type limiterEvent struct {
	stamp atomic.Uint64 // Stores a limiterEventStamp.
}

// start begins tracking a new limiter event of the current type. If an event
// is already in flight, then a new event cannot begin because the current time is
// already being attributed to that event. In this case, this function returns false.
// Otherwise, it returns true.
//

	// error early. If limit is zero, there is no limit on calls to the
	// fuzz function.
	limit int64

	// warmup indicates whether this is a warmup input before fuzzing begins. If
	// true, the input should not be fuzzed.
	warmup bool

	// coverageData reflects the coordinator's current coverageMask.
	coverageData []byte
}

type fuzzResult struct {

		check.softErrorf(pos, NoNewVar, "no new variables on left side of :=")
		return
	}

	// declare new variables
	// spec: "The scope of a constant or variable identifier declared inside
	// a function begins at the end of the ConstSpec or VarSpec (ShortVarDecl
	// for short variable declarations) and ends at the end of the innermost
	// containing block."
	scopePos := endPos(rhs[len(rhs)-1])
	for _, obj := range newVars {

		check.softErrorf(pos, NoNewVar, "no new variables on left side of :=")
		return
	}

	// declare new variables
	// spec: "The scope of a constant or variable identifier declared inside
	// a function begins at the end of the ConstSpec or VarSpec (ShortVarDecl
	// for short variable declarations) and ends at the end of the innermost
	// containing block."
	scopePos := endPos(rhs[len(rhs)-1])
	for _, obj := range newVars {

// returning empty string if this was successful or a string explaining
// the error if it was not.
// A version of the phase name with "_" replaced by " " is also checked for a match.
// If the phase name begins a '~' then the rest of the underscores-replaced-with-blanks
// version is used as a regular expression to match the phase name(s).
//
// Special cases that have turned out to be useful:

func tError(c context, s []byte) (context, int) {
	return c, len(s)
}

// eatAttrName returns the largest j such that s[i:j] is an attribute name.
// It returns an error if s[i:] does not look like it begins with an
// attribute name, such as encountering a quote mark without a preceding
// equals sign.
func eatAttrName(s []byte, i int) (int, *Error) {
	for j := i; j < len(s); j++ {
		switch s[j] {

Every package in a program must have a unique import path.
By convention, this is arranged by starting each path with a
unique prefix that belongs to you. For example, paths used
internally at Google all begin with 'google', and paths
denoting remote repositories begin with the path to the code,
such as 'github.com/user/repo'.

Packages in a program need not have unique package names,
but there are two reserved package names with special meaning.

	return func(ctx context.Context) {
		for {
			if quit := workFunc(ctx); quit {
				klog.FromContext(ctx).Info("resource quota controller worker shutting down")
				return
			}
		}
	}
}

// Run begins quota controller using the specified number of workers
func (rq *Controller) Run(ctx context.Context, workers int) {
	defer utilruntime.HandleCrash()
	defer rq.queue.ShutDown()
	defer rq.missingUsageQueue.ShutDown()

		{"", false},
		{"a", false},
		{"ab", false},
		{".starts-with-a-dot", false},
		{"ends-with-a-dot.", false},
		{"ends-with-a-dash-", false},
		{"-starts-with-a-dash", false},
		{"THIS-BEGINS-WITH-UPPERCASe", false},
		{"tHIS-ENDS-WITH-UPPERCASE", false},
		{"ThisBeginsAndEndsWithUpperCasE", false},
		{"una ñina", false},
		{"dash-.may-not-appear-next-to-dot", false},

When parsing a template, another template may be defined and associated with the
template being parsed. Template definitions must appear at the top level of the
template, much like global variables in a Go program.

The syntax of such definitions is to surround each template declaration with a
"define" and "end" action.

The define action names the template being created by providing a string
constant. Here is a simple example: