}

  @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() {

  }

  @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() {

	// Note: We must do this _before_ calling exprList because exprList evaluates
	//       all arguments.
	if id == _Len || id == _Cap {
		defer func(b bool) {
			check.hasCallOrRecv = b
		}(check.hasCallOrRecv)
		check.hasCallOrRecv = false
	}

	// Evaluate arguments for built-ins that use ordinary (value) arguments.
	// For built-ins with special argument handling (make, new, etc.),

                applyReflectionToJvmObjectConversion(step.evaluationSchemaForStep, step, stepContext.targetObject, topLevelObjectReflection)
                EvaluationResult.Evaluated(ConversionStepResult.ConversionSucceeded(analysisResult.stepResult))
            } else EvaluationResult.Evaluated(ConversionStepResult.ConversionNotApplicable(analysisResult.stepResult))
    }

    private
    fun <R : Any> applyReflectionToJvmObjectConversion(

                            << e5 << ") evaluates to false, where"
                            << "\n" << e1 << " evaluates to " << v1
                            << "\n" << e2 << " evaluates to " << v2
                            << "\n" << e3 << " evaluates to " << v3
                            << "\n" << e4 << " evaluates to " << v4
                            << "\n" << e5 << " evaluates to " << v5;
}

	return

Error:
	x.mode = invalid
	x.expr = e
}

// use type-checks each argument.
// Useful to make sure expressions are evaluated
// (and variables are "used") in the presence of
// other errors. Arguments may be nil.
// Reports if all arguments evaluated without error.
func (check *Checker) use(args ...syntax.Expr) bool { return check.useN(args, false) }

			// argument, so we are going to return this one.
			// We don't have to evaluate final, but we do
			// have to check its type. Then, since we are
			// going to return it, we have to unwrap it.
			v = unwrap(s.validateType(final, argType))
		}
		return v
	}

	// Build the arg list.
	argv := make([]reflect.Value, numIn)
	// Args must be evaluated. Fixed args first.
	i := 0
	for ; i < numFixed && i < len(args); i++ {

import org.gradle.internal.declarativedsl.language.SingleFailureResult
import org.gradle.internal.declarativedsl.objectGraph.AssignmentTraceElement


sealed interface EvaluationResult<out R : StepResult> {
    class Evaluated<R : StepResult>(val stepResult: R) : EvaluationResult<R>

    class NotEvaluated<R : StepResult>(
        val stageFailures: List<StageFailure>,

 *
 * @since 8.8
 */
@Incubating
public interface GradleLifecycle {
    /**
     * Adds an {@link IsolatedAction isolated action} to be called immediately before a project is evaluated.
     *
     * Any extensions added to the {@code Project} model will be available to build scripts.
     *
     * @param action The action to execute.
     * @see IsolatedAction for the requirements to isolated actions

    evaluate: FailureCollectorContext.() -> ElementResult<T>
): ElementResult<T> {
    val context = FailureCollectorContext()
    return evaluate(context)
}


internal
fun <T> syntacticOrFailure(
    evaluate: FailureCollectorContext.() -> SyntacticResult<T>
): SyntacticResult<T> {
    val context = FailureCollectorContext()
    return evaluate(context)