// For example, 'go build -gcflags=-S fmt' prints the disassembly
// only for package fmt, while 'go build -gcflags=all=-S fmt'
// prints the disassembly for fmt and all its dependencies.
//
// For more about specifying packages, see 'go help packages'.
// For more about where packages and binaries are installed,
// run 'go help gopath'.
// For more about calling between Go and C/C++, run 'go help c'.
//

		},
	}

	for i, test := range table {
		rows, err := printNode(&test.node, printers.GenerateOptions{})
		if err != nil {
			t.Fatalf("Error generating table rows for Node: %#v", err)
		}
		for i := range rows {
			rows[i].Object.Object = nil
		}
		if !reflect.DeepEqual(test.expected, rows) {

	// There's no point in doing work on such a binary.
	// Worse, opening the binary for write here makes it
	// essentially impossible to safely fork+exec due to a fundamental
	// incompatibility between ETXTBSY and threads on modern Unix systems.
	// See golang.org/issue/22220.
	// We still call updateBuildID to update a.buildID, which is important
	// for test result caching, but passing rewrite=false (final arg)

		return
	}

	for _, origin := range policy.AllowOrigins {
		errs = appendErrors(errs, validateAllowOrigins(origin))
	}

	for _, method := range policy.AllowMethods {
		errs = appendErrors(errs, validateHTTPMethod(method))
	}

	for _, name := range policy.AllowHeaders {
		errs = appendErrors(errs, ValidateHTTPHeaderName(name))
	}

	for _, name := range policy.ExposeHeaders {

    parallelism across iterations.

    For example, the following while loop body has a `%barrier` at the end.
    Although there is no data/control dependency between `tf.AssignVariableOp`
    for `%arg0` to `tf.AssignVariableOp` for `%arg1` across any iteration, the
    while loop body has a control barrier (`%barrier`) at the end which forces
    a dependency and the two assign variable ops must wait for each other to

				}
			}
			m, err := extractMetadata(ctx, textproto.MIMEHeader(hdrs))
			if err != nil {
				return err
			}
			for k, v := range m {
				metadata[k] = v
			}
		} else {
			versionID = r.Form.Get(xhttp.VersionID)
			hdrs = r.Header
		}

		opts, err := putOpts(ctx, bucket, object, versionID, hdrs, metadata)
		if err != nil {
			return err
		}

		opts.MTime = info.ModTime()

	if len(hostDomainName) > 0 {
		// host entry generated for all IPs in podIPs
		// podIPs field is populated for clusters even
		// dual-stack feature flag is not enabled.
		for _, hostIP := range hostIPs {
			buffer.WriteString(fmt.Sprintf("%s\t%s.%s\t%s\n", hostIP, hostName, hostDomainName, hostName))
		}
	} else {
		for _, hostIP := range hostIPs {

	}
	for _, sect := range Segrodata.Sections {
		sect.Extnum = n
		n++
	}
	for _, sect := range Segrelrodata.Sections {
		sect.Extnum = n
		n++
	}
	for _, sect := range Segdata.Sections {
		sect.Extnum = n
		n++
	}
	for _, sect := range Segdwarf.Sections {
		sect.Extnum = n
		n++
	}
	for _, sect := range Segpdata.Sections {
		sect.Extnum = n
		n++
	}

	RunOnce(<-chan kubetypes.PodUpdate) ([]RunPodResult, error)
}

// Dependencies is a bin for things we might consider "injected dependencies" -- objects constructed
// at runtime that are necessary for running the Kubelet. This is a temporary solution for grouping
// these objects while we figure out a more comprehensive dependency injection story for the Kubelet.
type Dependencies struct {
	Options []Option

	// Injected Dependencies

	objectName := "test-object"
	// Object used for anonymous API request test.
	anonObjectName := "test-anon-obj"
	// set of byte data for PutObject.
	// object has to be created before running tests for Deleting the object.
	bytesData := []struct {
		byteData []byte
	}{
		{generateBytesData(6 * humanize.MiByte)},
	}

	// set of inputs for uploading the objects before tests for deleting them is done.