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)
        }

            .flatMap {
                // FIXME this function should be called only once during plugin's lifetime, so this usage is not really correct (2)
                it.getTopLevelClassIds()
            }
            .filter { it.packageFqName == packageFqName }
            .map { it.shortClassName }

        return generatedTopLevelClassifiers.toSet()
    }

                return true
            }
        }

        false
    } else {
        annotationContainer.resolvedAnnotationsWithClassIds(firSymbol).any {
            useSiteTargetFilter.isAllowed(it.useSiteTarget) && it.toAnnotationClassId(useSiteSession) == classId
        }
    }
}

private fun FirBasedSymbol<*>.isFromCompilerRequiredAnnotationsPhase(classId: ClassId, session: FirSession): Boolean {

Alternatively, it is still possible to only provide required JDKs via environment variables 
(see [gradle.properties](./gradle.properties#L5) for supported variable names). To ensure Gradle uses only JDKs 
from environmental variables - disable Gradle toolchain auto-detection by passing `-Porg.gradle.java.installations.auto-detect=false` option
(or put it into `$GRADLE_USER_HOME/gradle.properties`).

        KtFe10VariableLikeSignature(
            symbol,
            substitutor.substitute(returnType),
            receiverType?.let { substitutor.substitute(it) },
        )
    }

    override fun equals(other: Any?): Boolean {
        if (this === other) return true
        if (javaClass != other?.javaClass) return false

        other as KtFe10VariableLikeSignature<*>

        get() = withValidityAssertion { descriptor.hasBody() }

    override val valueParameters: List<KtValueParameterSymbol>
        get() = withValidityAssertion { descriptor.valueParameters.map { KtFe10DescValueParameterSymbol(it, analysisContext) } }

    override val hasStableParameterNames: Boolean
        get() = withValidityAssertion { true }

    override val callableIdIfNonLocal: CallableId?

        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(

        }

        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
    }

            is ConeDefinitelyNotNullType -> original.getDirectSuperTypes(shouldApproximate).map {
                ConeDefinitelyNotNullType.create(it, analysisSession.useSiteSession.typeContext) ?: it
            }
            is ConeIntersectionType -> intersectedTypes.asSequence().flatMap { it.getDirectSuperTypes(shouldApproximate) }
            is ConeErrorType -> emptySequence()

        }

        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)
            }
        }