Count:    10,
	},
	{
		Enable:   true,
		Idle:     5 * time.Second,
		Interval: 3 * time.Second,
		Count:    -1,
	},
	{
		Enable:   true,
		Idle:     -1,
		Interval: -1,
		Count:    10,
	},
	{
		Enable:   true,
		Idle:     -1,
		Interval: 3 * time.Second,
		Count:    -1,
	},
	{
		Enable:   true,
		Idle:     5 * time.Second,
		Interval: -1,
		Count:    -1,
	},
	{
		Enable:   true,

	}
	assert(fired, "fired")

	count := 0
	switch i5 {
	case 0:
		count = count + 1
		fallthrough
	case 1:
		count = count + 1
		fallthrough
	case 2:
		count = count + 1
		fallthrough
	case 3:
		count = count + 1
		fallthrough
	case 4:
		count = count + 1
		assert(false, "4")
	case 5:
		count = count + 1
		fallthrough
	case 6:
		count = count + 1

// NumGoroutine returns the number of goroutines that currently exist.
func NumGoroutine() int {
	return int(gcount())
}

//go:linkname debug_modinfo runtime/debug.modinfo
func debug_modinfo() string {
	return modinfo
}

// mayMoreStackPreempt is a maymorestack hook that forces a preemption
// at every possible cooperative preemption point.
//
// This is valuable to apply to the runtime, which can be sensitive to

    }

    def withGoodTestClasses(int count) {
        count.times { index ->
            createGoodTestClass(index)
        }
    }

    def withFailingTestClasses(int count) {
        count.times { index ->
            createFailingTestClass(index)
        }
    }

    def withSkippedTestClasses(int count) {
        count.times { index ->
            createSkippedTestClass(index)

			}

			weights[count] = pt.sym
			count++

			pt = &fseTable[state2]

			if !rbr.fetch(pt.bits) {
				if count >= 254 {
					return 0, 0, rbr.makeError("Huffman count overflow")
				}
				weights[count] = pt.sym
				weights[count+1] = fseTable[state1].sym
				count += 2
				break
			}

			v, err = rbr.val(pt.bits)
			if err != nil {
				return 0, 0, err
			}
			state2 = uint32(pt.base) + v

	// R4 = length
	// R5 = byte to count
	MTVRD	R5, V1		// move compare byte
	VSPLTB	$7, V1, V1	// replicate byte across V1
	BR	countbytebody<>(SB)

// R3: addr of string
// R4: len of string
// R5: byte to count
// V1: byte to count, splatted.
// On exit:
// R3: return value
TEXT countbytebody<>(SB), NOSPLIT|NOFRAME, $0-0
	MOVD	$0, R18 // byte count

#ifndef GOPPC64_power10
	RLDIMI	$8, R5, $48, R5

        }
        errLogging.count("System.err \u03b1\u03b2") == 1
        errLogging.count("error logging \u03b1\u03b2") == 1

        and:
        out.count("lifecycle logging \u03b1\u03b2") == 1
        out.count("warn logging") == 1
        out.count("quiet logging") == 1
        out.count("info") == 0
        out.count("debug") == 0

        err.count("warn") == 0
        err.count("quiet") == 0

		Count:    10,
	},
	{
		Enable:   true,
		Idle:     20 * time.Second,
		Interval: 10 * time.Second,
		Count:    -1,
	},
	{
		Enable:   true,
		Idle:     -1,
		Interval: -1,
		Count:    10,
	},
	{
		Enable:   true,
		Idle:     -1,
		Interval: 10 * time.Second,
		Count:    -1,
	},
	{
		Enable:   true,
		Idle:     20 * time.Second,
		Interval: -1,
		Count:    -1,
	},
	{

				target.Done()
			}()
		}()
	}

	// initially the count should be zero
	if count := target.Count(); count != 0 {
		t.Errorf("expected count to be zero, but got: %d", count)
	}
	// start the test
	close(startCh)
	// wait for the first set of requests (n1) to be done
	n1DoneWG.Wait()

	// after the first set of requests (n1) are done, the count should be zero
	if invoked := limiter.invoked(); invoked != 0 {

                    if (leftover > 0) {
                        int count = Math.min(leftover, length);
                        leftover -= count;
                        readBytes(buffer, offset, count);
                        return count;
                    }

                    int count = readSmallInt();
                    if (count == 0) {
                        // End of stream has been reached