// starts running, then tries to steal the P from the
	// first thread. The stealing is interesting because if
	// the parser handles GoDestroySyscall wrong, then we
	// have a self-steal here potentially that doesn't make
	// sense.
	b1 := g.Batch(trace.ThreadID(0), 0)
	b1.Event("ProcStatus", trace.ProcID(1), go122.ProcIdle)
	b1.Event("ProcStart", trace.ProcID(1), testgen.Seq(1))
	b1.Event("ProcSteal", trace.ProcID(0), testgen.Seq(3), trace.ThreadID(0))

// suitable for calling at very high frequency (such as during scheduling decisions)
// and at sensitive moments in the runtime (such as during stack unwinding).
// it is "cheap" in the sense of both expense and quality.
//
// cheaprand must not be exported to other packages:
// the rule is that other packages using runtime-provided
// randomness must always use rand.
//

// will replace the former. For -u extensions, though, the key-type pairs are
// added, where later values overwrite older ones. A Tag overwrites all former
// values and typically only makes sense as the first argument. The resulting
// tag is returned after canonicalizing using the Default CanonType. If one or
// more errors are encountered, one of the errors is returned.
func Compose(part ...interface{}) (t Tag, err error) {

 *
 * Further modification tracking is implemented with a subscription-based mechanism via [KotlinModificationTopics]. Modification trackers make the most
 * sense when there are many, possibly short-lived objects that need to be notified of a change. In such cases, subscriber management in the
 * message bus adds too much overhead.
 */

     *     or `Nothing` types (depending on the typing position). This can produce a lot of typing relationships which do not make any sense,
     *     such as `Int = UnresolvedClass`.
     *  2. It forces the user to handle error types explicitly, which reduces the risk of false positives.
     *  3. It is consistent with most of the behavior of the Kotlin compiler.

     * Returns the artifacts referenced by this dependency, if any.
     * When a dependency references artifacts, those artifacts are used in place of the default artifacts of the target component.
     * In most cases, it makes sense for this set to be empty, and for all of the artifacts of the target component to be included.
     */
    List<IvyArtifactName> getArtifacts();

    /**
     * Returns a copy of this dependency with the given target.

/**
 * Adapts a mutable module component resolve metadata instance into a form that is suitable
 * for mutation through the Gradle DSL: we don't want to expose all the resolve component
 * metadata methods, only those which make sense, and that we can reason about safely. The adapter
 * is responsible for targetting variants subject to a rule.
 */
public class VariantMetadataAdapter implements VariantMetadata {
    private final String variantName;

            result.append(
                if (Character.isWhitespace(ch)) ch
                else ' '
            )
        }
    }

    // TODO:partial-evaluator this doesn't make sense to be here
    val lastNonWhitespace = indexOfLast { !Character.isWhitespace(it) }
    if (lastNonWhitespace > result.length) {
        result.append(this, result.length, lastNonWhitespace + 1)
    }

     * All class names will be prefixed with {@link #PREDICATE_PACKAGE_PREFIX} when reading them up.
     * <p>
     * The csv is sudo in the sense, that you can comment by using "#"
     *
     * @param resource the resource file being used
     * @return a set of sets of strings representing the values in the file
     */

		}
		if entry == 0 {
			entry = pc
		}
		// Note that some platforms do ASLR, so the PCs in the disassembly
		// don't match PCs in the address space. Only offsets from function
		// entry make sense.
		unsafe := runtime.UnsafePoint(f.Entry() + uintptr(pc-entry))
		t.Logf("unsafe: %v\n", unsafe)
		instructionCount++
		if unsafe {
			unsafeCount++
		}