CMNW $(2<<12), R5                          // CMNW $8192, R5                // bf084031
	CMN $(8<<12), R12                          // CMN $32768, R12               // 9f2140b1
	CMN R6->0, R3                              // 7f0086ab
	CMN R6, R3                                 // 7f0006ab
	CMNW R30, R5                               // bf001e2b
	CMNW $2, R5                                // bf080031

//	{
//		outcode(int($1), &$2, int($4), &$6);
//	}
	ADD	R5, R9, R10	// 01255020
	ADDU	R13, R14, R19	// 01cd9821
	ADDV	R5, R9, R10	// 0125502c
	ADDVU	R13, R14, R19	// 01cd982d

//	LADDW imm ',' sreg ',' rreg
//	{
//		outcode(int($1), &$2, int($4), &$6);
//	}
	ADD	$15176, R14, R9	// 21c93b48
	ADD	$-9, R5, R8	// 20a8fff7
	ADDU	$10, R9, R9	// 2529000a
	ADDV	$15176, R14, R9	// 61c93b48

	CNTTZDM R2, R3, R1                      // 7c411c76
	DCFFIXQQ V1, F2                         // fc400fc4
	DCTFIXQQ F2, V3                         // fc6117c4
	LXVKQ $0, VS33                          // f03f02d1
	LXVP 12352(R5), VS6                     // 18c53040
	LXVPX (R1)(R2), VS4                     // 7c820a9a
	LXVRBX (R1)(R2), VS4                    // 7c82081a
	LXVRDX (R1)(R2), VS4                    // 7c8208da

	MOVFD	F0, F1        // c01ab7ee
	MOVDF	F4, F5        // c45bb7ee

	LDREX	(R8), R9      // 9f9f98e1
	LDREXB	(R11), R12    // 9fcfdbe1
	LDREXD	(R11), R12    // 9fcfbbe1
	STREX	R3, (R4), R5  // STREX  (R4), R3, R5 // 935f84e1
	STREXB	R8, (R9), g   // STREXB (R9), R8, g  // 98afc9e1
	STREXD	R8, (R9), g   // STREXD (R9), R8, g  // 98afa9e1

	CMPF    F8, F9        // c89ab4ee10faf1ee
	CMPD.CS F4, F5        // c45bb42e10faf12e

R6-R12. ADD $112, R5 // Load xk[28:35] and cipher LXVD2X (R0+R5), V1 LXVD2X (R6+R5), V2 VCIPHER V0, V1, V0 VCIPHER V0, V2, V0 // Load xk[36:43] and cipher LXVD2X (R7+R5), V1 LXVD2X (R8+R5), V2 BEQ CR1, Ldec_tail // Key size 10? VCIPHER V0, V1, V0 VCIPHER V0, V2, V0 // Load xk[44:51] and cipher LXVD2X (R9+R5), V1 LXVD2X (R10+R5), V2 BEQ CR2, Ldec_tail // Key size 12? VCIPHER V0, V1, V0 VCIPHER V0, V2, V0 // Load xk[52:59] and cipher LXVD2X (R11+R5), V1 LXVD2X (R12+R5), V2 BNE CR3, Linvalid_key_len // Not...

<p>
Load- and store-multiple instructions operate on a range of registers.
The range of registers is specified by a start register and an end register.
For example, <code>LMG</code> <code>(R9),</code> <code>R5,</code> <code>R7</code> would load
<code>R5</code>, <code>R6</code> and <code>R7</code> with the 64-bit values at
<code>0(R9)</code>, <code>8(R9)</code> and <code>16(R9)</code> respectively.
</p>

<p>

R6-R12. ADD $112, R5 // Load xk[28:35] and cipher LXVD2X (R0+R5), V1 LXVD2X (R6+R5), V2 VCIPHER V0, V1, V0 VCIPHER V0, V2, V0 // Load xk[36:43] and cipher LXVD2X (R7+R5), V1 LXVD2X (R8+R5), V2 BEQ CR1, Ldec_tail // Key size 10? VCIPHER V0, V1, V0 VCIPHER V0, V2, V0 // Load xk[44:51] and cipher LXVD2X (R9+R5), V1 LXVD2X (R10+R5), V2 BEQ CR2, Ldec_tail // Key size 12? VCIPHER V0, V1, V0 VCIPHER V0, V2, V0 // Load xk[52:59] and cipher LXVD2X (R11+R5), V1 LXVD2X (R12+R5), V2 BNE CR3, Linvalid_key_len // Not...

		a.Scale = int16(scale)
	}
}

// registerList parses an ARM or ARM64 register list expression, a list of
// registers in []. There may be comma-separated ranges or individual
// registers, as in [R1,R3-R5] or [V1.S4, V2.S4, V3.S4, V4.S4].
// For ARM, only R0 through R15 may appear.
// For ARM64, V0 through V31 with arrangement may appear.
//
// For 386/AMD64 register list specifies 4VNNIW-style multi-source operand.