"ppc64":   disasm_ppc64,
	"ppc64le": disasm_ppc64,
}

var byteOrders = map[string]binary.ByteOrder{
	"386":     binary.LittleEndian,
	"amd64":   binary.LittleEndian,
	"arm":     binary.LittleEndian,
	"arm64":   binary.LittleEndian,
	"ppc64":   binary.BigEndian,
	"ppc64le": binary.LittleEndian,
	"s390x":   binary.BigEndian,
}

type Liner interface {

    }
    tasks { t ->
        $.components.main.binaries.each { binary ->
            def preLinkTask = binary.tasks.taskName("preLink")
            t.create(preLinkTask) {
                dependsOn binary.tasks.withType(CppCompile)
                doLast {
                    println "Pre Link"
                }
            }
            binary.tasks.link.dependsOn preLinkTask

// for the final link of the gofmt binary and comparing it against the
// already-installed gofmt binary. But computing the action ID for the link
// means knowing the content ID of main.a, which we did not keep.
// To sidestep this problem, each binary actually stores an expanded build ID:
//
//	actionID(binary)/actionID(main.a)/contentID(main.a)/contentID(binary)
//
// (Note that this can be viewed equivalently as:
//

        reportOutput.hasNodeStructure {
            components {
                sampleLib {
                    binaries {
                        binary(type: 'SampleBinary', creator: 'MyComponentBinariesPlugin.Rules#createBinariesForSampleLibrary(ModelMap<SampleBinary>, SampleLibrary) > create(binary)') {
                            tasks()
                            sources()
                        }

	}

	return &ImageFetcher{
		fetchOpts: append(fetchOpts, remote.WithContext(ctx)),
	}
}

// PrepareFetch is the entrypoint for fetching Wasm binary from Wasm Image Specification compatible images.
// Wasm binary is not fetched immediately, but returned by `binaryFetcher` function, which is returned by PrepareFetch.

            .withArguments(":binary-compatibility:checkBinaryCompatibility", "-s")

        val (buildResult, failure) = try {
            runner.build()!! to null
        } catch (ex: UnexpectedBuildFailure) {
            ex.buildResult!! to ex
        }

        println(buildResult.output)

        val richReportFile = inputBuildDir.resolve("binary-compatibility/build/japi/japi.html").apply {

	var parsedVer *utilversion.Version
	var isNft bool
	// does the "xx-save" binary exist?
	rulesDump, binExistsErr := exec.Command(iptablesSaveBin).CombinedOutput()
	if binExistsErr != nil {
		return IptablesVersion{}, fmt.Errorf("binary %s not found in path: %w", iptablesSaveBin, binExistsErr)
	}

	// Binary is there, so try to parse version
	verCmd := exec.Command(iptablesSaveBin, "--version")

            return createLibraryEntry(binary, null, null, classpath, null, pathToSourceSets, testDependency, asJavaModule, false);
        }

	r := strings.NewReader(input)

	assert(binary.Read(r, binary.LittleEndian, &pr.version) == nil)

	switch pr.version {
	default:
		panic(fmt.Errorf("unsupported version: %v", pr.version))
	case 0:
		// no flags
	case 1:
		var flags uint32
		assert(binary.Read(r, binary.LittleEndian, &flags) == nil)
		pr.sync = flags&flagSyncMarkers != 0
	}

	assert(binary.Read(r, binary.LittleEndian, pr.elemEndsEnds[:]) == nil)

		names = append(names, osxNames...)
	}
	for _, name := range names {
		if binary, found := findExe(name, paths); found {
			return binary, true
		}
	}
	return "", false
}

// isLLVMObjdump accepts a string with path to an objdump binary,
// and returns a boolean indicating if the given binary is an LLVM
// objdump binary of an acceptable version.
func isLLVMObjdump(output string) bool {