GoBlock dt=65 reason_string=15 stack=5
GoStart dt=26 g=130 g_seq=1
ProcStatus dt=380 p=38 pstatus=2
ProcStatus dt=4 p=39 pstatus=2
ProcStatus dt=4 p=40 pstatus=2
ProcStatus dt=3 p=41 pstatus=2
ProcStatus dt=5 p=42 pstatus=2
ProcStatus dt=5 p=43 pstatus=2
ProcStatus dt=2 p=44 pstatus=2
ProcStatus dt=3 p=45 pstatus=2
ProcStatus dt=4 p=46 pstatus=2
GoStop dt=1488 reason_string=16 stack=15
GoUnblock dt=17 g=51 g_seq=45 stack=0

	var states []string
	if obj.DeletionTimestamp != nil {
		states = append(states, "deleted")
	}
	if obj.Status.Allocation == nil {
		if obj.DeletionTimestamp == nil {
			states = append(states, "pending")
		}
	} else {
		states = append(states, "allocated")
		if len(obj.Status.ReservedFor) > 0 {
			states = append(states, "reserved")

	}
	latestPeerName = info.Sites[latestID].Name
	// heal policy of peers if peer does not have it.
	for dID, pStatus := range us {
		if dID == globalDeploymentID() {
			continue
		}
		if !pStatus.PolicyMismatch && pStatus.HasPolicyMapping {
			continue
		}
		if isPolicyMappingEqual(pStatus.userPolicy, latestUserStat.userPolicy) {
			continue
		}
		peerName := info.Sites[dID].Name

within, and the interior blue without and red within. These are the Phænomena of thick convexo-concave Plates of Glass, which are every where of the same thickness. There are yet other Phænomena when these Plates are a little thicker on one side than on the other, and others when the Plates are more or less concave than convex, or plano-convex, or double-convex. For in all these cases the Plates make Rings of Colours, but after various manners; all which, so far as I have yet observed, follow from...

ProcStatus dt=56 p=0 pstatus=1
GoStatus dt=4 g=1 m=1709038 gstatus=2
ProcsChange dt=184 procs_value=8 stack=1
STWBegin dt=81 kind_string=21 stack=2
HeapGoal dt=5 heapgoal_value=4194304
ProcStatus dt=2 p=1 pstatus=2
ProcStatus dt=1 p=2 pstatus=2
ProcStatus dt=1 p=3 pstatus=2
ProcStatus dt=1 p=4 pstatus=2
ProcStatus dt=1 p=5 pstatus=2
ProcStatus dt=1 p=6 pstatus=2

(Trunc       ...) => (FRINTZD ...)
(FMA       x y z) => (FMADDD z x y)

(Sqrt32 ...) => (FSQRTS ...)

(Min(64|32)F ...) => (FMIN(D|S) ...)
(Max(64|32)F ...) => (FMAX(D|S) ...)

// lowering rotates
// we do rotate detection in generic rules, if the following rules need to be changed, check generic rules first.
(RotateLeft8  <t> x (MOVDconst [c])) => (Or8 (Lsh8x64 <t> x (MOVDconst [c&7])) (Rsh8Ux64 <t> x (MOVDconst [-c&7])))

	if err := <-shutdownRes; err != nil {
		t.Fatalf("Shutdown: %v", err)
	}
	<-gotOnShutdown // Will hang if RegisterOnShutdown is broken.

	if states := <-statesRes; states[StateActive] != 1 {
		t.Errorf("connection in wrong state, %v", states)
	}
}

func TestServerShutdownStateNew(t *testing.T) { run(t, testServerShutdownStateNew) }
func testServerShutdownStateNew(t *testing.T, mode testMode) {

      // TODO: b/326332748 - For forward convolution in transpose_conv,
      // IsSamePadding calculation may need to be updated.
      // Reference: https://arxiv.org/pdf/1603.07285.pdf
      // Section 4.6 > Relationship 13 states `stride_dim = dilation + 1`.
      rewriter.replaceOpWithNewOp<TFL::TransposeConvOp>(
          // op result should be recasted to desired quantized type.
          op, output_type, /*output_shape=*/

      // The reduce function __reduce_func has 36 arguments, and the source of those arguments are listed below:
      //   [arg0, arg5]:   these are states coming from ReduceDatasetOp's [arg1, arg6]
      //   [arg6: arg14]:  these are the input elements coming from the output of %51:9
      //   [arg15: arg35]: these are the captured elements from ReduceDatasetOp's [arg7:arg27]

// Some macros

// ROL rotates the uint32s in register R left by N bits, using temporary T.
#define ROL(N, R, T) \
	MOVO R, T; PSLLL $(N), T; PSRLL $(32-(N)), R; PXOR T, R

// ROL16 rotates the uint32s in register R left by 16, using temporary T if needed.
#ifdef GOAMD64_v2
#define ROL16(R, T) PSHUFB ·rol16<>(SB), R
#else