MOVQ	DI, BX
	CALL	libc_mach_absolute_time(SB)
	MOVQ	AX, 0(BX)
	MOVL	timebase<>+machTimebaseInfo_numer(SB), SI
	MOVL	timebase<>+machTimebaseInfo_denom(SB), DI // atomic read
	TESTL	DI, DI
	JNE	initialized

	SUBQ	$(machTimebaseInfo__size+15)/16*16, SP
	MOVQ	SP, DI
	CALL	libc_mach_timebase_info(SB)
	MOVL	machTimebaseInfo_numer(SP), SI
	MOVL	machTimebaseInfo_denom(SP), DI

has_cpuid:
	MOVL	$0, AX
	CPUID
	MOVL	AX, SI
	CMPL	AX, $0
	JE	nocpuinfo

	CMPL	BX, $0x756E6547  // "Genu"
	JNE	notintel
	CMPL	DX, $0x49656E69  // "ineI"
	JNE	notintel
	CMPL	CX, $0x6C65746E  // "ntel"
	JNE	notintel
	MOVB	$1, runtime·isIntel(SB)
notintel:

	// Load EAX=1 cpuid flags
	MOVL	$1, AX
	CPUID
	MOVL	CX, DI // Move to global variable clobbers CX when generating PIC

		p.To.Type = obj.TYPE_REG
		p.To.Reg = regEntryTmp0
		if ctxt.Arch.Family == sys.I386 {
			p.As = ATESTL
		}

		// JNE checkargp (checkargp to be resolved later)
		jne := obj.Appendp(p, newprog)
		jne.As = AJNE
		jne.To.Type = obj.TYPE_BRANCH

		// end:
		//  NOP
		end := obj.Appendp(jne, newprog)
		end.As = obj.ANOP

		// Fast forward to end of function.
		var last *obj.Prog

		PSHUFD $78, T0, T0
		PXOR T0, B2
		PXOR T1, B2

		MOVOU B2, (16*12)(dst)
		PSHUFD $78, B2, B3
		PXOR B2, B3
		MOVOU B3, (16*13)(dst)

		DECQ AX
		LEAQ (-16*2)(dst), dst
	JNE initLoop

	RET
#undef NR
#undef KS
#undef dst

// func gcmAesData(productTable *[256]byte, data []byte, T *[16]byte)
TEXT ·gcmAesData(SB),NOSPLIT,$0
#define pTbl DI
#define aut SI

	VMOVDQU Y6, Y4
	VMOVDQU Y7, Y5

	SUBQ $1, frame_SRND(SP)
	JNE  loop2

	addm(8*0(SI),AX)
	addm(8*1(SI),BX)
	addm(8*2(SI),CX)
	addm(8*3(SI),R8)
	addm(8*4(SI),DX)
	addm(8*5(SI),R9)
	addm(8*6(SI),R10)
	addm(8*7(SI),R11)

	MOVQ frame_INP(SP), DI
	ADDQ $128, DI
	CMPQ DI, frame_INPEND(SP)
	JNE  loop0

done_hash:
	VZEROUPPER

	CMOVQCS y_ptr, acc2
	CMOVQCS t1, acc3

	MOVQ acc0, (8*0)(res_ptr)
	MOVQ acc1, (8*1)(res_ptr)
	MOVQ acc2, (8*2)(res_ptr)
	MOVQ acc3, (8*3)(res_ptr)
	MOVQ res_ptr, x_ptr
	DECQ BX
	JNE  sqrLoop

	RET
/* ---------------------------------------*/
// func p256Mul(res, in1, in2 *p256Element)
TEXT ·p256Mul(SB),NOSPLIT,$0
	MOVQ res+0(FP), res_ptr
	MOVQ in1+8(FP), x_ptr
	MOVQ in2+16(FP), y_ptr

	// First, code below assumes that we are on curg, while raceGetProcCmd
	// can be executed on g0. Second, it is called frequently, so will
	// benefit from this fast path.
	CMPQ	RARG0, $0
	JNE	rest
	get_tls(RARG0)
	MOVQ	g(RARG0), RARG0
	MOVQ	g_m(RARG0), RARG0
	MOVQ	m_p(RARG0), RARG0
	MOVQ	p_raceprocctx(RARG0), RARG0
	MOVQ	RARG0, (RARG1)
	RET

rest:
	// Transition from C ABI to Go ABI.

jcloud-ver-jpc.ik-server.com jcloud.ik-server.com jcloud.kz jdevcloud.com jdf.br je jed.wafaicloud.com jeep jefferson.museum jeju.kr jelastic.dogado.eu jelastic.regruhosting.ru jelastic.saveincloud.net jelastic.team jelastic.tsukaeru.net jele.cloud jele.club jele.host jele.io jele.site jelenia-gora.pl jellybean.jp jeonbuk.kr jeonnam.kr jerusalem.museum jessheim.no jetzt jevnaker.no jewelry jewelry.museum jewish.museum jewishart.museum jfk.museum jgora.pl jinsekikogen.hiroshima.jp jio jl.cn jll jls-sto1.elastx.net...

	LEAQ    (2*4*80+32)(SP), R15 \
	PRECALC \ // Precalc WK for first 2 blocks
	XCHGQ   R15, R14 \
loop: \  // this loops is unrolled
	CMPQ    R10, R8 \ // we use R8 value (set below) as a signal of a last block
	JNE	begin \
	VZEROUPPER \
	RET \
begin: \
	CALC_0 \
	CALC_1 \
	CALC_2 \
	CALC_3 \
	CALC_4 \
	CALC_5 \
	CALC_6 \
	CALC_7 \
	CALC_8 \
	CALC_9 \
	CALC_10 \

	// add current hash values with previously saved
	PADDD		abefSave, state0
	PADDD		cdghSave, state1

	// advance data pointer; loop until buffer empty
	ADDQ		$64, dataPtr
	CMPQ		numBytes, dataPtr
	JNE		roundLoop

	// write hash values back in the correct order
	PSHUFD		$0x1b, state0, state0		// FEBA
	PSHUFD		$0xb1, state1, state1		// DCHG
	VMOVDQA		state0, m4
	PBLENDW		$0xf0, state1, state0		// DCBA