// "RIGHT_LEFT".
    StringRef align = op->getAttrOfType<StringAttr>("align").getValue();
    enum Alignment { kLeft, kRight };

    // default is RIGHT_LEFT
    Alignment superdiagonal_align = kRight;
    Alignment subdiagonal_align = kLeft;

    if (align == "RIGHT_LEFT") {
      superdiagonal_align = kRight;
      subdiagonal_align = kLeft;
    } else if (align == "RIGHT_RIGHT") {

	getMD5 := getMD5Hash(getContent)

	// Compare putContent and getContent.
	c.Assert(putMD5, getMD5)
}

// TestGetPartialObjectMisAligned - tests get object partially miss-aligned.
// create a large buffer of miss-aligned data and upload it.
// then make partial range requests to while fetching it back and assert the response content.
func (s *TestSuiteCommon) TestGetPartialObjectMisAligned(c *check) {

				if !reflect.DeepEqual(tt.telemetry[cname], gotTelemetry) {
					t.Errorf("%v: expected telemetry services %v, got %v", cname, tt.telemetry[cname], gotTelemetry)
				}

				// simulate an actual call, this ensures we are aligned with the inbound listener configuration
				_, _, hostname, port := model.ParseSubsetKey(cname)
				if tt.proxy.Metadata.IstioVersion != "" {

// The main difference is that this approach means that the root project can also benefit from the `plugins {}` block and it is more aligned with Gradle best practices.
//
// [PL] We should also aim to avoid temporary information in the user manual that could
//      be out of date at any time.

		throw("elem size wrong")
	}
	if t.Key.Align_ > abi.MapBucketCount {
		throw("key align too big")
	}
	if t.Elem.Align_ > abi.MapBucketCount {
		throw("elem align too big")
	}
	if t.Key.Size_%uintptr(t.Key.Align_) != 0 {
		throw("key size not a multiple of key align")
	}
	if t.Elem.Size_%uintptr(t.Elem.Align_) != 0 {
		throw("elem size not a multiple of elem align")
	}
	if abi.MapBucketCount < 8 {

    for (const auto &axis_int : perm.getValues<APInt>()) {
      axes.push_back(axis_int.getSExtValue());
    }
    if (axes != SmallVector<int64_t>({1, 2, 0, 3})) return failure();

    // Add reshape op to be aligned with the input restriction with
    // TFL::resize_nearest_neighor op.
    const int32_t image_size = static_cast<int32_t>(params_type.getShape()[0]);
    const int32_t feature_size =

	if err = checkPathLength(filePath); err != nil {
		return err
	}

	var w *os.File
	// Create file if not found. Not doing O_DIRECT here to avoid the code that does buffer aligned writes.
	// AppendFile() is only used by healing code to heal objects written in old format.
	w, err = s.openFileSync(filePath, os.O_CREATE|os.O_APPEND|os.O_WRONLY, volumeDir)
	if err != nil {
		return err
	}

	}
	return false
}

// moveSize returns the number of bytes an aligned MOV instruction moves.
func moveSize(align int64, c *Config) int64 {
	switch {
	case align%8 == 0 && c.PtrSize == 8:
		return 8
	case align%4 == 0:
		return 4
	case align%2 == 0:
		return 2
	}
	return 1
}

// mergePoint finds a block among a's blocks which dominates b and is itself

			case obj.APCALIGN:
				alignedValue := p.From.Offset
				m = pcAlignPadLength(ctxt, pc, alignedValue)
				// Update the current text symbol alignment value.
				if int32(alignedValue) > cursym.Func().Align {
					cursym.Func().Align = int32(alignedValue)
				}
				break
			case obj.ANOP, obj.AFUNCDATA, obj.APCDATA:
				continue
			default:
				c.ctxt.Diag("zero-width instruction\n%v", p)
			}
		}

// RUN: tf-opt %s -tfl-prepare-quantize="quantize-signed=true" | FileCheck %s
// RUN: tf-opt %s -tfl-prepare-quantize="quantize-signed=true disable-per-channel=true" | FileCheck --check-prefix=PerTensor %s

// CHECK-LABEL: uint8_to_int8
func.func @uint8_to_int8(%arg0: tensor<2x2xf32>) -> tensor<2x2xf32> {
  %1 = "tfl.quantize"(%arg0) {qtype = tensor<2x2x!quant.uniform<u8:f32, 1.0:128>>} : (tensor<2x2xf32>) -> tensor<2x2x!quant.uniform<u8:f32, 1.0:128>>