if (frontendErrors.isNotEmpty()) {
            return KtCompilationResult.Failure(frontendErrors)
        }

        // The IR backend will try to regenerate object literals defined in inline functions from generated class files during inlining.
        // Hence, we need to be aware of which object declarations are defined in the relevant inline functions.

        componentProvider: ComponentProvider
    ): AnalysisResult? {
        // Single-module [KtFe10AnalysisHandlerExtension] can be registered without specific use-site module.
        // Simple null-check below will skip the bail-out.
        if (useSiteModule != null &&
            module.name.asString().removeSurrounding("<", ">") != useSiteModule.moduleName
        ) {

                // to work with if there are no extension tools.
                // If there are extension tools, any empty scopes, whether from shadowedSearchScope
                // on the extension tools or from this add() call, will be ignored.
                add(GlobalSearchScope.EMPTY_SCOPE)
                extensionTools.mapTo(this) { it.shadowedSearchScope }
            }
        )

        }
        else -> arguments.any { typeProjection ->
            // A star projection type (lazily) built by type parameter will be yet another type with a star projection,
            // resulting in stack overflow if we keep checking allowed type parameter descriptors
            !typeProjection.isStarProjection &&

/plugins/js-plain-objects/ Artem.Kobzar
/libraries/tools/js-plain-objects Artem.Kobzar
/plugins/lombok/ "Kotlin Compiler Core"
/plugins/noarg/ "Kotlin Compiler Core"
/plugins/parcelize/ "Kotlin Compiler Core"
/plugins/pill/ Yan.Zhulanow "Kotlin Build Infrastructure"
/plugins/power-assert/ Brian.Norman "Kotlin Common Backend"
/plugins/sam-with-receiver/ "Kotlin Compiler Core"
/plugins/scripting/ "Kotlin Compiler Core"

    } else {
        fir.findPsi()
    } ?: FirSyntheticFunctionInterfaceSourceProvider.findPsi(fir)
}

/**
 * Finds [PsiElement] which will be used as go-to referenced element for [KtPsiReference]
 * For data classes & enums generated members like `copy` `componentN`, `values` it will return corresponding enum/data class
 * Otherwise, behaves the same way as [findPsi] returns exact PSI declaration corresponding to passed [FirDeclaration]
 */

     * 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> {

         *    class foo { .. }  // A
         *    ..
         *    fun test() {
         *      val foo = ..    // B
         *      my.component.foo::class.java  // If we drop `my.component`, it will reference `B` instead of `A`
         *    }
         */
        if (shorteningContext.findPropertiesInScopes(scopes, name).isNotEmpty()) {

### Dependency verification

We have a [dependencies verification](https://docs.gradle.org/current/userguide/dependency_verification.html) feature enabled in the
repository for all Gradle builds. Gradle will check hashes (md5 and sha256) of used dependencies and will fail builds with
`Dependency verification failed` errors when local artifacts are absent or have different hashes listed in the

                (calleeReference.calleeOrCandidateName != OperatorNameConventions.INVOKE && targetSymbol.isInvokeFunction())
            ) {
                // Implicit invoke (e.g., `x()`) will have a different callee symbol (e.g., `x`) than the candidate (e.g., `invoke`).
                createKtPartiallyAppliedSymbolForImplicitInvoke(
                    candidate.dispatchReceiver,