<br>
<code>R0&gt;&gt;16</code>
<br>
<code>R0&lt;&lt;16</code>
<br>
<code>R0@&gt;16</code>:
For <code>&lt;&lt;</code>, left shift <code>R0</code> by 16 bits.
The other codes are <code>-&gt;</code> (arithmetic right shift),
<code>&gt;&gt;</code> (logical right shift), and
<code>@&gt;</code> (rotate right).
</li>

<li>
<code>R0-&gt;R1</code>
<br>
<code>R0&gt;&gt;R1</code>
<br>

x == y+1 && <-chanInt > 0  // (x == (y+1)) && ((<-chanInt) > 0)
</pre>


<h3 id="Arithmetic_operators">Arithmetic operators</h3>
<p>
Arithmetic operators apply to numeric values and yield a result of the same
type as the first operand. The four standard arithmetic operators (<code>+</code>,
<code>-</code>, <code>*</code>, <code>/</code>) apply to

	BFC	$29, $2, R8                              // 1f81dee7
	BFI	$29, $2, R8                              // 1881dee7
	BFI	$16, $8, R1, R2 // BFI $16, R1, $8, R2   // 1124d7e7

// synthetic arithmetic
	ADD	$0xffffffaa, R2, R3 // ADD $4294967210, R2, R3   // 55b0e0e30b3082e0
	ADD	$0xffffff55, R5     // ADD $4294967125, R5       // aab0e0e30b5085e0
	ADD.S	$0xffffffab, R2, R3 // ADD.S $4294967211, R2, R3 // 54b0e0e30b3092e0

// the old assembler's (7a's) grammar and hand-writing complete
// instructions for each rule, to guarantee we cover the same space.

#include "../../../../../runtime/textflag.h"

TEXT	foo(SB), DUPOK|NOSPLIT, $-8

// arithmetic operations
	ADDW	$1, R2, R3
	ADDW	R1, R2, R3
	ADDW	R1, ZR, R3
	ADD	$1, R2, R3
	ADD	R1, R2, R3
	ADD	R1, ZR, R3
	ADD	$1, R2, R3
	ADDW	$1, R2
	ADDW	R1, R2
	ADD	$1, R2
	ADD	R1, R2
	ADD	R1>>11, R2

sigh.  `I only took the regular course.'

  `What was that?' inquired Alice.

  `Reeling and Writhing, of course, to begin with,' the Mock
Turtle replied; `and then the different branches of Arithmetic--
Ambition, Distraction, Uglification, and Derision.'

  `I never heard of "Uglification,"' Alice ventured to say.  `What is it?'

  The Gryphon lifted up both its paws in surprise.  `What!  Never

announced length of x is set based on the actual bit size of the input, // ignoring leading zeroes. func (x *Nat) resetToBytes(b []byte) *Nat { x.reset((len(b) + _S - 1) / _S) if err := x.setBytes(b); err != nil { panic("bigmod: internal error: bad arithmetic") } return x.trim() } // trim reduces the size of x to match its value. func (x *Nat) trim() *Nat { // Trim most significant (trailing in little-endian) zero limbs. // We assume comparison with zero (but not the branch) is constant time. for i :=...

announced length of x is set based on the actual bit size of the input, // ignoring leading zeroes. func (x *Nat) resetToBytes(b []byte) *Nat { x.reset((len(b) + _S - 1) / _S) if err := x.setBytes(b); err != nil { panic("bigmod: internal error: bad arithmetic") } return x.trim() } // trim reduces the size of x to match its value. func (x *Nat) trim() *Nat { // Trim most significant (trailing in little-endian) zero limbs. // We assume comparison with zero (but not the branch) is constant time. for i :=...

    * Function is linear between points. Resource utilization is defined as one minus ratio of total amount of resource requested by pods on node and node's capacity (scaled to 100).
    * Final utilization used for computation is arithmetic mean of cpu utilization and memory utilization.
    * Function is disabled by default and can be enabled via scheduler policy config file.

    9 and CUDA 9.1 sometimes does not properly compute the carry bit when
    decomposing 64-bit address calculations with large offsets (e.g. `load [x +
    large_constant]`) into 32-bit arithmetic in SASS.

    As a result, these versions of `ptxas` miscompile most XLA programs which
    use more than 4GB of temp memory. This results in garbage results and/or
    `CUDA_ERROR_ILLEGAL_ADDRESS` failures.