p.numRunes += len(re.Rune)
	if re.Op == OpCharClass && len(re.Rune) == 2 && re.Rune[0] == re.Rune[1] {
		// Single rune.
		if p.maybeConcat(re.Rune[0], p.flags&^FoldCase) {
			return nil
		}
		re.Op = OpLiteral
		re.Rune = re.Rune[:1]
		re.Flags = p.flags &^ FoldCase
	} else if re.Op == OpCharClass && len(re.Rune) == 4 &&
		re.Rune[0] == re.Rune[1] && re.Rune[2] == re.Rune[3] &&

	}

	// 5. Drop
	dropNotLatin := func(r rune) rune {
		if unicode.Is(unicode.Latin, r) {
			return r
		}
		return -1
	}
	m = Map(dropNotLatin, []byte("Hello, 세계"))
	expect = "Hello"
	if string(m) != expect {
		t.Errorf("drop: expected %q got %q", expect, m)
	}

	// 6. Invalid rune
	invalidRune := func(r rune) rune {
		return utf8.MaxRune + 1
	}

	{"x \xc0\xc0 ", "x \xc0\xc0"},
	{"x ☺\xc0\xc0 ", "x ☺\xc0\xc0"},
	{"x ☺ ", "x ☺"},
}

func tenRunes(ch rune) string {
	r := make([]rune, 10)
	for i := range r {
		r[i] = ch
	}
	return string(r)
}

// User-defined self-inverse mapping function
func rot13(r rune) rune {
	step := rune(13)
	if r >= 'a' && r <= 'z' {
		return ((r - 'a' + step) % 26) + 'a'
	}
	if r >= 'A' && r <= 'Z' {

	var args []string
	arg := make([]rune, len(s))
	escaped := false
	quoted := false
	quote := '\x00'
	i := 0
	for _, rune := range s {
		switch {
		case escaped:
			escaped = false
		case rune == '\\':
			escaped = true
			continue
		case quote != '\x00':
			if rune == quote {
				quote = '\x00'
				continue
			}
		case rune == '"' || rune == '\'':
			quoted = true

//
//	go test -run ''        # Run all tests.
//	go test -run Foo       # Run top-level tests matching "Foo", such as "TestFooBar".
//	go test -run Foo/A=    # For top-level tests matching "Foo", run subtests matching "A=".
//	go test -run /A=1      # For all top-level tests, run subtests matching "A=1".
//	go test -fuzz FuzzFoo  # Fuzz the target matching "FuzzFoo"
//

	tg.run("env", "GCCGO")
	tg.grepStdout(".", "GCCGO unexpectedly empty")

	tg.run("env", "CGO_CFLAGS")
	tg.grepStdout(".", "default CGO_CFLAGS unexpectedly empty")

	tg.setenv("CGO_CFLAGS", "-foobar")
	tg.run("env", "CGO_CFLAGS")
	tg.grepStdout("^-foobar$", "CGO_CFLAGS not honored")

	tg.setenv("CC", "gcc -fmust -fgo -ffaster")
	tg.run("env", "CC")
	tg.grepStdout("gcc", "CC not found")
	tg.run("env", "GOGCCFLAGS")

        assertTasksReadyAndNoMoreToStart(finalizer1, finalizer2)
        assertAllWorkComplete()
    }

    def "dependency of multiple finalizers runs after the first task to be finalized when one finalizer does not run"() {
        given:
        Task finalizerDepDep = task("finalizerDepDep", type: Async)
        Task finalizerDep1 = task("finalizerDep1", type: Async, dependsOn: [finalizerDepDep])

  echo "Run this script again with START_MODE=kubeletonly to run a kubelet"
fi

if [[ "${START_MODE}" != "kubeletonly" ]]; then
  echo
  if [[ "${ENABLE_DAEMON}" = false ]]; then
    echo "To start using your cluster, you can open up another terminal/tab and run:"
  else
    echo "To start using your cluster, run:"
  fi
  cat <<EOF

	var status *framework.Status

	podsAdded := false
	// We run filters twice in some cases. If the node has greater or equal priority
	// nominated pods, we run them when those pods are added to PreFilter state and nodeInfo.
	// If all filters succeed in this pass, we run them again when these
	// nominated pods are not added. This second pass is necessary because some

        when:
        withBuildCache().run ":consumer:resolve", "-DproducerContent=initial"
        then:
        executedAndNotSkipped(":consumer:resolve")

        outputDoesNotContain("processing [producer.jar]")
        checkExecuteTransformWorkOperations(getExecutePlannedStepOperations(1).first(), ["UP-TO-DATE"])

        when:
        withBuildCache().run ":consumer:resolve", "-DproducerContent=changed"