val descriptor = getSymbolDescriptor(symbol) as? PropertyDescriptor
        if (descriptor is SyntheticJavaPropertyDescriptor) {
            return descriptor.setMethod?.name
        }

        if (descriptor != null) {
            if (!descriptor.isVar) {
                return null
            }

            if (descriptor.hasJvmFieldAnnotation()) return descriptor.name

     *
     * If too many type arguments are provided, a mapping is still created. Extra type arguments are simply ignored. If this wasn't the
     * case, the resulting [KtCall] would contain no type arguments at all, which can cause problems later. If too few type arguments are
     * provided, an empty map is returned defensively so that [toTypeArgumentsMapping] doesn't conjure any error types. If you want to map

            }
        }
    }

    /**
     * Returns `true` if the control graph contains at least one of the [firCandidates].
     */
    private fun ControlFlowGraph.contains(firCandidates: Set<FirElement>): Boolean {
        for (node in nodes) {
            if (node.fir in firCandidates) {
                return true
            }

        }

        if (isOrdinarySymbolWithSource(symbol)) {
            val result = psi.getContainingPsiDeclaration()

            if (result == null) {
                val containingFile = psi.containingFile
                if (containingFile is KtCodeFragment) {
                    // All content inside a code fragment is implicitly local, but there is no non-local parent
                    return null
                }

) {
    fun checkResolveCall(resolvedCall: ResolvedCall<*>?) {
        if (resolvedCall == null) return

        val descriptor = resolvedCall.resultingDescriptor
        if (descriptor is DeserializedSimpleFunctionDescriptor) return

        analyzeNextIfInline(descriptor)

        if (descriptor is PropertyDescriptor) {
            for (accessor in descriptor.accessors) {

            if (isTargetCallable(function)) {
                processor(function)
            }
        }
    }

    override fun processPropertiesByName(name: Name, processor: (FirVariableSymbol<*>) -> Unit) {
        if (!cachedCallableNames.contains(name)) return

        baseScope.processPropertiesByName(name) { property ->
            if (isTargetCallable(property)) {
                processor(property)

        return KtFe10PsiAnonymousObjectSymbol(psi.objectDeclaration, analysisContext)
    }

    override fun getClassOrObjectSymbol(psi: KtClassOrObject): KtClassOrObjectSymbol? {
        return if (psi is KtEnumEntry) {
            null
        } else if (psi is KtObjectDeclaration && psi.isObjectLiteral()) {
            KtFe10PsiAnonymousObjectSymbol(psi, analysisContext)
        } else {

        require(callableSymbol is KtFirSymbol<*>)
        if (callableSymbol is KtFirBackingFieldSymbol) return emptyList()
        if (callableSymbol is KtValueParameterSymbol) {
            return callableSymbol.getDirectlyOverriddenSymbols()
        }
        if (callableSymbol is KtCallableSymbol && callableSymbol.firSymbol is FirIntersectionCallableSymbol) {

Keep in mind:

- If you’re adding a dependency with OS mentioned in an artifact name (`darwin`, `mac`, `osx`, `linux`, `windows`), remember to add them to 
  `implicitDependencies` configuration or update `resolveDependencies` task if needed. `resolveDependencies` should resolve all dependencies
  including dependencies for different platforms.

    override val analysisSession: KtFirAnalysisSession
) : KtSubstitutorFactory(), KtFirAnalysisSessionComponent {

    override fun buildSubstitutor(builder: KtSubstitutorBuilder): KtSubstitutor {
        if (builder.mappings.isEmpty()) return KtSubstitutor.Empty(token)

        val firSubstitution = buildMap {
            builder.mappings.forEach { (ktTypeParameterSymbol, ktType) ->