}
}

func TestSize(t *testing.T) {
	c := New()
	if got := c.Size(); got != Size {
		t.Errorf("Size = %d; want %d", got, Size)
	}
	c = New224()
	if got := c.Size(); got != Size224 {
		t.Errorf("New224.Size = %d; want %d", got, Size224)
	}
}

func TestBlockSize(t *testing.T) {
	c := New()
	if got := c.BlockSize(); got != BlockSize {

			default:
				pub.Curve = nil
			}

			switch hash {
			case "SHA-1":
				h = sha1.New()
			case "SHA-224":
				h = sha256.New224()
			case "SHA-256":
				h = sha256.New()
			case "SHA-384":
				h = sha512.New384()
			case "SHA-512":
				h = sha512.New()
			default:
				h = nil
			}

			continue
		}

		if h == nil || pub.Curve == nil {
			continue

	// further move the stack.
	new2 := uintptr(unsafe.Pointer(new))

	t.Logf("old stack pointer %x, new stack pointer %x", old, new2)
	if new2 == old {
		// Check that we didn't screw up the test's escape analysis.
		if cls := runtime.GCTestPointerClass(unsafe.Pointer(new)); cls != "stack" {
			t.Fatalf("test bug: new (%#x) should be a stack pointer, not %s", new2, cls)
		}
		// This was a real failure.

    EXPECT_LT(max_error, 1e-3f);
  }

  float RV(const std::vector<float>& v) {
    return v[random::New64() % v.size()];
  }

  complex64 CRV(const std::vector<complex64>& v) {
    return v[random::New64() % v.size()];
  }

  complex64 conjugate(const complex64& val) {
    return complex64(val.real(), -val.imag());
  }

  Scope scope_;
};

	}

	// Code changed, but not selected, price should not change
	DB.Model(&product).Select("Name", "Price").Updates(map[string]interface{}{"Name": "Product New2", "code": "L1213"})

	if product.Name != "Product New2" || product.Price != 170 || product.Code != "L1212" {
		t.Errorf("invalid data after update, got %+v", product)
	}

	// Code changed, price should changed

// the running container with its desired spec.
// Note: remember to update hashValues in container_hash_test.go as well.
func HashContainer(container *v1.Container) uint64 {
	hash := fnv.New32a()
	containerJSON, _ := json.Marshal(pickFieldsToHash(container))
	hashutil.DeepHashObject(hash, containerJSON)
	return uint64(hash.Sum32())
}

type nodeUpdateItem struct {
	nodeName string
}

type podUpdateItem struct {
	podName      string
	podNamespace string
	nodeName     string
}

func hash(val string, max int) int {
	hasher := fnv.New32a()
	io.WriteString(hasher, val)
	return int(hasher.Sum32() % uint32(max))
}

// GetPodsByNodeNameFunc returns the list of pods assigned to the specified node.

constexpr char kDefaultShardingValue[] = "";
constexpr char kMirroredVariableIndicesAttr[] = "_mirrored_variable_indices";

std::string GetRandomStateVariableName() {
  return absl::StrCat("VariablesFormatState_", tensorflow::random::New64());
}

#define GEN_PASS_DEF_TPUVARIABLERUNTIMEREFORMATTINGPASS
#include "tensorflow/compiler/mlir/tensorflow/transforms/host_runtime/runtime_passes.h.inc"

struct TPUVariableRuntimeReformattingPass

)

func fakePC(n ir.Node) ir.Node {
	// In order to get deterministic IDs, we include the package path, absolute filename, line number, column number
	// in the calculation of the fakePC for the IR node.
	hash := fnv.New32()
	// We ignore the errors here because the `io.Writer` in the `hash.Hash` interface never returns an error.
	io.WriteString(hash, base.Ctxt.Pkgpath)
	io.WriteString(hash, base.Ctxt.PosTable.Pos(n.Pos()).AbsFilename())

//
// The current algorithm to allocate IPs is deterministic across all istiods.
func autoAllocateIPs(services []*model.Service) []*model.Service {
	hashedServices := make([]*model.Service, maxIPs)
	hash := fnv.New32a()
	// First iterate through the range of services and determine its position by hash
	// so that we can deterministically allocate an IP.
	// We use "Double Hashning" for collision detection.
	// The hash algorithm is