* 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.
     */
    private fun KtAnalysisSession.getSymbolsFromParentMemberScopes(fqName: FqName, contextElement: KtElement): Collection<KtSymbol> {

            )
        }
        if (kClass.isSubclassOf(Pair::class)) {
            val first = type.arguments.getOrNull(0)?.type ?: return HLIdParameterConversion
            val second = type.arguments.getOrNull(1)?.type ?: return HLIdParameterConversion
            return HLPairParameterConversion(
                mappingConversionFirst = createConversion(first),
                mappingConversionSecond = createConversion(second)
            )

        return kotlinType.toKtType(analysisContext)
    }

    override fun getReturnTypeForKtDeclaration(declaration: KtDeclaration): KtType {
        // Handle callable declarations with explicit return type first
        if (declaration is KtCallableDeclaration) {
            val typeReference = declaration.typeReference

            if (typeReference != null) {

                // that the first segment of the qualified access could be the import alias if any. Then, we can still compare the
                // remaining parts.
                // E.g., coreR.string.hello
                //   -> string.hello (drop the first segment)
                //   test.pkg.R.string.hello

        val defaultExpressionInfo = computeDefaultExpression(defaultStatement, firDefaultStatement, firValuedReturnExpressions)

        val graphIndex = ControlFlowGraphIndex {
            getControlFlowGraph(anchor = statements.first(), firStatements = firStatements)
        }

        val jumpExpressions = buildList {
            fun add(expressions: List<FirElement>) {
                expressions.mapNotNullTo(this) { it.psi as? KtExpression }

            is ConeCapturedType -> lowerType?.toConstantValueKind() ?: constructor.supertypes!!.first().toConstantValueKind()
            is ConeDefinitelyNotNullType -> original.toConstantValueKind()
            is ConeIntersectionType -> intersectedTypes.first().toConstantValueKind()
            is ConeStubType, is ConeIntegerLiteralType, is ConeTypeVariableType -> null
        }

        is ConeUnresolvedReferenceError -> name
        is ConeUnresolvedSymbolError -> classId.shortClassName
        is ConeUnresolvedTypeQualifierError -> {
            // we take the first qualifier part because only the first one can be imported
            qualifiers.firstOrNull()?.name
        }
    }


/**
 * An actual name by which this callable reference was used.
 */

            }

            is FirArrayLiteral -> {
                // Desugared collection literals.
                KtArrayAnnotationValue(argumentList.arguments.convertVarargsExpression(builder).first, sourcePsi, token)
            }

            is FirFunctionCall -> {
                val reference = calleeReference as? FirResolvedNamedReference ?: return null

                // TODO: consider demoting extension receiver to the first argument to align with FIR behavior. See test case
                //  analysis/analysis-api/testData/components/callResolver/resolveCall/functionTypeVariableCall_dispatchReceiver.kt:5 where
                //  FIR and FE1.0 behaves differently because FIR unifies extension receiver of functional type as the first argument
                resolvedCall.functionCall.toFunctionKtCall(context)

            is KtParenthesizedExpression ->
                doesParentUseChild(parent.parent, parent)

            // When expressions use the subject expression _unless_ the first branch in the
            // when is an `else`.
            is KtWhenExpression ->
                parent.subjectExpression == child && parent.entries.firstOrNull()?.isElse == false