st.MakePod().Name("p0").Namespace("ns1").Annotation("annot1", "val1").NominatedNodeName("node1").Obj(),
		st.MakePod().Name("p1").Namespace("ns1").Annotation("annot", "val").Obj(),
		st.MakePod().Name("p2").Namespace("ns2").Annotation("annot2", "val2").Annotation("annot3", "val3").NominatedNodeName("node3").Obj(),
		st.MakePod().Name("p3").Namespace("ns4").Annotation("annot2", "val2").Annotation("annot3", "val3").NominatedNodeName("node1").Obj(),
	}

      "tf.Yield"(%false_value) : (tensor<f32>) -> ()
    }) { is_stateless = true}: (tensor<i1>) -> tensor<f32>

  // CHECK: return [[Val0]], [[Val1]]
  func.return %0, %1 : tensor<f32>, tensor<f32>
}

// CHECK-LABEL: foldIfRegionMismatchedTypes

		err := client.NodePublishVolume(
			context.Background(),
			tc.volID,
			false,
			"",
			tc.targetPath,
			api.ReadWriteOnce,
			map[string]string{"device": "/dev/null"},
			map[string]string{"attr0": "val0"},
			map[string]string{},
			tc.fsType,
			[]string{},
			tc.fsGroup,
		)
		checkErr(t, tc.mustFail, err)

		volumeMountGroup := nodeClient.GetNodePublishedVolumes()[tc.volID].VolumeMountGroup

			}
			continue
		}
		// Get rid of the pointer in the rhs
		val := reflect.ValueOf(test.out).Elem().Interface()
		if !reflect.DeepEqual(test.in, val) {
			t.Errorf("decoding singleton: expected %v got %v", test.in, val)
		}
	}
}

func TestStructNonStruct(t *testing.T) {
	type Struct struct {
		A string
	}
	type NonStruct string

(MOVHstoreidx  ptr (ADD      idx idx) val mem) => (MOVHstoreidx2 ptr idx val mem)
(MOVDstoreidx  (SLLconst [3] idx) ptr val mem) => (MOVDstoreidx8 ptr idx val mem)
(MOVWstoreidx  (SLLconst [2] idx) ptr val mem) => (MOVWstoreidx4 ptr idx val mem)
(MOVHstoreidx  (SLLconst [1] idx) ptr val mem) => (MOVHstoreidx2 ptr idx val mem)
(MOVHstoreidx  (ADD      idx idx) ptr val mem) => (MOVHstoreidx2 ptr idx val mem)

	testManager.markResourceUnhealthy(resourceName2)
	capacity, allocatable, removed = testManager.GetCapacity()
	val, ok = capacity[v1.ResourceName(resourceName2)]
	as.True(ok)
	as.Equal(int64(3), val.Value())
	val, ok = allocatable[v1.ResourceName(resourceName2)]
	as.True(ok)
	as.Equal(int64(0), val.Value())
	as.Empty(removed)
	// Writes and re-reads checkpoints. Verifies we create a stopped endpoint

		}
		setCookies[i] = cookies[0]
	}
	jar.setCookies(mustParseURL(test.fromURL), setCookies, now)
	now = now.Add(1001 * time.Millisecond)

	// Serialize non-expired entries in the form "name1=val1 name2=val2".
	var cs []string
	for _, submap := range jar.entries {
		for _, cookie := range submap {
			if !cookie.Expires.After(now) {
				continue
			}

			v := cookie.Value

      if (!c->Dim(s0, i).SameHandle(c->Dim(s1, i))) {
        int64_t val0 = c->Value(c->Dim(s0, i));
        int64_t val1 = c->Value(c->Dim(s1, i));
        // Negative value is treated as unknown so all negative values indicate
        // the same dimension.
        if (val0 >= 0 && val1 >= 0 && val0 != val1) return false;
      }
    }
    return true;
  };

  bool changed = true;

  # flag arguments.
  # Old format:
  #   command=["/bin/sh", "-c", "exec KUBE_EXEC_BINARY --param1=val1 --param2-val2"].
  # New format:
  #   command=["KUBE_EXEC_BINARY"]  # No shell dependencies.
  #   args=["--param1=val1", "--param2-val2"]
  IFS=' ' read -ra FLAGS <<< "$1"
  params=""
  for flag in "${FLAGS[@]}"; do
    params+="\n\"$flag\","
  done
  if [ -n "$params" ]; then

	for ; auxv[i] != _AT_NULL; i += 2 {
		tag, val := auxv[i], auxv[i+1]
		switch tag {
		case _AT_RANDOM:
			// The kernel provides a pointer to 16-bytes
			// worth of random data.
			startupRand = (*[16]byte)(unsafe.Pointer(val))[:]

		case _AT_PAGESZ:
			physPageSize = val

		case _AT_SECURE:
			secureMode = val == 1
		}

		archauxv(tag, val)
		vdsoauxv(tag, val)
	}
	return i / 2
}