}

        if (declaration is FirFunction) {
            requireNotNull(parameters)
            for ((index, parameter) in declaration.valueParameters.withIndex()) {
                if (parameters[index] != parameter.returnTypeRef.renderType()) return false
            }
        }

        return returnType == declaration.symbol.resolvedReturnTypeRef.renderType()
    }

/**
 * A candidate that is applicable for a call. A candidate is applicable if the call's arguments are complete and are assignable to the
 * candidate's parameters, AND the call's type arguments are complete and fit all the constraints of the candidate's type parameters.
 */
public class KaApplicableCallCandidateInfo(
    candidate: KaCall,
    isInBestCandidates: Boolean,
) : KaCallCandidateInfo(candidate, isInBestCandidates)

    /**
     * substitutes type parameters in a given type corresponding to internal mapping rules.
     *
     * @return substituted type if there was at least one substitution, [type] itself if there was no type parameter to substitute
     */
    public fun substitute(type: KaType): KaType = withValidityAssertion { substituteOrNull(type) ?: type }

    /**

        }

        val substitutions = LinkedHashMap<TypeConstructor, TypeProjection>(parameters.size)
        for (index in parameters.indices) {
            val parameterTypeConstructor = parameters[index].typeConstructor
            substitutions[parameterTypeConstructor] = TypeProjectionImpl(arguments[index] as KotlinType)
        }

        </parameter>
        <parameter>
          <name>repositories</name>
          <type>java.util.List</type>
          <required>true</required>
          <editable>false</editable>
        </parameter>
        <parameter>
          <name>resourceBundles</name>
          <type>java.util.List</type>
          <required>true</required>
          <editable>true</editable>
        </parameter>
        <parameter>

}

public inline fun <R> KaLifetimeOwner.withValidityAssertion(action: () -> R): R {
    assertIsValidAndAccessible()
    return action()
}

/**
 * This is a helper function to properly expose parameters in some [KaLifetimeOwner] implementation.
 *
 * An example:
 * ```kotlin
 * public class KaCall(symbol: KaSymbol) : KaLifetimeTokenOwner {
 *     public val symbol: KaSymbol by validityAsserted(symbol)
 * }
 * ```

        }
    }

    private fun SmartPrinter.printDiagnosticParameters(diagnostic: HLDiagnostic, diagnosticList: HLDiagnosticList) {
        diagnostic.parameters.forEach { parameter ->
            print("val ${parameter.name}: ")
            printTypeWithShortNames(parameter.type) { type ->
                diagnosticList.containsClashingBySimpleNameType(type)
            }
            println()
        }
    }

    }

    private fun writeGenericArguments(
        sw: JvmSignatureWriter,
        arguments: List<TypeProjection>,
        parameters: List<TypeParameterDescriptor>,
        mode: TypeMappingMode
    ) {
        with(KotlinTypeMapper) {
            typeContext.writeGenericArguments(sw, arguments, parameters, mode) { type, sw, mode ->
                mapType(type as KotlinType, mode, sw)
            }

    /**
     * Returns the functional type of the given [KtFunction].
     *
     * For a regular function, it would be kotlin.FunctionN<Ps, R> where
     *   N is the number of value parameters in the function;
     *   Ps are types of value parameters;
     *   R is the return type of the function.
     * Depending on the function's attributes, such as `suspend` or reflective access, different functional type,

        for (parameter in diagnostic.parameters) {
            printParameter(parameter, diagnosticList)
        }
        println("firDiagnostic: KtPsiDiagnostic,")
        println("token: KaLifetimeToken,")
    }

    private fun SmartPrinter.printParameter(parameter: HLDiagnosticParameter, diagnosticList: HLDiagnosticList) {
        print("override val ${parameter.name}: ")