analyze(inlineFunction)
                }
            }
            analyzedElements.addAll(nextInlineFunctions)
        }
    }

    /**
     * Returns the list of files that contain all reached inline functions.
     */
    fun allFiles(): List<KtFile> = analyzedElements.mapTo(mutableSetOf()) { it.containingKtFile }.toList()

    /**

    ): T = constructor(
        if (valueParameterReference.parameterIndex == -1) firFunctionSymbol.receiverParameter
            ?: errorWithAttachment("${firFunctionSymbol::class} should contain a receiver") {
                withFirEntry("fir", firFunctionSymbol.firSymbol.fir)
            }
        else firFunctionSymbol.valueParameters[valueParameterReference.parameterIndex]
    )

        val disableInline = effectiveConfiguration.getBoolean(CommonConfigurationKeys.DISABLE_INLINE)

        // The binding context needs to be built from all files with reachable inline functions, as such files may contain classes whose
        // descriptors must be available in the binding context for the IR backend. Note that the full bytecode is only generated for

        }
    }

    /**
     * Returns the [KtSymbol]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

            is KtDotQualifiedExpression -> qualifiedExpressionsWithSelf
            else -> error("Unexpected ${this::class}")
        }

    /**
     * Note: The resulting sequence does not contain non-qualified types!
     *
     * For type `A.B.C.D` it will return sequence of [`A.B.C.D`, `A.B.C`, `A.B`] (**without** `A`).
     */
    private val KtUserType.qualifiedTypesWithSelf: Sequence<KtUserType>

 * provides symbol names from binary libraries in Standalone mode, which the Standalone declaration provider does not contain (to avoid
 * stub-indexing binary libraries). And in general, querying the symbol names provider might be faster since its sets are cached, which is

  including dependencies for different platforms.
- If you have a `local.properties` file in your Kotlin project folder, make sure that it doesn't contain `kotlin.native.enabled=false`.
  Otherwise, native-only dependencies may not be added to the verification metadata. This is because `local.properties` has higher 

        val qualifierIndex = generateSequence(wholeType) { it.qualifier }.indexOf(nestedType)
        require(qualifierIndex != -1) { "Whole type $wholeType should contain $nestedType, but it didn't" }
        return qualifierIndex
    }

    private val syntheticTokenTypes = TokenSet.create(KtTokens.ELVIS, KtTokens.EXCLEXCL)

        val fakeFile = positionInFakeFile.containingKtFile

        // If the position is in KDoc, we want to pass the owning declaration to the ContextCollector.
        // That way, the resulting scope will contain all the nested declarations which can be references by KDoc.
        val parentKDoc = positionInFakeFile.parentOfType<KDoc>()
        val correctedPosition = parentKDoc?.owner ?: positionInFakeFile

- [`KT-58519`](https://youtrack.jetbrains.com/issue/KT-58519) Migrate Xcode/CocoaPods warnings to the new diagnostics infra
- [`KT-61154`](https://youtrack.jetbrains.com/issue/KT-61154) NativeCompilerDownloader adds .konan/kotlin-native-prebuilt-linux-x86_64-1.9.0/konan/lib/kotlin-native-compiler-embeddable.jar as configuration cache input
- [`KT-59252`](https://youtrack.jetbrains.com/issue/KT-59252) Support configuration cache in Xcode/CocoaPods tasks with Gradle 8.1