int edge_dist, Eina_Bool reverse)
{
if (eidx == 1) reverse = !reverse;
- int coverage = (256 / (diagonal + 2));
+ int coverage = (255 / (diagonal + 2));
int tmp;
for (int ry = 0; ry < (diagonal + 2); ry++)
{
tmp = y - ry - edge_dist;
if (tmp < 0) return;
spans[tmp].aa_len[eidx] = 1;
- if (reverse) spans[tmp].aa_cov[eidx] = 256 - (coverage * ry);
+ if (reverse) spans[tmp].aa_cov[eidx] = 255 - (coverage * ry);
else spans[tmp].aa_cov[eidx] = (coverage * ry);
}
}
calc_vert_coverage(Line *spans, int eidx, int y, int rewind, Eina_Bool reverse)
{
if (eidx == 1) reverse = !reverse;
- int coverage = (256 / (rewind + 1));
+ int coverage = (255 / (rewind + 1));
int tmp;
for (int ry = 1; ry < (rewind + 1); ry++)
{
tmp = y - ry;
if (tmp < 0 ) return;
spans[tmp].aa_len[eidx] = 1;
- if (reverse) spans[tmp].aa_cov[eidx] = (256 - (coverage * ry));
+ if (reverse) spans[tmp].aa_cov[eidx] = (255 - (coverage * ry));
else spans[tmp].aa_cov[eidx] = (coverage * ry);
}
}
if (spans[y].aa_len[eidx] < abs(x - x2))
{
spans[y].aa_len[eidx] = abs(x - x2);
- spans[y].aa_cov[eidx] = (256 / (spans[y].aa_len[eidx] + 1));
+ spans[y].aa_cov[eidx] = (255 / (spans[y].aa_len[eidx] + 1));
}
}
//Right Edge Anti Aliasing
if (line->aa_len[1] >= ww)
{
- return MUL_256(256 - (line->aa_cov[1] * (line->aa_len[1] - ww + 1)),
+ return MUL_256(255 - (line->aa_cov[1] * (line->aa_len[1] - ww + 1)),
val);
}
//Remove Transparency if src image alpha is off.