else -> {
                    val errorType =
                        ErrorUtils.createErrorType(ErrorTypeKind.UNRESOLVED_CLASS_TYPE, typeConstructor, typeDeclaration.toString())
                    KtFe10ClassErrorType(errorType, analysisContext)
                }
            }

        }
        else -> error("Unexpected type $this")
    }
}

            is KtConstantAnnotationValue -> {
                printer.append(value.constantValue.constantValueKind.asString)
                    .append("(")
                    .append(value.constantValue.value.toString())
                    .append(")")
            }

            is KtUnsupportedAnnotationValue -> {
                printer.append(KtUnsupportedAnnotationValue::class.java.simpleName)
            }

        val kotlinType = (getSymbolDescriptor(symbol) as? ClassDescriptor)?.defaultType
            ?: ErrorUtils.createErrorType(ErrorTypeKind.UNRESOLVED_CLASS_TYPE, symbol.nameOrAnonymous.toString())
        return kotlinType.toKtType(analysisContext)
    }

    override fun commonSuperType(types: Collection<KtType>): KtType {
        val kotlinTypes = types.map { (it as KtFe10Type).fe10Type }

  }

  @Test
  @TestMetadata("libraryDataClass_toString.kt")
  public void testLibraryDataClass_toString() {
    runTest("analysis/analysis-api/testData/symbols/symbolByReference/libraryDataClass_toString.kt");
  }

  @Test
  @TestMetadata("libraryMemberProperty.kt")
  public void testLibraryMemberProperty() {

  }

  @Test
  @TestMetadata("string_toString.kt")
  public void testString_toString() {
    runTest("analysis/analysis-api/testData/components/compileTimeConstantProvider/evaluate/string_toString.kt");
  }

  @Test
  @TestMetadata("string_trimIndent.kt")
  public void testString_trimIndent() {

        return HLDiagnosticParameter(
            name = diagnosticParameter.name,
            conversion = conversion,
            originalParameterName = ('a' + index).toString(),
            type = convertedType,
            original = diagnosticParameter,
            importsToAdd = conversion.importsToAdd
        )
    }

            is FirPackageMemberScope -> createPackageScope(firScope.fqName)
            is FirContainingNamesAwareScope -> KtFirDelegatingNamesAwareScope(firScope, builder)
            else -> TODO(firScope::class.toString())
        }
    }

    private fun getScopeKind(firScope: FirScope, indexInTower: Int): KtScopeKind = when (firScope) {
        is FirNameAwareOnlyCallablesScope -> getScopeKind(firScope.delegate, indexInTower)

        val value = cache.getOrPut(key, calculation)
        return value as? S
            ?: errorWithAttachment("Cannot cast ${value::class} to ${S::class}") {
                withEntry("value", value.toString())
            }
    }
}

internal fun FirElement.buildSymbol(builder: KtSymbolByFirBuilder) =
    (this as? FirDeclaration)?.symbol?.let(builder::buildSymbol)

            type.isULong -> KtConstantValue.KtUnsignedLongConstantValue((value as Number).toLong().toULong(), expression)
            type.isString -> KtConstantValue.KtStringConstantValue(value.toString(), expression)
            type.isFloat -> KtConstantValue.KtFloatConstantValue((value as Number).toFloat(), expression)
            type.isDouble -> KtConstantValue.KtDoubleConstantValue((value as Number).toDouble(), expression)

        val concatenated = buildString {
            for (arg in stringConcatenationCall.arguments) {
                val evaluated = evaluate(arg, mode) ?: return null
                append(evaluated.value.toString())
            }
        }

        return ConstantValueKind.String.toLiteralExpression(stringConcatenationCall.source, concatenated)
    }

    private fun evaluateFunctionCall(