}

					// Poison a.Target to catch uses later in the build.
					a.Target = "DO NOT USE - main build pseudo-cache Target"
					a.built = "DO NOT USE - main build pseudo-cache built"
					if a.json != nil {
						a.json.BuildID = a.buildID
					}
					return true
				}
				// Otherwise restore old build ID for main build.
				a.buildID = oldBuildID
			}
		}
	}

        // Though we don't consider the path `input` as an input to the build, since it is a parent of the declared input
        // `input/marker`. So we don't trigger a rebuild.
        exitsContinuousBuildSinceNotWatchingAnyLocationsExceptForConfigCache()
    }

    def "does not detect changes when no snapshotting happens (#description)"() {

//         |             /
//      subgraph5 (GPU)
//         |
//      subgraph6 (CPU)
//
// The overall workflow of the pick subgraphs pass:
//  1) Build subgraphs
//    1.1) Collect output subgraphs.
//    1.2) Build `Subgraph` and their "alternative view" from FuncOp.
//  2) Pick subgraphs
//    2.1) Populate the "dp table" for (subgraph, hardware).
//    2.2) Make decisions based on the populated dp table.

		visitQueue   = newQueue(len(p.Inst))
		check        func(uint32, []bool) bool
		onePassRunes = make([][]rune, len(p.Inst))
	)

	// check that paths from Alt instructions are unambiguous, and rebuild the new
	// program as a onepass program
	check = func(pc uint32, m []bool) (ok bool) {
		ok = true
		inst := &p.Inst[pc]
		if visitQueue.contains(pc) {
			return
		}
		visitQueue.insert(pc)

        file("api/build.gradle") << "configurations { api }"
        file("impl/build.gradle") << """
            configurations { util }
            dependencies { util project(path: ':api', configuration: 'api') }
            task build(dependsOn: configurations.util)
        """

        when:
        inDirectory("impl")
        run("build")

        then:

  };
  SmallVector<Type, 4> new_result_types;
  for (OpResult result : op->getResults()) {
    if (can_eliminate(result)) continue;
    new_result_types.push_back(result.getType());
  }

  // Rebuild the new operation with lesser number of results.
  OpBuilder builder(op);
  Operation *new_op = Operation::create(
      op->getLoc(), op->getName(), new_result_types, op->getOperands(),

        List<ArtifactRepository> pomRepositories = null;

        Artifact pomArtifact;

        Artifact relocatedArtifact = null;

        // TODO hack: don't rebuild model if it was already loaded during reactor resolution
        RepositorySystemSession repositorySession = legacySupport.getRepositorySession();
        final WorkspaceReader workspace = repositorySession.getWorkspaceReader();

	if bytes.HasPrefix(data, []byte("!<arch>\n")) {
		// Change last digit of build ID.
		// (Content ID in the new content-based build IDs.)
		const marker = `build id "`
		i := bytes.Index(data, []byte(marker))
		if i < 0 {
			t.Fatal("cannot find build id in archive")
		}
		j := bytes.IndexByte(data[i+len(marker):], '"')
		if j < 0 {
			t.Fatal("cannot find build id in archive")
		}
		i += len(marker) + j - 1

  )
done


# Phase 7: update internal modules
kube::log::status "vendor: updating internal modules" >&11
hack/update-internal-modules.sh


# Phase 8: rebuild vendor directory
(
  kube::log::status "vendor: running 'go work vendor'" >&11
  unset GOWORK
  unset GOFLAGS
  go work vendor
)

kube::log::status "vendor: updating vendor/LICENSES" >&11

				cancel()
				sys.hMutex.Lock()
				sys.hc = m
				sys.hMutex.Unlock()
			}
			hcTimer.Reset(defaultHealthCheckDuration)
		case <-ctx.Done():
			return
		}
	}
}

// periodically rebuild the healthCheck map from list of targets to clear
// out stale endpoints
func (sys *BucketTargetSys) reloadHealthCheckers(ctx context.Context) {
	m := make(map[string]epHealth)
	tgts := sys.ListTargets(ctx, "", "")