case ACMPU:
		return op_CLGFI
	case ACMPW:
		return op_CFI
	case ACMPWU:
		return op_CLFI
	}
	c.ctxt.Diag("unknown ril opcode %v", a)
	return 0
}

// z instructions sizes
const (
	sizeE    = 2
	sizeI    = 2
	sizeIE   = 4
	sizeMII  = 6
	sizeRI   = 4
	sizeRI1  = 4
	sizeRI2  = 4
	sizeRI3  = 4
	sizeRIE  = 6
	sizeRIE1 = 6
	sizeRIE2 = 6

  return lhs.hasRank() && rhs.hasRank() && lhs.getRank() == rhs.getRank();
}

// Creates a compatible RankedTensorType where mismatched dimensions are
// replaced with dynamic sizes.
RankedTensorType GetCompatibleRankedTensorType(RankedTensorType lhs,
                                               RankedTensorType rhs) {
  assert(lhs.getRank() == rhs.getRank());
  llvm::SmallVector<int64_t, 4> dims;

func.func @testPackShapeComputation(%arg0: tensor<?x1xf32>, %arg1: tensor<?x1x2xf32>, %arg2: tensor<*xf32>) -> (tensor<2xi32>, tensor<3xi32>, tensor<3xi32>, tensor<3xi32>, tensor<*xi32>) {
  // Test dimensions sizes.
  %d1 = "tf.Const"() {value = dense<1> : tensor<i32>} : () -> tensor<i32>
  %d2 = "tf.Const"() {value = dense<2> : tensor<i32>} : () -> tensor<i32>

  // Slice bounds.

	st := ctxt.makeRelocSymState()

	// This doesn't distinguish the memory size from the file
	// size, and it lays out the file based on Symbol.Value, which
	// is the virtual address. DWARF compression changes file sizes,
	// so dwarfcompress will fix this up later if necessary.
	eaddr := addr + size
	for _, s := range syms {
		if ldr.AttrSubSymbol(s) {
			continue
		}
		val := ldr.SymValue(s)
		if val >= eaddr {

	n   int
	err error
	b   byte // byte read, if n == 1
}

// connReader is the io.Reader wrapper used by *conn. It combines a
// selectively-activated io.LimitedReader (to bound request header
// read sizes) with support for selectively keeping an io.Reader.Read
// call blocked in a background goroutine to wait for activity and
// trigger a CloseNotifier channel.
type connReader struct {
	conn *conn

              'has_bias': [True, False],
              'batch_sizes': [([], []), ([10], [10]), ([2, 3], [2, 3])],
              'target_opset': [quant_opts_pb2.XLA],
          },
          # Test broadcastable batch sizes.
          {
              'activation_fn': [None],
              'has_bias': [True],
              'batch_sizes': [
                  ([2], []),
                  ([], [2]),
                  ([1], [2]),

<a href="https://en.wikipedia.org/wiki/Two's_complement">two's complement arithmetic</a>.
</p>

<p>
There is also a set of predeclared numeric types with implementation-specific sizes:
</p>

<pre class="grammar">
uint     either 32 or 64 bits
int      same size as uint
uintptr  an unsigned integer large enough to store the uninterpreted bits of a pointer value
</pre>

<p>

(NilCheck          ptr:(Addr {_} (SB))    _) => ptr
(NilCheck ptr:(Convert (Addr {_} (SB)) _) _) => ptr

// for late-expanded calls, recognize memequal applied to a single constant byte
// Support is limited by 1, 2, 4, 8 byte sizes
(StaticLECall {callAux} sptr (Addr {scon} (SB)) (Const64 [1]) mem)
  && isSameCall(callAux, "runtime.memequal")
  && symIsRO(scon)

      inner_op->hasTrait<mlir::OpTrait::AttrSizedResultSegments>()) {
    // The op has multiple variadic operands or results.
    // Calculate operand and result segment sizes using the OpDef.
    NameRangeMap input_ranges, output_ranges;
    // This will fail only if the OpDef is syntactically invalid.
    // TODO(jpienaar): Convert this CHECK into a properly propagated error.
    TF_CHECK_OK(

		maxstacksize = 250000000
	}

	// An upper limit for max stack size. Used to avoid random crashes
	// after calling SetMaxStack and trying to allocate a stack that is too big,
	// since stackalloc works with 32-bit sizes.
	maxstackceiling = 2 * maxstacksize

	// Allow newproc to start new Ms.
	mainStarted = true

	if haveSysmon {
		systemstack(func() {
			newm(sysmon, nil, -1)
		})
	}