throw UnsupportedOperationException("Code fragments are not supported in K1 implementation")
        }

        val classBuilderFactory = when (target) {
            is KtCompilerTarget.Jvm -> target.classBuilderFactory
        }

        val effectiveConfiguration = configuration
            .copy()
            .apply {
                put(JVMConfigurationKeys.DO_NOT_CLEAR_BINDING_CONTEXT, true)
            }

                    typeProjection.type.hasReferenceOtherThan(allowedTypeParameterDescriptors)
        }
    }
}

/**
 * Use-site substitution override are tracked through [CallableDescriptor.getOriginal]. Note that overridden symbols are accessed through
 * [CallableDescriptor.getOverriddenDescriptors] instead, which is separate from [CallableDescriptor.getOriginal].
 */
@Suppress("UNCHECKED_CAST")

            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`).
     */

 * stub-indexing binary libraries). And in general, querying the symbol names provider might be faster since its sets are cached, which is
 * not necessarily the case for declaration providers (e.g. the IDE declaration provider hitting the index without caching).
 *

        originalFile: KtFile,
        nameExpression: KtSimpleNameExpression,
        explicitReceiver: KtExpression?
    ): KtCompletionExtensionCandidateChecker {
        throw NotImplementedError("Method is not implemented for FE 1.0")
    }

    @Suppress("OVERRIDE_DEPRECATION")
    override fun checkExtensionFitsCandidate(
        firSymbolForCandidate: KtCallableSymbol,
        originalFile: KtFile,

            else -> analysisContext.builtIns.getFunction(parameterCount)
        }

        val errorMessage = "Descriptor not found for function \"${declaration.name}\""
        return ErrorUtils.createErrorType(ErrorTypeKind.NOT_FOUND_DESCRIPTOR_FOR_FUNCTION, function.typeConstructor, errorMessage)
            .toKtType(analysisContext)
    }

    implementation(project(":analysis:analysis-api"))

    implementation(commonDependency("org.jetbrains.kotlin:kotlin-reflect")) { isTransitive = false }

    /*
     We do not need guava in the generator, but because of a bug in the IJ project importing, we need to have a dependency on intellijCore
     the same as it is in `:fir:tree:tree-generator` module to the project be imported correctly
     */

        analysisSession: KtFirAnalysisSession,
        private val firSession: FirSession,
    ) {
        private val scopeSession = analysisSession.getScopeSessionFor(firSession)


        // TODO: This transformer is not intended for actual transformations and
        //  created here only to simplify access to SAM resolver in body resolve components
        private val stubBodyResolveTransformer = object : FirBodyResolveTransformer(

            }

            if (!referencedClassIdAndQualifiedAccessMatch(qualifiedAccessSegments)) {
                // Referenced ClassId and qualified access (from source PSI) could be not identical if an import alias is involved.
                // E.g., test.pkg.R.string.hello v.s. coreR.string.hello where test.pkg.R is imported as coreR

  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 
  precedence than the `-Pkotlin.native.enabled=true` specified in the Gradle command.

## Using -dev versions