// fact that we only identify reducible loops.
	j := 0
	// Some blocks that are not part of a loop may be placed
	// between loop blocks. In order to avoid these blocks from
	// being overwritten, use a temporary slice.
	oldOrder := f.Cache.allocBlockSlice(len(f.Blocks))
	defer f.Cache.freeBlockSlice(oldOrder)
	copy(oldOrder, f.Blocks)
	for _, b := range oldOrder {
		if _, ok := move[b.ID]; ok {
			continue
		}

			webhook:  "test-webhook",
			patch:    []byte("[{}]"),
			expected: `{"configuration":"test-config","webhook":"test-webhook","patch":[{}],"patchType":"JSONPatch"}`,
		},
		{
			name:     "empty slice patch",
			config:   "test-config",
			webhook:  "test-webhook",
			patch:    []byte("[]"),
			expected: `{"configuration":"test-config","webhook":"test-webhook","patch":[],"patchType":"JSONPatch"}`,
		},
	}

	for _, wl := range zDump.Workloads {
		if filter.Verify(wl) {
			verifiedWorkloads = append(verifiedWorkloads, wl)
		}
	}

	// Sort by name, node
	sort.Slice(verifiedWorkloads, func(i, j int) bool {
		in := verifiedWorkloads[i].Namespace + "." + verifiedWorkloads[i].Name
		jn := verifiedWorkloads[j].Namespace + "." + verifiedWorkloads[j].Name
		if in != jn {
			return in < jn
		}

	if len(cmd) == 0 {
		arg0, _ := Executable()
		Args = []string{arg0}
	} else {
		Args = commandLineToArgv(cmd)
	}
}

// appendBSBytes appends n '\\' bytes to b and returns the resulting slice.
func appendBSBytes(b []byte, n int) []byte {
	for ; n > 0; n-- {
		b = append(b, '\\')
	}
	return b
}

// readNextArg splits command line string cmd into next
// argument and command line remainder.

                    "Parsing error: " + failure.message
                )
                is UnsupportedConstruct -> println(
                    failure.languageFeature.toString() + " in " + parsedTree.wrappedCode.slice(parsedTree.originalCodeOffset..parsedTree.originalCodeOffset + 100)
                )
                is MultipleFailuresResult -> failure.failures.forEach { printFailures(it) }
            }
        }

	n := 0          // number of mantissa words
	if x.form == finite {
		// add space for mantissa and exponent
		n = int((x.prec + (_W - 1)) / _W) // required mantissa length in words for given precision
		// actual mantissa slice could be shorter (trailing 0's) or longer (unused bits):
		// - if shorter, only encode the words present
		// - if longer, cut off unused words when encoding in bytes
		//   (in practice, this should never happen since rounding

	}

	// Change the meaning of n for the implementation below.
	//
	// The n above was for the public interface of "if n <= 0,
	// Readdir returns all the FileInfo from the directory in a
	// single slice".
	//
	// But below, we use only negative to mean looping until the
	// end and positive to mean bounded, with positive
	// terminating at 0.
	if n == 0 {
		n = -1
	}

	for n != 0 {

func Supports(featureList FeatureList, featureName string) bool {
	for k := range featureList {
		if featureName == k {
			return true
		}
	}
	return false
}

// KnownFeatures returns a slice of strings describing the FeatureList features.
func KnownFeatures(f *FeatureList) []string {
	var known []string
	for k, v := range *f {
		if v.HiddenInHelpText {
			continue
		}

		pre := ""

	return out
}

func (e *Environment) Clusters() cluster.Clusters {
	return e.AllClusters().MeshClusters()
}

// ClustersByNetwork returns an inverse mapping of the network topolgoy to a slice of clusters in a given network.
func (e *Environment) ClustersByNetwork() map[string][]cluster.Cluster {
	out := make(map[string][]cluster.Cluster)
	for _, c := range e.Clusters() {

	// another thread". Thus we can be sure that there will be no
	// inconsistency when reading the counter array from the thread
	// running ClearCounters.

	for _, c := range cl {
		sd := unsafe.Slice((*atomic.Uint32)(unsafe.Pointer(c.Counters)), int(c.Len))
		for i := 0; i < len(sd); i++ {
			// Skip ahead until the next non-zero value.
			sdi := sd[i].Load()
			if sdi == 0 {
				continue
			}