// descriptors must be available in the binding context for the IR backend. Note that the full bytecode is only generated for
        // `file` because of filtering in `generateClassFilter`, while only select declarations from other files are generated if needed
        // by the backend.
        val inlineAnalyzer = InlineFunctionAnalyzer(analysisContext, analyzeOnlyReifiedInlineFunctions = disableInline)

 */
@Suppress("UNCHECKED_CAST")
private fun <T : CallableDescriptor> T.unwrapUseSiteSubstitutionOverride(): T {
    var current: CallableDescriptor = this
    while (original != current) {
        current = current.original
    }
    return current as T
}

internal fun KotlinType.toKtType(analysisContext: Fe10AnalysisContext): KtType {

     *
     * To properly resolve qualifier parts in the middle,
     * we need to resolve the whole qualifier to understand which parts of the qualifier are package or class qualifiers.
     * And then we will be able to resolve the qualifier selected by the user to the proper class, package or callable.
     *
     * It's possible that the whole qualifier is invalid, in this case we still want to resolve our [selectedFqName].

        get() {
            return when (this) {
                is ConeErrorType -> when (val diagnostic = this.diagnostic) {
                    // Tolerate code that misses type parameters while shortening it.
                    is ConeUnmatchedTypeArgumentsError -> diagnostic.symbol.classId
                    else -> null
                }
                is ConeClassLikeType -> lookupTag.classId

        var parent = parent
        while (parent is KtDotQualifiedExpression) {
            if (parent.selectorExpression !== this) return true
            parent = parent.parent
        }
        return false
    }

    private fun KtSimpleNameExpression.isPartOfUserTypeRefQualifier(): Boolean {
        var parent = parent
        while (parent is KtUserType) {

            val mappingForType = type.toTypeArgumentMapping() ?: continue

            val queue = ArrayDeque<TypeArgumentMapping>()
            queue.addLast(mappingForType)

            while (queue.isNotEmpty()) {
                val (typeParameterOwner, mapping) = queue.removeFirst()
                for (superType in typeParameterOwner.typeConstructor.supertypes) {

Support for multiplatform programming is one of Kotlin’s key benefits. It reduces time spent writing and maintaining the same code for [different platforms](https://kotlinlang.org/docs/reference/mpp-supported-platforms.html) while retaining the flexibility and benefits of native programming.

 * [Kotlin Multiplatform Mobile](https://kotlinlang.org/lp/mobile/) for sharing code between Android and iOS

 *
 * ```
 * class Outer {
 *     inner class Inner
 * }
 *
 * fun foo() {
 *     val outer = Outer()
 *     outer.Inner()
 * }
 * ```
 *
 * While Kotlin always expects a constructor call when accessing `outer.Inner`, it nonetheless requires inner classes to be contained in
 * non-static scopes.
 */
internal class FirNonStaticMembersScope(

        val containingFile = declaration.containingKtFile
        if (allFiles.add(containingFile)) {
            filesQueueToAnalyze += containingFile
        }
    }
    while (filesQueueToAnalyze.isNotEmpty()) {
        val file = filesQueueToAnalyze.removeFirst()
        analyze(file) {
            require(this is KtFe10AnalysisSession) {
                "K2 implementation shouldn't call this code"

            }
        }
    }

    private fun KtFirPsiJavaClassSymbol.mayHaveDeprecation(): Boolean {
        if (!hasAnnotations) return false

        // Check the simple names of the Java annotations. While presence of such an annotation name does not prove deprecation, it is a
        // necessary condition for it. Type aliases are not a problem here: Java code cannot access Kotlin type aliases. (Currently,