for _, v := range lit {
		dst = append(dst, literalToken(uint32(v)))
	}
	return dst
}

// matchLen returns the match length between src[s:] and src[t:].
// t can be negative to indicate the match is starting in e.prev.
// We assume that src[s-4:s] and src[t-4:t] already match.
func (e *deflateFast) matchLen(s, t int32, src []byte) int32 {
	s1 := int(s) + maxMatchLength - 4
	if s1 > len(src) {
		s1 = len(src)
	}

}

// Matcher decides if a request is exempted by the NamespaceSelector of a
// webhook configuration.
type Matcher struct {
	NamespaceLister corelisters.NamespaceLister
	Client          clientset.Interface
}

func (m *Matcher) GetNamespace(name string) (*v1.Namespace, error) {
	return m.NamespaceLister.Get(name)
}

// Validate checks if the Matcher has a NamespaceLister and Client.

	return v.Expression
}

func (v *MatchCondition) ReturnTypes() []*cel.Type {
	return []*cel.Type{cel.BoolType}
}

var _ Matcher = &matcher{}

// matcher evaluates compiled cel expressions and determines if they match the given request or not
type matcher struct {
	filter      celplugin.Filter
	failPolicy  v1.FailurePolicyType
	matcherType string
	matcherKind string
	objectName  string
}

// GetServiceMatches returns the subset of echo.Services that match this Matcher.
func (m Matcher) GetServiceMatches(services echo.Services) echo.Services {
	out := make(echo.Services, 0)
	for _, s := range services {
		if len(s) > 0 && m(s[0]) {
			out = append(out, s)
		}
	}
	return out
}

// First finds the first Instance that matches the Matcher.
func (m Matcher) First(i echo.Instances) (echo.Instance, error) {
	for _, i := range i {

		return false
	}
	return selector.Matches(labels.Set(accessor.GetLabels()))

}

// MatchObjectSelector decideds whether the request matches the ObjectSelector
// of the webhook. Only when they match, the webhook is called.
func (m *Matcher) MatchObjectSelector(p ObjectSelectorProvider, attr admission.Attributes) (bool, *apierrors.StatusError) {

	"regexp"
	"strconv"
	"strings"
)

// testFilter is a regex matcher on a test. It is split by / following go subtest format
type testFilter []*regexp.Regexp

type Matcher struct {
	filters []testFilter
}

// NewMatcher reimplements the logic of Go's -test.run. The code is mostly directly copied from Go's source.
func NewMatcher(regexs []string) (*Matcher, error) {
	filters := []testFilter{}
	for _, regex := range regexs {

Dr. Stefan Schimanski <******@****.***> 1486027168 +0100

Rita Zhang <******@****.***> 1709268932 -0800

		return false, err
	}
	matched := s.Label.Matches(labels)
	if matched && s.Field != nil {
		matched = matched && s.Field.Matches(fields)
	}
	return matched, nil
}

// MatchesObjectAttributes returns true if the given labels and fields
// match s.Label and s.Field.
func (s *SelectionPredicate) MatchesObjectAttributes(l labels.Set, f fields.Set) bool {
	if s.Label.Empty() && s.Field.Empty() {
		return true
	}

)

// TODO: consider if (some of the) matching algorithm needs to be public after
// getting some feel about what is generic and what is specific.

// NewInheritanceMatcher returns a matcher that matches based on the inheritance
// chain.
//
// The matcher uses canonicalization and the parent relationship to find a
// match. The resulting match will always be either Und or a language with the