// emitting calls to write barriers. The main write barrier for
// individual pointer writes is gcWriteBarrier and is implemented in
// assembly. This file contains write barrier entry points for bulk
// operations. See also mwbbuf.go.

package runtime

import (
	"internal/abi"
	"internal/goarch"
	"internal/goexperiment"
	"unsafe"
)

// Go uses a hybrid barrier that combines a Yuasa-style deletion

| `minio_cluster_erasure_set_write_tolerance`      | `gauge` | No of drive failures that can be tolerated without disrupting write operations    | `pool_id,set_id` |
| `minio_cluster_erasure_set_read_health`          | `gauge` | Health of the erasure set in a pool for read operations (1=healthy, 0=unhealthy)  | `pool_id,set_id` |

import org.gradle.internal.management.DependencyResolutionManagementInternal;
import org.gradle.internal.operations.BuildOperationExecutor;
import org.gradle.internal.operations.BuildOperationProgressEventEmitter;
import org.gradle.internal.operations.BuildOperationRunner;
import org.gradle.internal.operations.CurrentBuildOperationRef;
import org.gradle.internal.reflect.Instantiator;

        } else {
          assertThat(numSuccessfulSetCalls.get()).isEqualTo(1);
        }
      } else {
        assertThat(numSuccessfulSetCalls.get()).isEqualTo(1);
      }
      // reset for next iteration
      numSuccessfulSetCalls.set(0);
      finalResults.clear();
    }
    executor.shutdown();
  }

  // setFuture and cancel() interact in more complicated ways than the other setters.

            ProjectConnection connection ->
                connection.newBuild().forTasks('publish')
                    .addProgressListener(events).run()
        }

        then:
        def roots = events.operations.findAll { it.parent == null }.collect { it.descriptor.name }

        roots == [
            "Run build",
            "Download ${module.rootMetaData.uri}",
            "Download ${module.rootMetaData.sha1.uri}",

      } catch (UnsupportedOperationException expected) {
      }
    }
  }

  /**
   * Asserts that two iterators contain elements in tandem.
   *
   * <p>This test only works with iterators that iterate over a finite set.
   */
  public static void assertIteratorsInOrder(
      Iterator<?> expectedIterator, Iterator<?> actualIterator) {
    int i = 0;

			// suspended and deschedule?
			return suspendGState{g: gp, stopped: stopped}

		case _Grunning:
			// Optimization: if there is already a pending preemption request
			// (from the previous loop iteration), don't bother with the atomics.
			if gp.preemptStop && gp.preempt && gp.stackguard0 == stackPreempt && asyncM == gp.m && asyncM.preemptGen.Load() == asyncGen {
				break
			}

     * not in {@link #nextElements}, this method throws an {@link UnknownElementException}.
     *
     * <p>This method is used when testing iterators without a known ordering. We poll the target
     * iterator's next element and pass it to the reference iterator through this method so it can

      } catch (UnsupportedOperationException expected) {
      }
    }
  }

  /**
   * Asserts that two iterators contain elements in tandem.
   *
   * <p>This test only works with iterators that iterate over a finite set.
   */
  public static void assertIteratorsInOrder(
      Iterator<?> expectedIterator, Iterator<?> actualIterator) {
    int i = 0;

		panic(runtime.panicrangestate(abi.RF_MISSING_PANIC))
	}
	#stateN = abi.RF_EXHAUSTED

(3) at the beginning of the iteration of the loop body,

	if #stateN != abi.RF_READY { runtime.panicrangestate(#stateN) }
	#stateN = abi.RF_PANIC

(4) when loop iteration continues,

	#stateN = abi.RF_READY
	[return true]

(5) when control flow exits the loop body.

	#stateN = abi.RF_DONE