kubeproxyconfig "k8s.io/kubernetes/pkg/proxy/apis/config"
	"k8s.io/kubernetes/pkg/proxy/util/nfacct"
)

const kubeProxySubsystem = "kubeproxy"

var (
	// SyncProxyRulesLatency is the latency of one round of kube-proxy syncing proxy
	// rules. (With the iptables proxy, this includes both full and partial syncs.)
	SyncProxyRulesLatency = metrics.NewHistogram(
		&metrics.HistogramOpts{
			Subsystem:      kubeProxySubsystem,

  public void remove(Range<K> rangeToRemove) {
    if (rangeToRemove.isEmpty()) {
      return;
    }

    /*
     * The comments for this method will use [ ] to indicate the bounds of rangeToRemove and ( ) to
     * indicate the bounds of ranges in the range map.
     */
    Entry<Cut<K>, RangeMapEntry<K, V>> mapEntryBelowToTruncate =
        entriesByLowerBound.lowerEntry(rangeToRemove.lowerBound);

    // CHECK-SAME: (tensor<?xf32, #mhlo.type_extensions<bounds = [4]>>) -> tensor<?xf32, #mhlo.type_extensions<bounds = [4]>>
    %1 = "tf.ReverseV2"(%0, %axis) : (tensor<?xf32>, tensor<1xi32>) -> tensor<?xf32>

    // CHECK: %[[RESULT:.*]] = tensor.cast %[[REVERSED]] : tensor<?xf32, #mhlo.type_extensions<bounds = [4]>> to tensor<?xf32>
    // CHECK: return %[[RESULT]] : tensor<?xf32>

		insertb = h.newoverflow(t, b)
		inserti = 0 // not necessary, but avoids needlessly spilling inserti
	}
	insertb.tophash[inserti&(abi.MapBucketCount-1)] = tophash(hash) // mask inserti to avoid bounds checks

	insertk = add(unsafe.Pointer(insertb), dataOffset+inserti*4)
	// store new key at insert position
	*(*uint32)(insertk) = key

	h.count++

done:

  //
  // T& argN(...dim indices...)
  //   Returns a reference to the value of type T for positional argument N,
  //   with dim indices specifying which value. No bounds checking is performed
  //   on dim indices.

  void set_arg0_data(const void* data) {
    set_arg_data(0, data);
  }
  float* arg0_data() {
    return static_cast<float*>(arg_data(0));
  }

    const float real_value = expressed_value.convertToFloat();

    const double scaled = real_value / scale_double_ + zero_point_double_;
    // Round to nearest integer with halfway cases rounded away from zero.
    const double scaled_rounded = std::round(scaled);
    const double clamped = std::min(std::max(scaled_rounded, clamp_min_double_),
                                    clamp_max_double_);

		dstPix, stride, rect = target.Pix, target.Stride, target.Rect
		bytesPerPixel = 8
	}
	s, bounds := 0, src.Bounds()
	for y := bounds.Min.Y; y < bounds.Max.Y; y++ {
		dBase := (y*p.yFactor+p.yOffset-rect.Min.Y)*stride + (p.xOffset-rect.Min.X)*bytesPerPixel
		for x := bounds.Min.X; x < bounds.Max.X; x++ {
			d := dBase + x*p.xFactor*bytesPerPixel
			copy(dstPix[d:], srcPix[s:s+bytesPerPixel])
			s += bytesPerPixel

//
// Bounds: [[0x0 ~> 0xffffffffffffffff], [0x0 ~> 0xffffffffffffffff], [0x0 ~> 0xffffffffffffffff], [0x0 ~> 0xffffffffffffffff]]
type p224MontgomeryDomainFieldElement [4]uint64

// The type p224NonMontgomeryDomainFieldElement is a field element NOT in the Montgomery domain.
//

	default:
		return offset
	}

	// only generate this code if needed
	if debug {
		panic(fmt.Sprintf("offset %d out of bounds [%d, %d] (position %d out of bounds [%d, %d])",
			0 /* for symmetry */, offset, f.size,
			f.base+offset, f.base, f.base+f.size))
	}
	return 0
}

// Pos returns the Pos value for the given file offset.
//
// If offset is negative, the result is the file's start

	// Since the remainder is in the range [0, 2q), not [0, q), we need to
	// portion it into three spans for rounding.
	//
	//     [ 0,       q/2     ) -> round to 0
	//     [ q/2,     q + q/2 ) -> round to 1
	//     [ q + q/2, 2q      ) -> round to 2
	//
	// We can convert that to the following logic: add 1 if remainder > q/2,
	// then add 1 again if remainder > q + q/2.
	//