// If we are at a super-type constructor call, adjust the resolution expression so that we
        // get the constructor instead of the class.
        //
        // For the example:
        //
        // class A {
        //   constructor()
        // }
        // class B: <caret>A()
        //

    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
     */
    compileOnly(intellijCore())

 * not necessarily the case for declaration providers (e.g. the IDE declaration provider hitting the index without caching).
 *
 * However, since symbol names providers may not be able to compute name sets per their contract, we may have to fall back to the
 * [declaration provider][org.jetbrains.kotlin.analysis.providers.KotlinDeclarationProvider].
 *

For handy work with compiler tests it's recommended to use [
Kotlin Compiler Test Helper](https://github.com/demiurg906/test-data-helper-plugin)

### Dependency verification

We have a [dependencies verification](https://docs.gradle.org/current/userguide/dependency_verification.html) feature enabled in the

                val bindingContext = analysisContext.analyze(typeReference, AnalysisMode.PARTIAL)
                val kotlinType =
                    if (declaration is KtParameter && declaration.isVarArg) {
                        // we want full Array<out T> type for parity with FIR implementation
                        bindingContext[BindingContext.VALUE_PARAMETER, declaration]?.returnType
                    } else {

 * Helper abstraction to navigate through qualified FIR elements - we have to match [ClassId] and PSI qualifier pair
 * to correctly reason about long qualifiers.
 */
private sealed interface TypeQualifier {
    val referencedClassId: ClassId

    /**
     * Type can be imported with alias, and thus can be referenced by the name different from its actual name.
     *

     * fun usage(action: String.(Int) -> String) {
     *   "hello".<expr>action</expr>(10)
     * }
     * ```
     *
     * The user might want to know the type of the `action` callback. If we always return null for the named references,
     * we won't be able to handle this request, and just return null. So the user will only be able to see the type
     * of the whole expression instead, and that is not what he wants.
     */

            // Make sure we're not going to expand type argument over and over again.
            // If so, i.e., if there is a recursive type argument, return the current, non-null [type]
            // to prevent the following [substituteTypeOr*] from proceeding to its own (recursive) substitution.
            if (type.hasRecursiveTypeArgument()) return type

        }
    }

    private fun KtCallInfo?.toKtCallCandidateInfos(bestCandidateDescriptors: Set<CallableDescriptor>): List<KtCallCandidateInfo> {
        // TODO: We should prefer to compare symbols instead of descriptors, but we can't do so while symbols are not cached.
        fun KtCall.isInBestCandidates(): Boolean {
            val descriptor = this.safeAs<KtFunctionCall<*>>()?.descriptor as? CallableDescriptor

        //   } }
        // That constant is encoded as `unaryMinus` call with the const 2147483628 of long type, while the resolved type is Int.
        // After computing the compile time constant, we need to adjust its type here.
        val expression =
            if (expectedKind != null && expectedKind != kind && value is Number) {
                val typeAdjustedValue = expectedKind.convertToNumber(value as Number)!!