// may be slightly too small -- adjust to make remainder < 10**9
	CMP	R5,R1	// if remainder > 10**9
	SUB.HS	R5,R1   //    remainder -= 10**9
	ADD.HS	$1,R6	//    sec += 1

	MOVW	R6,sec_lo+0(FP)
	MOVW	R7,sec_hi+4(FP)
	MOVW	R1,nsec+8(FP)

	MOVL	lo64+0(FP), CX
	MOVL	a_lo+4(FP), AX
	MULL	b+12(FP)
	MOVL	AX, 0(CX)
	MOVL	DX, BX
	MOVL	a_hi+8(FP), AX
	MULL	b+12(FP)
	ADDL	AX, BX
	ADCL	$0, DX
	MOVL	BX, 4(CX)
	MOVL	DX, AX
	MOVL	AX, hi32+16(FP)
	RET

TEXT runtime·_div64by32(SB), NOSPLIT, $0
	MOVL	r+12(FP), CX
	MOVL	a_lo+0(FP), AX
	MOVL	a_hi+4(FP), DX
	DIVL	b+8(FP)
	MOVL	DX, 0(CX)
	MOVL	AX, q+16(FP)

TEXT runtime·walltime(SB),NOSPLIT,$8-12
	CALL	runtime·nanotime1(SB)
	MOVL	0(SP), AX
	MOVL	4(SP), DX

	MOVL	$1000000000, CX
	DIVL	CX
	MOVL	AX, sec_lo+0(FP)
	MOVL	$0, sec_hi+4(FP)
	MOVL	DX, nsec+8(FP)
	RET

TEXT runtime·notify(SB),NOSPLIT,$0
	MOVL	$28, AX
	INT	$64
	MOVL	AX, ret+4(FP)
	RET

TEXT runtime·noted(SB),NOSPLIT,$0
	MOVL	$29, AX
	INT	$64

	SASX_EQ
	SASX_NE
	SASX_CS
	SASX_CC
	SASX_MI
	SASX_PL
	SASX_VS
	SASX_VC
	SASX_HI
	SASX_LS
	SASX_GE
	SASX_LT
	SASX_GT
	SASX_LE
	SASX
	SASX_ZZ
	SBC_EQ
	SBC_NE
	SBC_CS
	SBC_CC
	SBC_MI
	SBC_PL
	SBC_VS
	SBC_VC
	SBC_HI
	SBC_LS
	SBC_GE
	SBC_LT
	SBC_GT
	SBC_LE
	SBC
	SBC_ZZ
	SBC_S_EQ
	SBC_S_NE

	// may be slightly too small -- adjust to make remainder < 10**9
	CMP	R5,R1			// if remainder > 10**9
	SUB.HS	R5,R1			//    remainder -= 10**9
	ADD.HS	$1,R6			//    sec += 1

	MOVW	R6,sec_lo+0(FP)
	MOVW	R7,sec_hi+4(FP)
	MOVW	R1,nsec+8(FP)
	RET

//func notify(fn unsafe.Pointer) int32
TEXT runtime·notify(SB),NOSPLIT,$0-8
	MOVW	$SYS_NOTIFY, R0
	SWI	$0
	MOVW	R0, ret+4(FP)
	RET

	MOVL	BX, 8(SP)		// arg 2 - tp
	MOVL	$SYS___clock_gettime50, AX
	INT	$0x80

	MOVL	12(SP), AX		// sec - l32
	MOVL	AX, sec_lo+0(FP)
	MOVL	16(SP), AX		// sec - h32
	MOVL	AX, sec_hi+4(FP)

	MOVL	20(SP), BX		// nsec
	MOVL	BX, nsec+8(FP)
	RET

// int64 nanotime1(void) so really
// void nanotime1(int64 *nsec)
TEXT runtime·nanotime1(SB),NOSPLIT,$32
	LEAL	12(SP), BX

	LEAL	12(SP), BX
	MOVL	$CLOCK_REALTIME, 4(SP)
	MOVL	BX, 8(SP)
	INT	$0x80
	MOVL	12(SP), AX	// sec
	MOVL	16(SP), BX	// nsec

	// sec is in AX, nsec in BX
	MOVL	AX, sec_lo+0(FP)
	MOVL	$0, sec_hi+4(FP)
	MOVL	BX, nsec+8(FP)
	RET

// func fallback_nanotime() int64
TEXT runtime·fallback_nanotime(SB), NOSPLIT, $32-8
	MOVL	$SYS_clock_gettime, AX
	LEAL	12(SP), BX
	MOVL	$CLOCK_MONOTONIC, 4(SP)

	MOVW $0, R0	// CLOCK_REALTIME
	MOVW $8(R13), R1
	SWI $SYS___clock_gettime50

	MOVW 8(R13), R0	// sec.low
	MOVW 12(R13), R1 // sec.high
	MOVW 16(R13), R2 // nsec

	MOVW R0, sec_lo+0(FP)
	MOVW R1, sec_hi+4(FP)
	MOVW R2, nsec+8(FP)
	RET

// int64 nanotime1(void) so really
// void nanotime1(int64 *nsec)
TEXT runtime·nanotime1(SB), NOSPLIT, $32
	MOVW $3, R0 // CLOCK_MONOTONIC
	MOVW $8(R13), R1

	MOVW $8(R13), R1
	MOVW $SYS_clock_gettime, R7
	SWI $0

	MOVW 8(R13), R0 // sec.low
	MOVW 12(R13), R1 // sec.high
	MOVW 16(R13), R2 // nsec

	MOVW R0, sec_lo+0(FP)
	MOVW R1, sec_hi+4(FP)
	MOVW R2, nsec+8(FP)
	RET

// func fallback_nanotime() int64
TEXT runtime·fallback_nanotime(SB), NOSPLIT, $32
	MOVW $4, R0 // CLOCK_MONOTONIC
	MOVW $8(R13), R1
	MOVW $SYS_clock_gettime, R7

* **Derin Öğrenme**: Bu, Makine Öğreniminin bir alt alanıdır, dolayısıyla aynısı geçerlidir. Sadece çarpılacak tek bir sayı tablosu değil, büyük bir sayı kümesi vardır ve çoğu durumda bu modelleri oluşturmak ve/veya kullanmak için özel işlemciler kullanırsınız.

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