get() = withValidityAssertion { enumDescriptor.defaultType.toKtType(analysisContext) }

    override val name: Name
        get() = withValidityAssertion { descriptor.name }

    // There doesn't seem to be a way to determine if `descriptor` has a body or not, so we return an initializer even for enum entries
    // without a body.
    override val enumEntryInitializer: KtEnumEntryInitializerSymbol?
        get() = this

     * If it is the case, then we can safely remove the label from it (if it exists).
     */
    private fun FirThisReference.referencesClosestReceiver(): Boolean {
        require(!isImplicit) {
            "It doesn't make sense to handle implicit this references"
        }

        if (labelName == null) return true

        val psi = psi as? KtThisExpression ?: return false

            descriptor.containingDeclaration is AnonymousFunctionDescriptor &&
                    descriptor.name == StandardNames.IMPLICIT_LAMBDA_PARAMETER_NAME &&
                    // Implicit lambda parameter doesn't have a source PSI.
                    descriptor.source.getPsi() == null &&
                    // But, that could be the case for a declaration from Library. Double-check the slice in the binding context

    }

    /**
     * Returns a declared member scope which contains both static and non-static callables, as well as all classifiers. Java classes need to
     * be handled specially, because [declaredMemberScope] doesn't handle Java enhancement properly.
     */
    private fun getCombinedFirKotlinDeclaredMemberScope(symbolWithMembers: KtSymbolWithMembers): FirContainingNamesAwareScope {
        val useSiteSession = analysisSession.useSiteSession

     * a `foo.Foo` receiver type, and this function will only look for such combinations.
     *
     * N.B. This function only searches for extension callables qualified by receiver types!
     * It does not try to resolve fully qualified or member functions, because they are dealt
     * with by the other parts of [KDocReferenceResolver].
     */

            shouldStubAndNotLinkUnboundSymbols = true,
            shouldDeduplicateBuiltInSymbols = false,

            // Because the file to compile may be contained in a "common" multiplatform module, an `expect` declaration doesn't necessarily
            // have an obvious associated `actual` symbol. `shouldStubOrphanedExpectSymbols` generates stubs for such `expect` declarations.
            shouldStubOrphanedExpectSymbols = true,

     * case, the resulting [KtCall] would contain no type arguments at all, which can cause problems later. If too few type arguments are
     * provided, an empty map is returned defensively so that [toTypeArgumentsMapping] doesn't conjure any error types. If you want to map
     * too few type arguments meaningfully, please provide filler types explicitly.
     */
    private fun toTypeArgumentsMapping(
        typeArguments: List<FirTypeProjection>,

 * 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

            token,
        )
    }
    add(FirJvmErrors.JAVA_MODULE_DOES_NOT_DEPEND_ON_MODULE) { firDiagnostic ->
        JavaModuleDoesNotDependOnModuleImpl(
            firDiagnostic.a,
            firDiagnostic as KtPsiDiagnostic,
            token,
        )
    }
    add(FirJvmErrors.JAVA_MODULE_DOES_NOT_READ_UNNAMED_MODULE) { firDiagnostic ->
        JavaModuleDoesNotReadUnnamedModuleImpl(

                ?: error("allCandidates is null even when collectAllCandidates = true")

            candidates.flatMap { candidate ->
                // The current BindingContext does not have the diagnostics for each individual candidate, only for the resolved call.
                // If there are multiple candidates, we can get each one's diagnostics by reporting it to a new BindingTrace.