KtDotQualifiedExpression -> receiverExpression
    is KtThisExpression -> labelQualifier
    else -> error("Unexpected ${this::class}")
}

/**
 * N.B. We don't use [containingClassOrObject] because it works only for [KtDeclaration]s,
 * and also check only the immediate (direct) parent.
 *
 * For this function, we want to find the parent [KtClassOrObject] declaration no matter
 * how far it is from the element.
 */

        qualifier: KtSimpleNameExpression,
        wholeTypeFir: FirResolvedTypeRef
    ): ClassId? {
        val qualifierToResolve = qualifier.parent as KtUserType
        // FIXME make it work with generics in functional types (like () -> AA.BB<CC, AA.DD>)
        val wholeType = when (val psi = wholeTypeFir.psi) {
            is KtUserType -> psi

                }
            }

            is KtClassLikeSymbol -> {
                val outerClassId = symbol.classIdIfNonLocal?.outerClassId
                if (outerClassId != null) { // Won't work for local and top-level classes, or classes inside a script
                    val outerFirClassifier = symbolFirSession.firProvider.getFirClassifierByFqName(outerClassId) ?: return null

                    mapping.computeIfAbsent(element) { _ ->
                        unmappedCount -= 1
                        // Here we intentionally use the 'Optional' wrapper to make 'computeIfAbsent' work smoothly
                        Optional.ofNullable(computeTarget(element))
                    }
                }

                if (unmappedCount > 0) {
                    element.acceptChildren(this)

     * Note that, if the calleeExpression is already a KtCallExpression, then we don't do this because such a callExpression can be properly
     * resolved to the desired FIR element. That is, cases like `getHighLevelFunction()()` just works, where the both `KtCallExpression`
     * resolve to the desired FIR element.
     */
    private fun KtElement.getContainingCallExpressionForCalleeExpression(): KtCallExpression? {