}

        then:
        events.operations.size() == 3
        events.trees == events.operations
        events.operations.every { it.successful }
        events.operation("Download ${projectFModuleMissing.pom.uri}").assertIsDownload(projectFModuleMissing.pom)
        events.operation("Download ${projectF2.pom.uri}").assertIsDownload(projectF2.pom)

}

bool HasDataDependencyWithUnscheduledOp(
    Operation& op, Block* block, SmallPtrSet<Operation*, 16>& unscheduled_ops) {
  WalkResult ready_to_schedule = op.walk([&](Operation* nested_op) {
    for (Value operand : nested_op->getOperands()) {
      Operation* defining_op = operand.getDefiningOp();
      if (!defining_op) continue;
      Operation* producer_in_block = block->findAncestorOpInBlock(*defining_op);

import org.gradle.internal.operations.BuildOperationCategory;
import org.gradle.internal.operations.BuildOperationDescriptor;
import org.gradle.internal.operations.BuildOperationIdFactory;
import org.gradle.internal.operations.BuildOperationMetadata;
import org.gradle.internal.operations.BuildOperationRef;
import org.gradle.internal.operations.CurrentBuildOperationRef;

import org.gradle.internal.logging.events.operations.LogEventBuildOperationProgressDetails
import org.gradle.internal.logging.events.operations.ProgressStartBuildOperationProgressDetails
import org.gradle.internal.logging.events.operations.StyledTextBuildOperationProgressDetails
import org.gradle.internal.operations.BuildOperationDescriptor
import org.gradle.internal.operations.BuildOperationListener

        def resolveArtifactB = events.operation("Resolve artifact projectB.jar (group:projectB:1.0)")
        def resolveArtifactC = events.operation("Resolve artifact projectC.jar (group:projectC:1.5)")
        def resolveArtifactD = events.operation("Resolve artifact projectD.jar (group:projectD:2.0-SNAPSHOT)")
        def downloadBMetadata = events.operation("Download ${server.uri}${projectB.pomPath}")

        }

        then:
        events.tasks.size() == 3

        def runTasks = events.operation("Run tasks")

        def t1 = events.operation("Task :para1")
        def t2 = events.operation("Task :para2")
        def t3 = events.operation("Task :parallelTasks")

        t1.parent == runTasks
        t2.parent == runTasks
        t3.parent == runTasks

        cleanup:

        tfg::SortTopologically(&block);
      }
    }
  }

  // Version information is embedded in graph operation in TFG. In TFE, it's
  // embedded in the module operation.
  for (auto &op : module.getBodyRegion().getOps()) {
    auto graph = dyn_cast<tfg::GraphOp>(op);
    if (!graph) continue;
    Builder b(&context);
    auto producer = b.getNamedAttr(

//
// The add operation, implemented by the AddT functions, is the atomic
// equivalent of:
//
//	*addr += delta
//	return *addr
//
// The load and store operations, implemented by the LoadT and StoreT
// functions, are the atomic equivalents of "return *addr" and
// "*addr = val".
//
// In the terminology of [the Go memory model], if the effect of
// an atomic operation A is observed by atomic operation B,

    It is the "**path operation decorator**".

You can also use the other operations:

* `@app.post()`
* `@app.put()`
* `@app.delete()`

And the more exotic ones:

* `@app.options()`
* `@app.head()`
* `@app.patch()`
* `@app.trace()`

!!! tip
    You are free to use each operation (HTTP method) as you wish.

// should only contain operations in tf dialect. If the input module contains
// operation in the tf_executor dialect, for example, returns an error.
// Exception to this are tf_executor dialect ops that are optimized away through
// canonicalization.
//
// Operations in tf dialect are lowered to XLA HLO through the following steps:
//   . Legalizes control flow operations.