RET
TEXT ·a23(SB), 0, $0-0
	CMPL runtime·writeBarrier(SB), $0
	LEAQ (AX)(CX*1), R15
	RET
TEXT ·a24(SB), 0, $0-0
	CMPL runtime·writeBarrier(SB), $0
	LEAQ (R15)(AX*1), AX // ERROR "when dynamic linking, R15 is clobbered by a global variable access and is used here"
	RET
TEXT ·a25(SB), 0, $0-0
	CMPL runtime·writeBarrier(SB), $0

JB Ldec128 MOVUPS (AX), X1 AESDEC X1, X0 MOVUPS 16(AX), X1 AESDEC X1, X0 ADDQ $0x20, AX Ldec192: MOVUPS (AX), X1 AESDEC X1, X0 MOVUPS 16(AX), X1 AESDEC X1, X0 ADDQ $0x20, AX Ldec128: MOVUPS (AX), X1 AESDEC X1, X0 MOVUPS 16(AX), X1 AESDEC X1, X0 MOVUPS 32(AX), X1 AESDEC X1, X0 MOVUPS 48(AX), X1 AESDEC X1, X0 MOVUPS 64(AX), X1 AESDEC X1, X0 MOVUPS 80(AX), X1 AESDEC X1, X0 MOVUPS 96(AX), X1 AESDEC X1, X0 MOVUPS 112(AX), X1 AESDEC X1, X0 MOVUPS 128(AX), X1 AESDEC X1, X0 MOVUPS 144(AX), X1 AESDECLAST X1,...

For example, the sequence to load <code>g</code> and <code>m</code>
using <code>CX</code> looks like this:
</p>

<pre>
#include "go_tls.h"
#include "go_asm.h"
...
get_tls(CX)
MOVL	g(CX), AX     // Move g into AX.
MOVL	g_m(AX), BX   // Move g.m into BX.
</pre>

<p>
The <code>get_tls</code> macro is also defined on <a href="#amd64">amd64</a>.
</p>

<p>
Addressing modes:
</p>

<ul>

<li>

			if tok == scanner.EOF {
				p.errorf("unexpected EOF")
				return "", "", nil, false
			}
			// Split operands on comma. Also, the old syntax on x86 for a "register pair"
			// was AX:DX, for which the new syntax is DX, AX. Note the reordering.
			if tok == '\n' || tok == ';' || (nesting == 0 && (tok == ',' || tok == ':')) {
				if tok == ':' {
					// Remember this location so we can swap the operands below.
					if colon >= 0 {