imageType = it
	}

	return imageURL(global.GetHub(), imageName, tag, imageType)
}

func InboundTrafficPolicyMode(meshConfig *meshconfig.MeshConfig) string {
	switch meshConfig.GetInboundTrafficPolicy().GetMode() {
	case meshconfig.MeshConfig_InboundTrafficPolicy_LOCALHOST:
		return "localhost"
	case meshconfig.MeshConfig_InboundTrafficPolicy_PASSTHROUGH:
		return "passthrough"
	}
	return "passthrough"
}

}

func (x *LoadBalancing) GetRoutingPreference() []LoadBalancing_Scope {
	if x != nil {
		return x.RoutingPreference
	}
	return nil
}

func (x *LoadBalancing) GetMode() LoadBalancing_Mode {
	if x != nil {
		return x.Mode
	}
	return LoadBalancing_UNSPECIFIED_MODE
}

// Workload represents a workload - an endpoint (or collection behind a hostname).

		port := int(instance.Port.TargetPort)
		clustersToBuild[port] = append(clustersToBuild[port], instance)
	}

	bind := actualLocalHosts[0]
	if cb.req.Push.Mesh.GetInboundTrafficPolicy().GetMode() == meshconfig.MeshConfig_InboundTrafficPolicy_PASSTHROUGH {
		bind = ""
	}
	// For each workload port, we will construct a cluster
	for epPort, instances := range clustersToBuild {

			kl.containerRuntimeReadyExpected = true
		}
	}()

	if timeout {
		klog.ErrorS(nil, "Node not becoming ready in time after startup")
		return true
	}

	originalNode, err := kl.GetNode()
	if err != nil {
		klog.ErrorS(err, "Error getting the current node from lister")
		return false
	}

	readyIdx, originalNodeReady := nodeutil.GetNodeCondition(&originalNode.Status, v1.NodeReady)

		// based on the match port/server port and the gateway name
		for _, tcp := range vsvc.Tcp {
			if l4MultiMatch(tcp.Match, server, gateway) {
				includeMx := server.GetTls().GetMode() == networking.ServerTLSSettings_ISTIO_MUTUAL
				return lb.buildOutboundNetworkFilters(tcp.Route, port, v.Meta, includeMx)
			}
		}
	}

	return nil
}

  if (nullptr == model_ptr) {
    return emitError(base_loc, "couldn't parse flatbuffer"), nullptr;
  }

  std::unique_ptr<ModelT> model(model_ptr->GetModel()->UnPack());

  auto builder = Builder(context);

  tflite::ModelControlDependencies model_control_dependencies(
      model->subgraphs.size());

  bool use_stablehlo_constant = false;

- link:{javadocPath}/org/gradle/api/file/CopyProcessingSpec.html#setDirMode-java.lang.Integer-[CopyProcessingSpec.setDirMode]
- link:{javadocPath}/org/gradle/api/file/FileTreeElement.html#getMode--[FileTreeElement.getMode]
- link:{javadocPath}/org/gradle/api/file/FileCopyDetails.html#setMode-int-[FileCopyDetails.setMode]

[[directory_build_cache_retention_deprecated]]

        PomTestWrapper pom = buildPom("inherited-properties-interpolation/active-profile/sub");

        assertEquals(1, pom.getMavenProject().getModel().getProfiles().size());

        buildPom("inherited-properties-interpolation/active-profile/sub", "it-parent", "it-child");
        assertEquals("CHILD", pom.getValue("properties/overridden"));

			defer testKubelet.Cleanup()
			kubelet := testKubelet.kubelet
			// Ensure we capture actions on the heartbeat client only.
			// We don't set it to nil or GetNode() doesn't read from nodeLister.
			kubelet.kubeClient = &fake.Clientset{}
			kubeClient := testKubelet.fakeKubeClient

			node := &v1.Node{
				ObjectMeta: metav1.ObjectMeta{

    new_result_types.push_back(valid_output_type);

    auto nmsv4 = CreateTfOp<TF::NonMaxSuppressionV4Op>(
        rewriter, nms_op, new_result_types, nms_op.getBoxes(),
        nms_op.getScores(), nms_op.getMaxOutputSize(), nms_op.getIouThreshold(),
        nms_op.getScoreThreshold());
    // Cannot replace the NMSv3 Op with NMSv4 since the outputs between the