//       .Attr("N: int >= 2")
//       .Attr("T: type");
// that defines two inputs, "concat_dim" and "values" (in that order).
// You must use TF_AddInput() for the first input (since it takes a
// single tensor), and TF_AddInputList() for the second input (since
// it takes a list, even if you were to pass a list with a single
// tensor), as in:
//   TF_OperationDescription* desc = TF_NewOperation(graph, "Concat", "c");

    TypeToken<First<String>> tokenF = new TypeToken<First<String>>() {};
    assertTrue(tokenF.isSupertypeOf(new TypeToken<Second<String>>() {}));
    assertTrue(tokenF.isSupertypeOf(new TypeToken<Third<String, Integer>>() {}));
    assertFalse(tokenF.isSupertypeOf(new TypeToken<Third<Integer, String>>() {}));
    assertTrue(tokenF.isSupertypeOf(new TypeToken<Fourth<Integer, String>>() {}));

    TypeToken<First<String>> tokenF = new TypeToken<First<String>>() {};
    assertTrue(tokenF.isSupertypeOf(new TypeToken<Second<String>>() {}));
    assertTrue(tokenF.isSupertypeOf(new TypeToken<Third<String, Integer>>() {}));
    assertFalse(tokenF.isSupertypeOf(new TypeToken<Third<Integer, String>>() {}));
    assertTrue(tokenF.isSupertypeOf(new TypeToken<Fourth<Integer, String>>() {}));

)

# This condition takes precedence over :linux_x86_64
config_setting(
    name = "linux_x86_64_no_sse",
    constraint_values =
        [
            "@platforms//cpu:x86_64",
            "@platforms//os:linux",
        ],
    values = {
        "copt": "-mno-sse4.2",
    },
    visibility = ["//visibility:public"],
)

# This condition takes precedence over :linux_x86_64

     */
    task.addListener(() -> scheduled.cancel(false), directExecutor());
    return task;
  }

  /**
   * Returns a {@code Future} whose result is taken from the given primary {@code input} or, if the
   * primary input fails with the given {@code exceptionType}, from the result provided by the

		scred := su.Credentials
		if scred.ParentUser != parentUser {
			return updatedAt, fmt.Errorf("%w: the service account access key is taken by another user", errIAMServiceAccountNotAllowed)
		}
		return updatedAt, fmt.Errorf("%w: the service account access key already taken", errIAMServiceAccountNotAllowed)
	}

	// Parent user must not be a service account.

		SourceMTime:        objInfo.ModTime,
		SourceETag:         objInfo.ETag,
		ReplicationRequest: true,
	}
	return putOpts, isMP, nil
}

// ListBatchJobs - lists all currently active batch jobs, optionally takes {jobType}
// input to list only active batch jobs of 'jobType'
func (a adminAPIHandlers) ListBatchJobs(w http.ResponseWriter, r *http.Request) {
	ctx := r.Context()

    val response1 = responses.take()
    assertThat(response1).isEqualTo("")
    assertThat(server.takeRequest().exchangeIndex).isEqualTo(0)

    // Now make the second request which will restrict the first HTTP/2 connection from creating new
    // streams.
    client.newCall(request).enqueue(callback)
    val response2 = responses.take()
    assertThat(response2).isEqualTo("DEF")

					return poolIdx, setIdx, i, nil
				}
			}
		}
	}
	return -1, -1, -1, fmt.Errorf("DriveID(%s) %w", id, errDiskNotFound)
}

const (
	vmware = "VMWare"
)

// HealthOptions takes input options to return specific information
type HealthOptions struct {
	Maintenance    bool
	DeploymentType string
	NoLogging      bool
}

// HealthResult returns the current state of the system, also

   * value, you should always choose it explicitly.
   *
   * <p>The current implementation uses the concurrency level to create a fixed number of hashtable
   * segments, each governed by its own write lock. The segment lock is taken once for each explicit
   * write, and twice for each cache loading computation (once prior to loading the new value, and
   * once after loading completes). Much internal cache management is performed at the segment