abstract class CustomTask : DefaultTask() {
                @get:Input
                abstract val mapValues: MapProperty<String, Int>

                @TaskAction
                fun customAction() {
                    println("Hello from custom task")
                    // println("- mapValues['alma'] = \${mapValues['alma']}")
                }
            }
        """

        expect:

        val sortedChanges = originalChanges.mapValues {
            sortChanges(it.value)
        }

        val mismatches = originalChanges.mapValues {
            findMismatches(it.value, sortedChanges[it.key]!!)
        }.filterValues {
            it.isNotEmpty()
        }

        if (mismatches.isNotEmpty()) {
            val formattedMismatches = mismatches.mapValues { mismatch ->

 * instances. A discrete domain is one that supports the three basic operations: {@link #next},
 * {@link #previous} and {@link #distance}, according to their specifications. The methods {@link
 * #minValue} and {@link #maxValue} should also be overridden for bounded types.
 *
 * <p>A discrete domain always represents the <i>entire</i> set of values of its type; it cannot
 * represent partial domains such as "prime integers" or "strings of length 5."
 *

 * instances. A discrete domain is one that supports the three basic operations: {@link #next},
 * {@link #previous} and {@link #distance}, according to their specifications. The methods {@link
 * #minValue} and {@link #maxValue} should also be overridden for bounded types.
 *
 * <p>A discrete domain always represents the <i>entire</i> set of values of its type; it cannot
 * represent partial domains such as "prime integers" or "strings of length 5."
 *

                is FunctionSemantics.Pure -> ObjectReflection.PureFunctionInvocation(
                    type,
                    objectOrigin,
                    objectOrigin.parameterBindings.bindingMap.mapValues { reflect(it.value, context) }
                )

                is FunctionSemantics.AccessAndConfigure -> {
                    when (objectOrigin) {

        store.flush();
    }

    private void verify(FreeListBlock block, int maxValue) {
        if (block.largestInNextBlock > maxValue) {
            throw new RuntimeException("corrupt free list");
        }
        int current = 0;
        for (FreeListEntry entry : block.entries) {
            if (entry.size > maxValue) {
                throw new RuntimeException("corrupt free list");
            }

        val importAnalysisRendered = buildString {
            val sortedUsedDeclarations = importsAnalysis.usedDeclarations
                .toSortedMap(compareBy { importPath -> importPath.toString() })
                .mapValues { (_, importedNames) -> importedNames.sorted() }

            appendLine("USED DECLARATIONS:")
            for ((path, elements) in sortedUsedDeclarations) {
                appendLine()

 */
@CacheableTask
abstract class SortAcceptedApiChangesTask : AbstractAcceptedApiChangesMaintenanceTask() {

    @TaskAction
    fun execute() {
        loadChanges().mapValues {
            formatChanges(sortChanges(it.value))
        }.forEach {
            it.key.bufferedWriter().use { out -> out.write(it.value) }
        }
    }

    private

    if (!q_type) return failure();

    const float scale = q_type.getScale();
    const float zp = q_type.getZeroPoint();

    auto input_values = input_dequant.getValue();

    // mapValues always takes a function returning APInt, even when the output
    // is actually float.
    using DequantizeFuncType = llvm::APInt(const llvm::APInt&);
    auto dequantize_func = [&](const APInt& ap_int_value) -> APInt {

            is RuntimeFunctionResolver.Resolution.Resolved -> {
                val bindingWithValues = origin.parameterBindings.bindingMap.mapValues { getObjectByResolvedOrigin(it.value) }
                runtimeFunction.function.callByWithErrorHandling(receiverInstance, bindingWithValues, origin.parameterBindings.providesConfigureBlock)
            }