if (containingClassSymbol != null) {
                    val member = useSitePosition.parentsWithSelf
                        .filterNot { it is PsiTypeParameter }
                        .takeWhile { it !is PsiClass }
                        .firstIsInstanceOrNull<PsiTypeParameterListOwner>()

                    if (member != null) {

            if (import.relativeClassName == null) { // top level callable
                DeclarationsInPackageProvider.getTopLevelCallableNamesInPackageProvider(import.packageFqName, analysisSession)
            } else { //member
                val classId = import.resolvedClassId ?: error("Class id should not be null as relativeClassName is not null")
                firScope.getStaticsScope(classId)?.getCallableNames().orEmpty()
            }
        }

import org.jetbrains.kotlin.name.FqName
import org.jetbrains.kotlin.name.Name

/**
 * Represents the Kotlin file which provides additional, generated declarations for resolution.
 *
 * All member implementations should:
 * - consider caching the results for subsequent invocations.
 * - be lightweight and not build the whole file structure inside.

        /**
         * This method is used from [org.jetbrains.kotlin.backend.jvm.lower.ReflectiveAccessLowering.visitCall]
         * (via generateReflectiveAccessForGetter) and it is called for the private access member lowered to the getter/setter call.
         * If a private property has no getter/setter (the typical situation for simple private properties without explicitly defined

            isImplicitInvoke = true

            // For implicit invoke, the explicit receiver is always set in FIR and this receiver is the variable or property that has
            // the `invoke` member function. In this case, we use the `calleeExpression` in the `KtCallExpression` as the PSI
            // representation of this receiver. Caller can then use this PSI for further call resolution, which is implemented by the

    private fun List<OverloadCandidate>.findScopeForSymbol(symbol: FirBasedSymbol<*>): FirScope? = firstOrNull {
        it.candidate.symbol == symbol
    }?.candidate?.originScope

    /**
     * Returns whether a member of companion is used to initialize the enum entry or not. For example,
     *     enum class C(val i: Int) {
     *         ONE(<expr>C.K</expr>)  // C.ONE uses C.K for initialization
     *         ;

     * Returns the [KaSymbol]s called [fqName] found in the member scope and companion object's member scope of the [KtDeclaration]s that
     * contain the [contextElement].
     *
     * If [fqName] has two or more segments, e.g. `Foo.bar`, the member and companion object scope of the containing [KtDeclaration] will be
     * queried for a class `Foo` first, and then that class `Foo` will be queried for the member `bar` by short name.
     */

         * with [getCompositeScope]) avoids duplicate inner classes, as they are contained in non-static and static scopes.
         *
         * A proper combined declared member scope kind also makes it easier to cache combined scopes directly (if needed).
         */
        COMBINED,
    }

}

internal inline fun <reified T : KaSymbol> KaSession.createOwnerPointer(symbol: KaSymbol): KaSymbolPointer<T> {
    val containingSymbol = symbol.getContainingSymbol()
        ?: error("Non-null symbol is expected for a member declaration")

    requireIsInstance<T>(containingSymbol)

    @Suppress("UNCHECKED_CAST")
    return containingSymbol.createPointer() as KaSymbolPointer<T>

    override val typeArgumentsMapping: Map<KaTypeParameterSymbol, KaType> by validityAsserted(typeArgumentsMapping)

    /**
     * Whether this function call is an implicit invoke call on a value that has an `invoke` member function. See
     * https://kotlinlang.org/docs/operator-overloading.html#invoke-operator for more details.
     */
    public val isImplicitInvoke: Boolean by validityAsserted(isImplicitInvoke)
}

/**