}
		if p.As == obj.APCALIGN || p.As == obj.APCALIGNMAX {
			v := obj.AlignmentPaddingLength(int32(p.Pc), p, c.ctxt)
			for i = 0; i < int(v/4); i++ {
				// emit ANOOP instruction by the padding size
				c.ctxt.Arch.ByteOrder.PutUint32(bp, OP_NOOP)
				bp = bp[4:]
				psz += 4
			}
		} else {
			c.asmout(p, o, out[:])
			for i = 0; i < sz/4; i++ {

		decorator   func(runtime.Object)
		beginUpdate func(context.Context, runtime.Object, runtime.Object, *metav1.UpdateOptions) (FinishFunc, error)
		afterUpdate AfterUpdateFunc
		// the TTLFunc is an easy hook to force an inner-loop retry
		ttl              func(obj runtime.Object, existing uint64, update bool) (uint64, error)
		expectError      bool
		expectMilestones []string // to test sequence
	}{{
		name: "inner retry success",

	return nil
}

func (p *ReplicationPool) startResyncRoutine(ctx context.Context, buckets []BucketInfo, objAPI ObjectLayer) {
	r := rand.New(rand.NewSource(time.Now().UnixNano()))
	// Run the replication resync in a loop
	for {
		if err := p.loadResync(ctx, buckets, objAPI); err == nil {
			<-ctx.Done()
			return
		}
		duration := time.Duration(r.Float64() * float64(time.Minute))
		if duration < time.Second {

		// racing idle-timeout).
		//
		// With unlucky and very stable scheduling (as may be the case with the fake wasm
		// net stack), this can result in an infinite retry loop that doesn't
		// propagate the error up far enough for us to adjust the WriteTimeout.
		//
		// To avoid that problem, we explicitly forbid internal retries by rejecting
		// them in a Proxy hook in the transport.

      %zero = arith.constant dense<0> : tensor<i32>
      %ne = "tf.NotEqual"(%carg1, %zero) : (tensor<i32>, tensor<i32>) -> tensor<i1>
      "tf.Yield"(%ne) : (tensor<i1>) -> ()
    },
    {
      // loop body
      ^bb0(%barg0: tensor<*xf32>, %barg1: tensor<i32>):
      %add = "tf.Add"(%barg0, %barg0) : (tensor<*xf32>, tensor<*xf32>) -> tensor<*xf32>
      %one = arith.constant dense<1> : tensor<i32>

            bodyRef.set(response.body.string())
          } catch (e: IOException) {
            // It is ok if this broke the stream.
            bodyRef.set("A")
            throw e // We expect to not loop into onFailure in this case.
          } finally {
            latch.countDown()
          }
        }
      },
    )
    latch.await()
    assertThat(bodyRef.get()).isEqualTo("A")

  }

  // Infers shape of tf.While/tf.WhileRegion. If `shape_invariant` attribute is
  // set, operand types are set as result types if associated body result types
  // match the operand type (does not change per loop iteration). If operand and
  // body result types are not the same, only handle types are propagated to
  // result types. This is necessary to not incorrectly change result shapes

    begin_int = std::min(begin_int, rank - 1);
    end_int = std::min(end_int, rank - 1);
  }

  SmallVector<int64_t, 2> sub_shape;
  // Only handle cases that have something to slice to avoid infinite for-loop.
  if ((end_int > begin_int && strides_int > 0) ||
      (end_int < begin_int && strides_int < 0)) {
    // Extract sub-shape only if all of those dimensions are static.

	connection       string
	transferEncoding string
	date             []byte // written if not nil
	contentLength    []byte // written if not nil
}

// Sorted the same as extraHeader.Write's loop.
var extraHeaderKeys = [][]byte{
	[]byte("Content-Type"),
	[]byte("Connection"),
	[]byte("Transfer-Encoding"),
}

var (
	headerContentLength = []byte("Content-Length: ")

		}
		if err != nil {
			t.Fatal(err)
		}
		t.Logf("read %q", s)
		if mode == "bottom" && numRows == 2 {
			// cancel before Next should be observed by Next, exiting the loop.
			// The sleep here is only to make it more likely that the cancel will be observed.
			// If not, the test should still pass, like in "go" mode.
			cancel()
			time.Sleep(100 * time.Millisecond)
		}