* granted. Tells the amount of time slept, if any.
   *
   * <p>This method is equivalent to {@code acquire(1)}.
   *
   * @return time spent sleeping to enforce rate, in seconds; 0.0 if not rate-limited
   * @since 16.0 (present in 13.0 with {@code void} return type})
   */
  @CanIgnoreReturnValue
  public double acquire() {
    return acquire(1);
  }

 * under the License.
 */
package org.apache.maven.logwrapper;

import java.util.HashMap;
import java.util.Map;

import org.slf4j.event.Level;

/**
 * Responsible for keeping state of whether the threshold of the --fail-on-severity flag has been hit.
 */
public class LogLevelRecorder {
    private static final Map<String, Level> ACCEPTED_LEVELS = new HashMap<>();

    static {

	recursive    bool       `msg:"rec"`
	dataVersion  uint8      `msg:"v"`
}

func (m *metacache) finished() bool {
	return !m.ended.IsZero()
}

// worthKeeping indicates if the cache by itself is worth keeping.
func (m *metacache) worthKeeping() bool {
	if m == nil {
		return false
	}
	cache := m
	switch {
	case !cache.finished() && time.Since(cache.lastUpdate) > metacacheMaxRunningAge:

	// bug remains fixed. (This is fine, because if the bug really is unfixed we
	// can keep the process hung indefinitely, as long as we signal it often
	// enough.)
	timeout := 10 * time.Second

	// The subprocess begins sleeping for 1s after it writes to stdout, so measure
	// the timeout from here (not from when we started creating the process).
	// That should reduce noise from process startup overhead.
	ready := time.Now()

 *     <li>The input or output is stored remotely, for example in a database, and its state cannot be tracked.</li>
 *     <li>Another tool like Git already takes care of keeping the state, so it doesn't make sense for Gradle to do additional bookkeeping.</li>
 *     <li>Prevent Gradle from trying to snapshot a potentially large amount of content if an output location is not exclusively owned by the build.</li>

      fail<Any>()
    } catch (expected: IOException) {
    }
    server.url("/b").toUrl().openConnection().getInputStream() // Should succeed.
  }

  /**
   * Throttle the request body by sleeping 500ms after every 3 bytes. With a 6-byte request, this
   * should yield one sleep for a total delay of 500ms.
   */
  @Test
  fun throttleRequest() {
    assumeNotWindows()
    server.enqueue(

    val inputStream = server.url("/a").toUrl().openConnection().getInputStream()
    assertThat(inputStream!!.read()).isEqualTo('B'.code)
  }

  /**
   * Throttle the request body by sleeping 500ms after every 3 bytes. With a 6-byte request, this
   * should yield one sleep for a total delay of 500ms.
   */
  @Test
  fun throttleRequest() {
    assumeNotWindows()
    server.enqueue(

	var responsesMu sync.Mutex

	var throttle *time.Ticker
	qps := int(cfg.Request.Qps)
	if qps > 0 {
		sleepTime := time.Second / time.Duration(qps)
		fwLog.Debugf("Sleeping %v between requests", sleepTime)
		throttle = time.NewTicker(sleepTime)
		defer throttle.Stop()
	}

	g := e.NewGroup()
	for index := 0; index < cfg.count; index++ {
		index := index

	swap := reflectlite.Swapper(x)
	length := rv.Len()
	limit := bits.Len(uint(length))
	pdqsort_func(lessSwap{less, swap}, 0, length, limit)
}

// SliceStable sorts the slice x using the provided less
// function, keeping equal elements in their original order.
// It panics if x is not a slice.
//
// The less function must satisfy the same requirements as
// the Interface type's Less method.
//

func (r errorReader) Close() error {
	return r.error
}

// readSeekerFromReader converts an io.Reader into an io.ReadSeeker.
// In general Seek may not be efficient, but it is optimized for
// common cases such as seeking to the end to find the length of the
// data.
type readSeekerFromReader struct {
	reset  func() (io.Reader, error)
	r      io.Reader
	size   int64
	offset int64
}

func (r *readSeekerFromReader) start() {