Overview

32 bit real by 32 bit complex using Z buffer conjugation

Functions
v2cacc80	lmac2_abs_c (v2cacc80 acc, v32int32 xbuff, int xstart, unsigned int xoffsets, int xstep, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer .

v2cacc80	lmac2_abs_c (v2cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer using small X input buffer.

v2cacc80	lmac2_max_c (v2cacc80 acc, v32int32 xbuff, int xstart, unsigned int xoffsets, int xstep, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer .

v2cacc80	lmac2_max_c (v2cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

v2cacc80	lmac2_max_c (v2cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, v16int32 ybuff, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

v2cacc80	lmac2_maxdiff_c (v2cacc80 acc, v32int32 xbuff, int xstart, unsigned int xoffsets, int xstep, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer .

v2cacc80	lmac2_maxdiff_c (v2cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

v2cacc80	lmac2_maxdiff_c (v2cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, v16int32 ybuff, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

v2cacc80	lmac2_min_c (v2cacc80 acc, v32int32 xbuff, int xstart, unsigned int xoffsets, int xstep, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer .

v2cacc80	lmac2_min_c (v2cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

v2cacc80	lmac2_min_c (v2cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, v16int32 ybuff, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

v4cacc80	lmac4_abs_c (v4cacc80 acc, v32int32 xbuff, int xstart, unsigned int xoffsets, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer .

v4cacc80	lmac4_abs_c (v4cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer using small X input buffer.

v4cacc80	lmac4_max_c (v4cacc80 acc, v32int32 xbuff, int xstart, unsigned int xoffsets, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer .

v4cacc80	lmac4_max_c (v4cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

v4cacc80	lmac4_max_c (v4cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, v16int32 ybuff, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

v4cacc80	lmac4_maxdiff_c (v4cacc80 acc, v32int32 xbuff, int xstart, unsigned int xoffsets, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer .

v4cacc80	lmac4_maxdiff_c (v4cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

v4cacc80	lmac4_maxdiff_c (v4cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, v16int32 ybuff, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

v4cacc80	lmac4_min_c (v4cacc80 acc, v32int32 xbuff, int xstart, unsigned int xoffsets, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer .

v4cacc80	lmac4_min_c (v4cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

v4cacc80	lmac4_min_c (v4cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, v16int32 ybuff, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

v2cacc80	lmsc2_abs_c (v2cacc80 acc, v32int32 xbuff, int xstart, unsigned int xoffsets, int xstep, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-subtract intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer .

v2cacc80	lmsc2_abs_c (v2cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-subtract intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer using small X input buffer.

v2cacc80	lmsc2_max_c (v2cacc80 acc, v32int32 xbuff, int xstart, unsigned int xoffsets, int xstep, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-subtract intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer .

v2cacc80	lmsc2_max_c (v2cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-subtract intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

v2cacc80	lmsc2_max_c (v2cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, v16int32 ybuff, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-subtract intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

v2cacc80	lmsc2_maxdiff_c (v2cacc80 acc, v32int32 xbuff, int xstart, unsigned int xoffsets, int xstep, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-subtract intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer .

v2cacc80	lmsc2_maxdiff_c (v2cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-subtract intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

v2cacc80	lmsc2_maxdiff_c (v2cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, v16int32 ybuff, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-subtract intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

v2cacc80	lmsc2_min_c (v2cacc80 acc, v32int32 xbuff, int xstart, unsigned int xoffsets, int xstep, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-subtract intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer .

v2cacc80	lmsc2_min_c (v2cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-subtract intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

v2cacc80	lmsc2_min_c (v2cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, v16int32 ybuff, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-subtract intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

v4cacc80	lmsc4_abs_c (v4cacc80 acc, v32int32 xbuff, int xstart, unsigned int xoffsets, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-subtract intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer .

v4cacc80	lmsc4_abs_c (v4cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-subtract intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer using small X input buffer.

v4cacc80	lmsc4_max_c (v4cacc80 acc, v32int32 xbuff, int xstart, unsigned int xoffsets, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-subtract intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer .

v4cacc80	lmsc4_max_c (v4cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-subtract intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

v4cacc80	lmsc4_max_c (v4cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, v16int32 ybuff, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-subtract intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

v4cacc80	lmsc4_maxdiff_c (v4cacc80 acc, v32int32 xbuff, int xstart, unsigned int xoffsets, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-subtract intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer .

v4cacc80	lmsc4_maxdiff_c (v4cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-subtract intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

v4cacc80	lmsc4_maxdiff_c (v4cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, v16int32 ybuff, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-subtract intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

v4cacc80	lmsc4_min_c (v4cacc80 acc, v32int32 xbuff, int xstart, unsigned int xoffsets, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-subtract intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer .

v4cacc80	lmsc4_min_c (v4cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-subtract intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

v4cacc80	lmsc4_min_c (v4cacc80 acc, v16int32 xbuff, int xstart, unsigned int xoffsets, v16int32 ybuff, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-subtract intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

v2cacc80	lmul2_abs_c (v32int32 xbuff, int xstart, unsigned int xoffsets, int xstep, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer .

v2cacc80	lmul2_abs_c (v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer using small X input buffer.

v2cacc80	lmul2_max_c (v32int32 xbuff, int xstart, unsigned int xoffsets, int xstep, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer .

v2cacc80	lmul2_max_c (v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

v2cacc80	lmul2_max_c (v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, v16int32 ybuff, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

v2cacc80	lmul2_maxdiff_c (v32int32 xbuff, int xstart, unsigned int xoffsets, int xstep, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer .

v2cacc80	lmul2_maxdiff_c (v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

v2cacc80	lmul2_maxdiff_c (v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, v16int32 ybuff, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

v2cacc80	lmul2_min_c (v32int32 xbuff, int xstart, unsigned int xoffsets, int xstep, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer .

v2cacc80	lmul2_min_c (v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

v2cacc80	lmul2_min_c (v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, v16int32 ybuff, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

v4cacc80	lmul4_abs_c (v32int32 xbuff, int xstart, unsigned int xoffsets, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer .

v4cacc80	lmul4_abs_c (v16int32 xbuff, int xstart, unsigned int xoffsets, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer using small X input buffer.

v4cacc80	lmul4_max_c (v32int32 xbuff, int xstart, unsigned int xoffsets, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer .

v4cacc80	lmul4_max_c (v16int32 xbuff, int xstart, unsigned int xoffsets, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

v4cacc80	lmul4_max_c (v16int32 xbuff, int xstart, unsigned int xoffsets, v16int32 ybuff, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

v4cacc80	lmul4_maxdiff_c (v32int32 xbuff, int xstart, unsigned int xoffsets, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer .

v4cacc80	lmul4_maxdiff_c (v16int32 xbuff, int xstart, unsigned int xoffsets, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

v4cacc80	lmul4_maxdiff_c (v16int32 xbuff, int xstart, unsigned int xoffsets, v16int32 ybuff, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

v4cacc80	lmul4_min_c (v32int32 xbuff, int xstart, unsigned int xoffsets, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer .

v4cacc80	lmul4_min_c (v16int32 xbuff, int xstart, unsigned int xoffsets, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

v4cacc80	lmul4_min_c (v16int32 xbuff, int xstart, unsigned int xoffsets, v16int32 ybuff, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

v2cacc80	lnegmul2_abs_c (v32int32 xbuff, int xstart, unsigned int xoffsets, int xstep, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-negate intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer .

v2cacc80	lnegmul2_abs_c (v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-negate intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer using small X input buffer.

v2cacc80	lnegmul2_max_c (v32int32 xbuff, int xstart, unsigned int xoffsets, int xstep, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-negate intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer .

v2cacc80	lnegmul2_max_c (v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-negate intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

v2cacc80	lnegmul2_max_c (v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, v16int32 ybuff, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-negate intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

v2cacc80	lnegmul2_maxdiff_c (v32int32 xbuff, int xstart, unsigned int xoffsets, int xstep, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-negate intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer .

v2cacc80	lnegmul2_maxdiff_c (v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-negate intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

v2cacc80	lnegmul2_maxdiff_c (v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, v16int32 ybuff, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-negate intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

v2cacc80	lnegmul2_min_c (v32int32 xbuff, int xstart, unsigned int xoffsets, int xstep, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-negate intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer .

v2cacc80	lnegmul2_min_c (v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-negate intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

v2cacc80	lnegmul2_min_c (v16int32 xbuff, int xstart, unsigned int xoffsets, int xstep, v16int32 ybuff, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets, int zstep)
	Complex multiply-negate intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

v4cacc80	lnegmul4_abs_c (v32int32 xbuff, int xstart, unsigned int xoffsets, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-negate intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer .

v4cacc80	lnegmul4_abs_c (v16int32 xbuff, int xstart, unsigned int xoffsets, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-negate intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer using small X input buffer.

v4cacc80	lnegmul4_max_c (v32int32 xbuff, int xstart, unsigned int xoffsets, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-negate intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer .

v4cacc80	lnegmul4_max_c (v16int32 xbuff, int xstart, unsigned int xoffsets, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-negate intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

v4cacc80	lnegmul4_max_c (v16int32 xbuff, int xstart, unsigned int xoffsets, v16int32 ybuff, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-negate intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

v4cacc80	lnegmul4_maxdiff_c (v32int32 xbuff, int xstart, unsigned int xoffsets, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-negate intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer .

v4cacc80	lnegmul4_maxdiff_c (v16int32 xbuff, int xstart, unsigned int xoffsets, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-negate intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

v4cacc80	lnegmul4_maxdiff_c (v16int32 xbuff, int xstart, unsigned int xoffsets, v16int32 ybuff, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-negate intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

v4cacc80	lnegmul4_min_c (v32int32 xbuff, int xstart, unsigned int xoffsets, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-negate intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer .

v4cacc80	lnegmul4_min_c (v16int32 xbuff, int xstart, unsigned int xoffsets, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-negate intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

v4cacc80	lnegmul4_min_c (v16int32 xbuff, int xstart, unsigned int xoffsets, v16int32 ybuff, int ystart, v4cint32 zbuff, int zstart, unsigned int zoffsets)
	Complex multiply-negate intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

Function Documentation

v2cacc80 lmac2_abs_c	(	v2cacc80	acc,
		v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer .

acc0 += cnj(z00)*abs(x00) + cnj(z01)*abs(x01)

acc1 += cnj(z10)*abs(x10) + cnj(z11)*abs(x11)

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (2 x cint80 lanes)
xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to the x buffer. LSB apply to first lane
xstep	Step between each column for selection in the xbuffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmac2_abs_c	(	v2cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer using small X input buffer.

acc0 += cnj(z00)*abs(x00) + cnj(z01)*abs(x01)

acc1 += cnj(z10)*abs(x10) + cnj(z11)*abs(x11)

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (2 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to the x buffer. LSB apply to first lane
xstep	Step between each column for selection in the xbuffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmac2_max_c	(	v2cacc80	acc,
		v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer .

acc0 += cnj(z00)*(max(x00 , y00)) + cnj(z01)*(max(x01 , y01))

acc1 += cnj(z10)*(max(x10 , y10)) + cnj(z11)*(max(x11 , y11))

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (2 x cint80 lanes)
xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmac2_max_c	(	v2cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

acc0 += cnj(z00)*(max(x00 , y00)) + cnj(z01)*(max(x01 , y01))

acc1 += cnj(z10)*(max(x10 , y10)) + cnj(z11)*(max(x11 , y11))

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (2 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmac2_max_c	(	v2cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		v16int32	ybuff,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

acc0 += cnj(z00)*(max(x00 , y00)) + cnj(z01)*(max(x01 , y01))

acc1 += cnj(z10)*(max(x10 , y10)) + cnj(z11)*(max(x11 , y11))

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (2 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ybuff	Right input buffer of 16 elements of type int32
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmac2_maxdiff_c	(	v2cacc80	acc,
		v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer .

acc0 += cnj(z00)*((x00 - y00 > 0) ? (x00 - y00):0) + cnj(z01)*((x01 - y01 > 0) ? (x01 - y01):0)

acc1 += cnj(z10)*((x10 - y10 > 0) ? (x10 - y10):0) + cnj(z11)*((x11 - y11 > 0) ? (x11 - y11):0)

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (2 x cint80 lanes)
xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmac2_maxdiff_c	(	v2cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

acc0 += cnj(z00)*((x00 - y00 > 0) ? (x00 - y00):0) + cnj(z01)*((x01 - y01 > 0) ? (x01 - y01):0)

acc1 += cnj(z10)*((x10 - y10 > 0) ? (x10 - y10):0) + cnj(z11)*((x11 - y11 > 0) ? (x11 - y11):0)

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (2 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmac2_maxdiff_c	(	v2cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		v16int32	ybuff,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

acc0 += cnj(z00)*((x00 - y00 > 0) ? (x00 - y00):0) + cnj(z01)*((x01 - y01 > 0) ? (x01 - y01):0)

acc1 += cnj(z10)*((x10 - y10 > 0) ? (x10 - y10):0) + cnj(z11)*((x11 - y11 > 0) ? (x11 - y11):0)

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (2 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ybuff	Right input buffer of 16 elements of type int32
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmac2_min_c	(	v2cacc80	acc,
		v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer .

acc0 += cnj(z00)*(min(x00 , y00)) + cnj(z01)*(min(x01 , y01))

acc1 += cnj(z10)*(min(x10 , y10)) + cnj(z11)*(min(x11 , y11))

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (2 x cint80 lanes)
xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmac2_min_c	(	v2cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

acc0 += cnj(z00)*(min(x00 , y00)) + cnj(z01)*(min(x01 , y01))

acc1 += cnj(z10)*(min(x10 , y10)) + cnj(z11)*(min(x11 , y11))

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (2 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmac2_min_c	(	v2cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		v16int32	ybuff,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

acc0 += cnj(z00)*(min(x00 , y00)) + cnj(z01)*(min(x01 , y01))

acc1 += cnj(z10)*(min(x10 , y10)) + cnj(z11)*(min(x11 , y11))

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (2 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ybuff	Right input buffer of 16 elements of type int32
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmac4_abs_c	(	v4cacc80	acc,
		v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer .

acc0 += cnj(z00)*abs(x00)
acc1 += cnj(z10)*abs(x10)
acc2 += cnj(z20)*abs(x20)
acc3 += cnj(z30)*abs(x30)

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (4 x cint80 lanes)
xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to the x buffer. LSB apply to first lane
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmac4_abs_c	(	v4cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer using small X input buffer.

acc0 += cnj(z00)*abs(x00)
acc1 += cnj(z10)*abs(x10)
acc2 += cnj(z20)*abs(x20)
acc3 += cnj(z30)*abs(x30)

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (4 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to the x buffer. LSB apply to first lane
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmac4_max_c	(	v4cacc80	acc,
		v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer .

acc0 += cnj(z00)*(max(x00 , y00))
acc1 += cnj(z10)*(max(x10 , y10))
acc2 += cnj(z20)*(max(x20 , y20))
acc3 += cnj(z30)*(max(x30 , y30))

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (4 x cint80 lanes)
xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmac4_max_c	(	v4cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

acc0 += cnj(z00)*(max(x00 , y00))
acc1 += cnj(z10)*(max(x10 , y10))
acc2 += cnj(z20)*(max(x20 , y20))
acc3 += cnj(z30)*(max(x30 , y30))

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (4 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmac4_max_c	(	v4cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		v16int32	ybuff,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

acc0 += cnj(z00)*(max(x00 , y00))
acc1 += cnj(z10)*(max(x10 , y10))
acc2 += cnj(z20)*(max(x20 , y20))
acc3 += cnj(z30)*(max(x30 , y30))

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (4 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ybuff	Right input buffer of 16 elements of type int32
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmac4_maxdiff_c	(	v4cacc80	acc,
		v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer .

acc0 += cnj(z00)*((x00 - y00 > 0) ? (x00 - y00):0)
acc1 += cnj(z10)*((x10 - y10 > 0) ? (x10 - y10):0)
acc2 += cnj(z20)*((x20 - y20 > 0) ? (x20 - y20):0)
acc3 += cnj(z30)*((x30 - y30 > 0) ? (x30 - y30):0)

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (4 x cint80 lanes)
xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmac4_maxdiff_c	(	v4cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

acc0 += cnj(z00)*((x00 - y00 > 0) ? (x00 - y00):0)
acc1 += cnj(z10)*((x10 - y10 > 0) ? (x10 - y10):0)
acc2 += cnj(z20)*((x20 - y20 > 0) ? (x20 - y20):0)
acc3 += cnj(z30)*((x30 - y30 > 0) ? (x30 - y30):0)

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (4 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmac4_maxdiff_c	(	v4cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		v16int32	ybuff,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

acc0 += cnj(z00)*((x00 - y00 > 0) ? (x00 - y00):0)
acc1 += cnj(z10)*((x10 - y10 > 0) ? (x10 - y10):0)
acc2 += cnj(z20)*((x20 - y20 > 0) ? (x20 - y20):0)
acc3 += cnj(z30)*((x30 - y30 > 0) ? (x30 - y30):0)

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (4 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ybuff	Right input buffer of 16 elements of type int32
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmac4_min_c	(	v4cacc80	acc,
		v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer .

acc0 += cnj(z00)*(min(x00 , y00))
acc1 += cnj(z10)*(min(x10 , y10))
acc2 += cnj(z20)*(min(x20 , y20))
acc3 += cnj(z30)*(min(x30 , y30))

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (4 x cint80 lanes)
xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmac4_min_c	(	v4cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

acc0 += cnj(z00)*(min(x00 , y00))
acc1 += cnj(z10)*(min(x10 , y10))
acc2 += cnj(z20)*(min(x20 , y20))
acc3 += cnj(z30)*(min(x30 , y30))

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (4 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmac4_min_c	(	v4cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		v16int32	ybuff,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-accumulate intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

acc0 += cnj(z00)*(min(x00 , y00))
acc1 += cnj(z10)*(min(x10 , y10))
acc2 += cnj(z20)*(min(x20 , y20))
acc3 += cnj(z30)*(min(x30 , y30))

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (4 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ybuff	Right input buffer of 16 elements of type int32
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmsc2_abs_c	(	v2cacc80	acc,
		v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-subtract intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer .

acc0 -= cnj(z00)*abs(x00) + cnj(z01)*abs(x01)

acc1 -= cnj(z10)*abs(x10) + cnj(z11)*abs(x11)

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (2 x cint80 lanes)
xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to the x buffer. LSB apply to first lane
xstep	Step between each column for selection in the xbuffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmsc2_abs_c	(	v2cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-subtract intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer using small X input buffer.

acc0 -= cnj(z00)*abs(x00) + cnj(z01)*abs(x01)

acc1 -= cnj(z10)*abs(x10) + cnj(z11)*abs(x11)

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (2 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to the x buffer. LSB apply to first lane
xstep	Step between each column for selection in the xbuffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmsc2_max_c	(	v2cacc80	acc,
		v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-subtract intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer .

acc0 -= cnj(z00)*(max(x00 , y00)) + cnj(z01)*(max(x01 , y01))

acc1 -= cnj(z10)*(max(x10 , y10)) + cnj(z11)*(max(x11 , y11))

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (2 x cint80 lanes)
xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmsc2_max_c	(	v2cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-subtract intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

acc0 -= cnj(z00)*(max(x00 , y00)) + cnj(z01)*(max(x01 , y01))

acc1 -= cnj(z10)*(max(x10 , y10)) + cnj(z11)*(max(x11 , y11))

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (2 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmsc2_max_c	(	v2cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		v16int32	ybuff,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-subtract intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

acc0 -= cnj(z00)*(max(x00 , y00)) + cnj(z01)*(max(x01 , y01))

acc1 -= cnj(z10)*(max(x10 , y10)) + cnj(z11)*(max(x11 , y11))

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (2 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ybuff	Right input buffer of 16 elements of type int32
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmsc2_maxdiff_c	(	v2cacc80	acc,
		v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-subtract intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer .

acc0 -= cnj(z00)*((x00 - y00 > 0) ? (x00 - y00):0) + cnj(z01)*((x01 - y01 > 0) ? (x01 - y01):0)

acc1 -= cnj(z10)*((x10 - y10 > 0) ? (x10 - y10):0) + cnj(z11)*((x11 - y11 > 0) ? (x11 - y11):0)

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (2 x cint80 lanes)
xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmsc2_maxdiff_c	(	v2cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-subtract intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

acc0 -= cnj(z00)*((x00 - y00 > 0) ? (x00 - y00):0) + cnj(z01)*((x01 - y01 > 0) ? (x01 - y01):0)

acc1 -= cnj(z10)*((x10 - y10 > 0) ? (x10 - y10):0) + cnj(z11)*((x11 - y11 > 0) ? (x11 - y11):0)

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (2 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmsc2_maxdiff_c	(	v2cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		v16int32	ybuff,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-subtract intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

acc0 -= cnj(z00)*((x00 - y00 > 0) ? (x00 - y00):0) + cnj(z01)*((x01 - y01 > 0) ? (x01 - y01):0)

acc1 -= cnj(z10)*((x10 - y10 > 0) ? (x10 - y10):0) + cnj(z11)*((x11 - y11 > 0) ? (x11 - y11):0)

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (2 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ybuff	Right input buffer of 16 elements of type int32
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmsc2_min_c	(	v2cacc80	acc,
		v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-subtract intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer .

acc0 -= cnj(z00)*(min(x00 , y00)) + cnj(z01)*(min(x01 , y01))

acc1 -= cnj(z10)*(min(x10 , y10)) + cnj(z11)*(min(x11 , y11))

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (2 x cint80 lanes)
xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmsc2_min_c	(	v2cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-subtract intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

acc0 -= cnj(z00)*(min(x00 , y00)) + cnj(z01)*(min(x01 , y01))

acc1 -= cnj(z10)*(min(x10 , y10)) + cnj(z11)*(min(x11 , y11))

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (2 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmsc2_min_c	(	v2cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		v16int32	ybuff,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-subtract intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

acc0 -= cnj(z00)*(min(x00 , y00)) + cnj(z01)*(min(x01 , y01))

acc1 -= cnj(z10)*(min(x10 , y10)) + cnj(z11)*(min(x11 , y11))

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (2 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ybuff	Right input buffer of 16 elements of type int32
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmsc4_abs_c	(	v4cacc80	acc,
		v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-subtract intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer .

acc0 -= cnj(z00)*abs(x00)
acc1 -= cnj(z10)*abs(x10)
acc2 -= cnj(z20)*abs(x20)
acc3 -= cnj(z30)*abs(x30)

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (4 x cint80 lanes)
xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to the x buffer. LSB apply to first lane
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmsc4_abs_c	(	v4cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-subtract intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer using small X input buffer.

acc0 -= cnj(z00)*abs(x00)
acc1 -= cnj(z10)*abs(x10)
acc2 -= cnj(z20)*abs(x20)
acc3 -= cnj(z30)*abs(x30)

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (4 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to the x buffer. LSB apply to first lane
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmsc4_max_c	(	v4cacc80	acc,
		v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-subtract intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer .

acc0 -= cnj(z00)*(max(x00 , y00))
acc1 -= cnj(z10)*(max(x10 , y10))
acc2 -= cnj(z20)*(max(x20 , y20))
acc3 -= cnj(z30)*(max(x30 , y30))

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (4 x cint80 lanes)
xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmsc4_max_c	(	v4cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-subtract intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

acc0 -= cnj(z00)*(max(x00 , y00))
acc1 -= cnj(z10)*(max(x10 , y10))
acc2 -= cnj(z20)*(max(x20 , y20))
acc3 -= cnj(z30)*(max(x30 , y30))

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (4 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmsc4_max_c	(	v4cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		v16int32	ybuff,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-subtract intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

acc0 -= cnj(z00)*(max(x00 , y00))
acc1 -= cnj(z10)*(max(x10 , y10))
acc2 -= cnj(z20)*(max(x20 , y20))
acc3 -= cnj(z30)*(max(x30 , y30))

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (4 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ybuff	Right input buffer of 16 elements of type int32
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmsc4_maxdiff_c	(	v4cacc80	acc,
		v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-subtract intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer .

acc0 -= cnj(z00)*((x00 - y00 > 0) ? (x00 - y00):0)
acc1 -= cnj(z10)*((x10 - y10 > 0) ? (x10 - y10):0)
acc2 -= cnj(z20)*((x20 - y20 > 0) ? (x20 - y20):0)
acc3 -= cnj(z30)*((x30 - y30 > 0) ? (x30 - y30):0)

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (4 x cint80 lanes)
xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmsc4_maxdiff_c	(	v4cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-subtract intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

acc0 -= cnj(z00)*((x00 - y00 > 0) ? (x00 - y00):0)
acc1 -= cnj(z10)*((x10 - y10 > 0) ? (x10 - y10):0)
acc2 -= cnj(z20)*((x20 - y20 > 0) ? (x20 - y20):0)
acc3 -= cnj(z30)*((x30 - y30 > 0) ? (x30 - y30):0)

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (4 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmsc4_maxdiff_c	(	v4cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		v16int32	ybuff,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-subtract intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

acc0 -= cnj(z00)*((x00 - y00 > 0) ? (x00 - y00):0)
acc1 -= cnj(z10)*((x10 - y10 > 0) ? (x10 - y10):0)
acc2 -= cnj(z20)*((x20 - y20 > 0) ? (x20 - y20):0)
acc3 -= cnj(z30)*((x30 - y30 > 0) ? (x30 - y30):0)

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (4 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ybuff	Right input buffer of 16 elements of type int32
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmsc4_min_c	(	v4cacc80	acc,
		v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-subtract intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer .

acc0 -= cnj(z00)*(min(x00 , y00))
acc1 -= cnj(z10)*(min(x10 , y10))
acc2 -= cnj(z20)*(min(x20 , y20))
acc3 -= cnj(z30)*(min(x30 , y30))

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (4 x cint80 lanes)
xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmsc4_min_c	(	v4cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-subtract intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

acc0 -= cnj(z00)*(min(x00 , y00))
acc1 -= cnj(z10)*(min(x10 , y10))
acc2 -= cnj(z20)*(min(x20 , y20))
acc3 -= cnj(z30)*(min(x30 , y30))

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (4 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmsc4_min_c	(	v4cacc80	acc,
		v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		v16int32	ybuff,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-subtract intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

acc0 -= cnj(z00)*(min(x00 , y00))
acc1 -= cnj(z10)*(min(x10 , y10))
acc2 -= cnj(z20)*(min(x20 , y20))
acc3 -= cnj(z30)*(min(x30 , y30))

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

acc	Incoming accumulation vector (4 x cint80 lanes)
xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ybuff	Right input buffer of 16 elements of type int32
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmul2_abs_c	(	v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer .

acc0 = cnj(z00)*abs(x00) + cnj(z01)*abs(x01)

acc1 = cnj(z10)*abs(x10) + cnj(z11)*abs(x11)

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to the x buffer. LSB apply to first lane
xstep	Step between each column for selection in the xbuffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmul2_abs_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer using small X input buffer.

acc0 = cnj(z00)*abs(x00) + cnj(z01)*abs(x01)

acc1 = cnj(z10)*abs(x10) + cnj(z11)*abs(x11)

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to the x buffer. LSB apply to first lane
xstep	Step between each column for selection in the xbuffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmul2_max_c	(	v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer .

acc0 = cnj(z00)*(max(x00 , y00)) + cnj(z01)*(max(x01 , y01))

acc1 = cnj(z10)*(max(x10 , y10)) + cnj(z11)*(max(x11 , y11))

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmul2_max_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

acc0 = cnj(z00)*(max(x00 , y00)) + cnj(z01)*(max(x01 , y01))

acc1 = cnj(z10)*(max(x10 , y10)) + cnj(z11)*(max(x11 , y11))

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmul2_max_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		v16int32	ybuff,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

acc0 = cnj(z00)*(max(x00 , y00)) + cnj(z01)*(max(x01 , y01))

acc1 = cnj(z10)*(max(x10 , y10)) + cnj(z11)*(max(x11 , y11))

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ybuff	Right input buffer of 16 elements of type int32
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmul2_maxdiff_c	(	v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer .

acc0 = cnj(z00)*((x00 - y00 > 0) ? (x00 - y00):0) + cnj(z01)*((x01 - y01 > 0) ? (x01 - y01):0)

acc1 = cnj(z10)*((x10 - y10 > 0) ? (x10 - y10):0) + cnj(z11)*((x11 - y11 > 0) ? (x11 - y11):0)

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmul2_maxdiff_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

acc0 = cnj(z00)*((x00 - y00 > 0) ? (x00 - y00):0) + cnj(z01)*((x01 - y01 > 0) ? (x01 - y01):0)

acc1 = cnj(z10)*((x10 - y10 > 0) ? (x10 - y10):0) + cnj(z11)*((x11 - y11 > 0) ? (x11 - y11):0)

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmul2_maxdiff_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		v16int32	ybuff,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

acc0 = cnj(z00)*((x00 - y00 > 0) ? (x00 - y00):0) + cnj(z01)*((x01 - y01 > 0) ? (x01 - y01):0)

acc1 = cnj(z10)*((x10 - y10 > 0) ? (x10 - y10):0) + cnj(z11)*((x11 - y11 > 0) ? (x11 - y11):0)

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ybuff	Right input buffer of 16 elements of type int32
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmul2_min_c	(	v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer .

acc0 = cnj(z00)*(min(x00 , y00)) + cnj(z01)*(min(x01 , y01))

acc1 = cnj(z10)*(min(x10 , y10)) + cnj(z11)*(min(x11 , y11))

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmul2_min_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

acc0 = cnj(z00)*(min(x00 , y00)) + cnj(z01)*(min(x01 , y01))

acc1 = cnj(z10)*(min(x10 , y10)) + cnj(z11)*(min(x11 , y11))

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lmul2_min_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		v16int32	ybuff,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

acc0 = cnj(z00)*(min(x00 , y00)) + cnj(z01)*(min(x01 , y01))

acc1 = cnj(z10)*(min(x10 , y10)) + cnj(z11)*(min(x11 , y11))

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ybuff	Right input buffer of 16 elements of type int32
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmul4_abs_c	(	v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer .

acc0 = cnj(z00)*abs(x00)
acc1 = cnj(z10)*abs(x10)
acc2 = cnj(z20)*abs(x20)
acc3 = cnj(z30)*abs(x30)

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to the x buffer. LSB apply to first lane
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmul4_abs_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer using small X input buffer.

acc0 = cnj(z00)*abs(x00)
acc1 = cnj(z10)*abs(x10)
acc2 = cnj(z20)*abs(x20)
acc3 = cnj(z30)*abs(x30)

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to the x buffer. LSB apply to first lane
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmul4_max_c	(	v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer .

acc0 = cnj(z00)*(max(x00 , y00))
acc1 = cnj(z10)*(max(x10 , y10))
acc2 = cnj(z20)*(max(x20 , y20))
acc3 = cnj(z30)*(max(x30 , y30))

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmul4_max_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

acc0 = cnj(z00)*(max(x00 , y00))
acc1 = cnj(z10)*(max(x10 , y10))
acc2 = cnj(z20)*(max(x20 , y20))
acc3 = cnj(z30)*(max(x30 , y30))

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmul4_max_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		v16int32	ybuff,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

acc0 = cnj(z00)*(max(x00 , y00))
acc1 = cnj(z10)*(max(x10 , y10))
acc2 = cnj(z20)*(max(x20 , y20))
acc3 = cnj(z30)*(max(x30 , y30))

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ybuff	Right input buffer of 16 elements of type int32
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmul4_maxdiff_c	(	v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer .

acc0 = cnj(z00)*((x00 - y00 > 0) ? (x00 - y00):0)
acc1 = cnj(z10)*((x10 - y10 > 0) ? (x10 - y10):0)
acc2 = cnj(z20)*((x20 - y20 > 0) ? (x20 - y20):0)
acc3 = cnj(z30)*((x30 - y30 > 0) ? (x30 - y30):0)

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmul4_maxdiff_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

acc0 = cnj(z00)*((x00 - y00 > 0) ? (x00 - y00):0)
acc1 = cnj(z10)*((x10 - y10 > 0) ? (x10 - y10):0)
acc2 = cnj(z20)*((x20 - y20 > 0) ? (x20 - y20):0)
acc3 = cnj(z30)*((x30 - y30 > 0) ? (x30 - y30):0)

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmul4_maxdiff_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		v16int32	ybuff,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

acc0 = cnj(z00)*((x00 - y00 > 0) ? (x00 - y00):0)
acc1 = cnj(z10)*((x10 - y10 > 0) ? (x10 - y10):0)
acc2 = cnj(z20)*((x20 - y20 > 0) ? (x20 - y20):0)
acc3 = cnj(z30)*((x30 - y30 > 0) ? (x30 - y30):0)

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ybuff	Right input buffer of 16 elements of type int32
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmul4_min_c	(	v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer .

acc0 = cnj(z00)*(min(x00 , y00))
acc1 = cnj(z10)*(min(x10 , y10))
acc2 = cnj(z20)*(min(x20 , y20))
acc3 = cnj(z30)*(min(x30 , y30))

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmul4_min_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

acc0 = cnj(z00)*(min(x00 , y00))
acc1 = cnj(z10)*(min(x10 , y10))
acc2 = cnj(z20)*(min(x20 , y20))
acc3 = cnj(z30)*(min(x30 , y30))

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lmul4_min_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		v16int32	ybuff,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

acc0 = cnj(z00)*(min(x00 , y00))
acc1 = cnj(z10)*(min(x10 , y10))
acc2 = cnj(z20)*(min(x20 , y20))
acc3 = cnj(z30)*(min(x30 , y30))

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ybuff	Right input buffer of 16 elements of type int32
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lnegmul2_abs_c	(	v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-negate intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer .

acc0 = -( cnj(z00)*abs(x00) + cnj(z01)*abs(x01) )

acc1 = -( cnj(z10)*abs(x10) + cnj(z11)*abs(x11) )

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to the x buffer. LSB apply to first lane
xstep	Step between each column for selection in the xbuffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lnegmul2_abs_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-negate intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer using small X input buffer.

acc0 = -( cnj(z00)*abs(x00) + cnj(z01)*abs(x01) )

acc1 = -( cnj(z10)*abs(x10) + cnj(z11)*abs(x11) )

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to the x buffer. LSB apply to first lane
xstep	Step between each column for selection in the xbuffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lnegmul2_max_c	(	v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-negate intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer .

acc0 = -( cnj(z00)*(max(x00 , y00)) + cnj(z01)*(max(x01 , y01)) )

acc1 = -( cnj(z10)*(max(x10 , y10)) + cnj(z11)*(max(x11 , y11)) )

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lnegmul2_max_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-negate intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

acc0 = -( cnj(z00)*(max(x00 , y00)) + cnj(z01)*(max(x01 , y01)) )

acc1 = -( cnj(z10)*(max(x10 , y10)) + cnj(z11)*(max(x11 , y11)) )

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lnegmul2_max_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		v16int32	ybuff,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-negate intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

acc0 = -( cnj(z00)*(max(x00 , y00)) + cnj(z01)*(max(x01 , y01)) )

acc1 = -( cnj(z10)*(max(x10 , y10)) + cnj(z11)*(max(x11 , y11)) )

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ybuff	Right input buffer of 16 elements of type int32
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lnegmul2_maxdiff_c	(	v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-negate intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer .

acc0 = -( cnj(z00)*((x00 - y00 > 0) ? (x00 - y00):0) + cnj(z01)*((x01 - y01 > 0) ? (x01 - y01):0) )

acc1 = -( cnj(z10)*((x10 - y10 > 0) ? (x10 - y10):0) + cnj(z11)*((x11 - y11 > 0) ? (x11 - y11):0) )

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lnegmul2_maxdiff_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-negate intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

acc0 = -( cnj(z00)*((x00 - y00 > 0) ? (x00 - y00):0) + cnj(z01)*((x01 - y01 > 0) ? (x01 - y01):0) )

acc1 = -( cnj(z10)*((x10 - y10 > 0) ? (x10 - y10):0) + cnj(z11)*((x11 - y11 > 0) ? (x11 - y11):0) )

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lnegmul2_maxdiff_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		v16int32	ybuff,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-negate intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

acc0 = -( cnj(z00)*((x00 - y00 > 0) ? (x00 - y00):0) + cnj(z01)*((x01 - y01 > 0) ? (x01 - y01):0) )

acc1 = -( cnj(z10)*((x10 - y10 > 0) ? (x10 - y10):0) + cnj(z11)*((x11 - y11 > 0) ? (x11 - y11):0) )

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ybuff	Right input buffer of 16 elements of type int32
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lnegmul2_min_c	(	v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-negate intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer .

acc0 = -( cnj(z00)*(min(x00 , y00)) + cnj(z01)*(min(x01 , y01)) )

acc1 = -( cnj(z10)*(min(x10 , y10)) + cnj(z11)*(min(x11 , y11)) )

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lnegmul2_min_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-negate intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

acc0 = -( cnj(z00)*(min(x00 , y00)) + cnj(z01)*(min(x01 , y01)) )

acc1 = -( cnj(z10)*(min(x10 , y10)) + cnj(z11)*(min(x11 , y11)) )

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v2cacc80 lnegmul2_min_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	xstep,
		v16int32	ybuff,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets,
		int	zstep
	)

Complex multiply-negate intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

acc0 = -( cnj(z00)*(min(x00 , y00)) + cnj(z01)*(min(x01 , y01)) )

acc1 = -( cnj(z10)*(min(x10 , y10)) + cnj(z11)*(min(x11 , y11)) )

Returns: Returned accumulation vector (2 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
xstep	Step between each column for selection in the x and y buffers. Ystep is symmetric to xstep (ystep advances by -xstep).
ybuff	Right input buffer of 16 elements of type int32
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane
zstep	Step between each column for selection in the zbuffer.

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lnegmul4_abs_c	(	v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-negate intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer .

acc0 = -( cnj(z00)*abs(x00) )
acc1 = -( cnj(z10)*abs(x10) )
acc2 = -( cnj(z20)*abs(x20) )
acc3 = -( cnj(z30)*abs(x30) )

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to the x buffer. LSB apply to first lane
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lnegmul4_abs_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-negate intrinsic function with z buffer conjugation after computing the absolute value in the selected lanes from the input buffer using small X input buffer.

acc0 = -( cnj(z00)*abs(x00) )
acc1 = -( cnj(z10)*abs(x10) )
acc2 = -( cnj(z20)*abs(x20) )
acc3 = -( cnj(z30)*abs(x30) )

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to the x buffer. LSB apply to first lane
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lnegmul4_max_c	(	v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-negate intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer .

acc0 = -( cnj(z00)*(max(x00 , y00)) )
acc1 = -( cnj(z10)*(max(x10 , y10)) )
acc2 = -( cnj(z20)*(max(x20 , y20)) )
acc3 = -( cnj(z30)*(max(x30 , y30)) )

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lnegmul4_max_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-negate intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

acc0 = -( cnj(z00)*(max(x00 , y00)) )
acc1 = -( cnj(z10)*(max(x10 , y10)) )
acc2 = -( cnj(z20)*(max(x20 , y20)) )
acc3 = -( cnj(z30)*(max(x30 , y30)) )

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lnegmul4_max_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		v16int32	ybuff,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-negate intrinsic function with z buffer conjugation after computing the maximum between the selected lanes from the input buffer using small X input buffer.

acc0 = -( cnj(z00)*(max(x00 , y00)) )
acc1 = -( cnj(z10)*(max(x10 , y10)) )
acc2 = -( cnj(z20)*(max(x20 , y20)) )
acc3 = -( cnj(z30)*(max(x30 , y30)) )

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ybuff	Right input buffer of 16 elements of type int32
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lnegmul4_maxdiff_c	(	v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-negate intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer .

acc0 = -( cnj(z00)*((x00 - y00 > 0) ? (x00 - y00):0) )
acc1 = -( cnj(z10)*((x10 - y10 > 0) ? (x10 - y10):0) )
acc2 = -( cnj(z20)*((x20 - y20 > 0) ? (x20 - y20):0) )
acc3 = -( cnj(z30)*((x30 - y30 > 0) ? (x30 - y30):0) )

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lnegmul4_maxdiff_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-negate intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

acc0 = -( cnj(z00)*((x00 - y00 > 0) ? (x00 - y00):0) )
acc1 = -( cnj(z10)*((x10 - y10 > 0) ? (x10 - y10):0) )
acc2 = -( cnj(z20)*((x20 - y20 > 0) ? (x20 - y20):0) )
acc3 = -( cnj(z30)*((x30 - y30 > 0) ? (x30 - y30):0) )

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lnegmul4_maxdiff_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		v16int32	ybuff,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-negate intrinsic function with z buffer conjugation after computing the maximum difference between the selected lanes from the input buffer using small X input buffer.

acc0 = -( cnj(z00)*((x00 - y00 > 0) ? (x00 - y00):0) )
acc1 = -( cnj(z10)*((x10 - y10 > 0) ? (x10 - y10):0) )
acc2 = -( cnj(z20)*((x20 - y20 > 0) ? (x20 - y20):0) )
acc3 = -( cnj(z30)*((x30 - y30 > 0) ? (x30 - y30):0) )

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ybuff	Right input buffer of 16 elements of type int32
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lnegmul4_min_c	(	v32int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-negate intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer .

acc0 = -( cnj(z00)*(min(x00 , y00)) )
acc1 = -( cnj(z10)*(min(x10 , y10)) )
acc2 = -( cnj(z20)*(min(x20 , y20)) )
acc3 = -( cnj(z30)*(min(x30 , y30)) )

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

xbuff	Input buffer of 32 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lnegmul4_min_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-negate intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

acc0 = -( cnj(z00)*(min(x00 , y00)) )
acc1 = -( cnj(z10)*(min(x10 , y10)) )
acc2 = -( cnj(z20)*(min(x20 , y20)) )
acc3 = -( cnj(z30)*(min(x30 , y30)) )

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

v4cacc80 lnegmul4_min_c	(	v16int32	xbuff,
		int	xstart,
		unsigned int	xoffsets,
		v16int32	ybuff,
		int	ystart,
		v4cint32	zbuff,
		int	zstart,
		unsigned int	zoffsets
	)

Complex multiply-negate intrinsic function with z buffer conjugation after computing the minimum between the selected lanes from the input buffer using small X input buffer.

acc0 = -( cnj(z00)*(min(x00 , y00)) )
acc1 = -( cnj(z10)*(min(x10 , y10)) )
acc2 = -( cnj(z20)*(min(x20 , y20)) )
acc3 = -( cnj(z30)*(min(x30 , y30)) )

Returns: Returned accumulation vector (4 x cint80 lanes)

Parameters

xbuff	Input buffer of 16 elements of type int32
xstart	Starting position offset applied to all lanes of input from X buffer.
xoffsets	4b offset for each lane, applied to both x and y buffers. LSB apply to first lane
ybuff	Right input buffer of 16 elements of type int32
ystart	Starting position offset applied to all lanes for input from Y buffer.
zbuff	Input buffer of 4 elements of type cint32
zstart	Starting position offset applied to all lanes for input from Z buffer. This must be a compile time constant. Only the 4 LSB of the argument are used.
zoffsets	4b offset for each lane, applied to input from Z buffer. LSB apply to first lane

Note

For more information on how data selection works from the buffers go here. The data buffer and coefficient buffer in this intrinsic use the general scheme.
Parameter 'zstart' must be a compile time constant.

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