T("  0 pointer.\n");
T("\n");
T("  Field 1: the regex(3) flags to apply, one character per REG_feature\n");
T("  flag. The test is skipped if REG_feature is not supported by the\n");
T("  implementation. If the first character is not [BEASKLP] then the\n");
T("  specification is a global control line. One or more of [BEASKLP] may be\n");
T("  specified; the test will be repeated for each mode.\n");
T("\n");

import static org.gradle.api.internal.artifacts.configurations.ConfigurationInternal.InternalState.UNRESOLVED;
import static org.gradle.util.internal.ConfigureUtil.configure;

/**
 * The default {@link Configuration} implementation.
 */
@SuppressWarnings("rawtypes")
public abstract class DefaultConfiguration extends AbstractFileCollection implements ConfigurationInternal, MutationValidator, ResettableConfiguration {

	b := new(Int).SetBytes(bBytes)

	d := new(Int).GCD(x, y, a, b)
	x.Mul(x, a)
	y.Mul(y, b)
	x.Add(x, y)

	return x.Cmp(d) == 0
}

// euclidExtGCD is a reference implementation of Euclid's
// extended GCD algorithm for testing against optimized algorithms.
// Requirements: a, b > 0
func euclidExtGCD(a, b *Int) (g, x, y *Int) {
	A := new(Int).Set(a)
	B := new(Int).Set(b)

// advance their `virtualStart` (that is, R(next dispatch in virtual world))
// more slowly than the other queues (which are using more seats than they
// are allocated).  The implementation has a hack that addresses part of
// this imbalance but not all of it.  In this test, flow 1 can not use all
// of its allocation during the first half, and *can* (and does) use all of

				// where the runtime is still starting up and we request too early.
				// Give it a little more time.
				time.Sleep(time.Second * 2)
				continue
			}
			// CRI implementation doesn't support RuntimeConfig, fallback
			klog.InfoS("CRI implementation should be updated to support RuntimeConfig when KubeletCgroupDriverFromCRI feature gate has been enabled. Falling back to using cgroupDriver from kubelet config.")
			return nil
		}

	}
}

// Note: see comment in handshake_test.go for details of how the reference
// tests work.

// serverTest represents a test of the TLS server handshake against a reference
// implementation.
type serverTest struct {
	// name is a freeform string identifying the test and the file in which
	// the expected results will be stored.
	name string

    // ideographic space
    assertThat(parse("http://h/\u3000").encodedPath).isEqualTo("/%E3%80%80")
  }

  @Test
  fun newBuilderResolve() {
    // Non-exhaustive tests because implementation is the same as resolve.
    val base = parse("http://host/a/b")
    assertThat(base.newBuilder("https://host2")!!.build())
      .isEqualTo(parse("https://host2/"))
    assertThat(base.newBuilder("//host2")!!.build())

  /**
   * Test to ensure we don't  throw a read timeout on responses that are progressing.  For this
   * case, we take a 4KiB body and throttle it to 1KiB/second.  We set the read timeout to two
   * seconds.  If our implementation is acting correctly, it will not throw, as it is progressing.
   */
  @ParameterizedTest
  @ArgumentsSource(ProtocolParamProvider::class)
  fun readTimeoutMoreGranularThanBodySize(
    protocol: Protocol,

	}
}

// An onlyReader only implements io.Reader, no matter what other methods the underlying implementation may have.
type onlyReader struct {
	io.Reader
}

// An onlyWriter only implements io.Writer, no matter what other methods the underlying implementation may have.
type onlyWriter struct {
	io.Writer
}

// them is responsible.
//
// Matching that behavior for runtime-internal locks will require identifying
// which Ms are blocked on the mutex. The semaphore-based implementation is
// ready to allow that, but the futex-based implementation will require a bit
// more work. Until then, we report contention on runtime-internal locks with a
// call stack taken from the unlock call (like the rest of the user-space