}

var subPool = &sync.Pool{}

func (c *client) sendMsgToGateways(acc *Account, msg, subject, reply []byte, qgroups [][]byte) {
	var gws []*client
	gw := c.srv.gateway
	for i := 0; i < len(gw.outo); i++ {
		gws = append(gws, gw.outo[i])
	}
	var (
		subj       = string(subject)
		queuesa    = [512]byte{}
		queues     = queuesa[:0]
		mreply     []byte
		dstPfx     []byte
		checkReply = len(reply) > 0
	)

    auto out1 = ops::XlaClusterOutput(scope.WithOpName("Out1"), e);
    auto out2 = ops::XlaClusterOutput(scope.WithOpName("Out2"), g);
    auto out3 = ops::XlaClusterOutput(scope.WithOpName("Out3"), read_u);

    auto consumer0_a = ops::Identity(scope.WithOpName("consumer0_a"), out0);
    auto consumer0_b = ops::Identity(scope.WithOpName("consumer0_b"), out0);
    auto consumer0_c = ops::Identity(scope.WithOpName("consumer0_c"), out0);

    // Construct forward graph.
    auto a = Const(scope, 1, {4, 2});
    auto b = Const(scope, 2, {4, 2});
    auto c = Const(scope, 3, {4, 2});

    auto pack = Stack(scope, {a, b, c});
    auto unpack = Unstack(scope, pack.output, 3);
    TF_ASSERT_OK(scope.status());

    // Construct grad inputs.
    auto dx = Const(scope, 4, {4, 2});
    auto dy = Const(scope, 5, {4, 2});

// We will only calculate for the "necessary" tensor transferred.
// from_graph & to_graph are used to compute the "necessary" tensors.
//     from_graph
//    /    \   \
//  out1   out2  out3
//           \   /
//           to_graph
// So only out2 & out3 are counted.
float GetTransferCost(const std::string& from_hardware_str,
                      const std::string& to_hardware_str,

apiVersion: networking.istio.io/v1alpha3
kind: ServiceEntry
metadata:
  name: proxy-service-instance
spec:
  hosts:
  - example.com
  ports:
  - number: 7070
    name: auto
    protocol: ""
  resolution: STATIC
  location: MESH_INTERNAL
  endpoints:
  - address: 1.1.1.1
    labels:
      security.istio.io/tlsMode: istio
---
# Set up .Services number of services.

			if err != nil {
				return nil, err
			}
			outbuf[out4] = byte(t4 >> 8)
			out4++
			rbr4.cnt -= uint32(t4 & 0xff)
		}

		outbuf[out1] = byte(t1 >> 8)
		out1++
		rbr1.cnt -= uint32(t1 & 0xff)

		outbuf[out2] = byte(t2 >> 8)
		out2++
		rbr2.cnt -= uint32(t2 & 0xff)

		outbuf[out3] = byte(t3 >> 8)
		out3++
		rbr3.cnt -= uint32(t3 & 0xff)
	}

	return outbuf, nil

package crypto

import (
	"github.com/minio/minio/internal/config"
	"github.com/minio/pkg/v3/env"
)

const (
	// EnvKMSAutoEncryption is the environment variable used to en/disable
	// SSE-S3 auto-encryption. SSE-S3 auto-encryption, if enabled,
	// requires a valid KMS configuration and turns any non-SSE-C
	// request into an SSE-S3 request.
	// If present EnvAutoEncryption must be either "on" or "off".

    metadata:
      annotations:
        inject.istio.io/templates: gateway
      labels:
        istio: ingressgateway
    spec:
      containers:
        - name: istio-proxy
          image: auto
---
# No image auto, should not produce error!
apiVersion: v1
kind: Pod
metadata:
  name: istiod-canary-1234567890-12345
  namespace: istio-system
  labels:
    app: istiod
    istio: pilot

	"istio.io/istio/pkg/config/schema/gvk"
)

// ImageAutoAnalyzer reports an error if Pods and Deployments with `image: auto` are not going to be injected.
type ImageAutoAnalyzer struct{}

var _ analysis.Analyzer = &ImageAutoAnalyzer{}

const (
	istioProxyContainerName = "istio-proxy"
	manualInjectionImage    = "auto"
)

// Metadata implements Analyzer.
func (a *ImageAutoAnalyzer) Metadata() analysis.Metadata {

         > No locally installed toolchains match and toolchain auto-provisioning is not enabled....