size = 0, /* nr. of atoms in group. same as nr_tails */
i, j, m, k, l, teller = 0,
slice, /* current slice number */
- nr_frames = 0,
- *slCount; /* nr. of atoms in one slice */
+ nr_frames = 0;
+ int *slCount; /* nr. of atoms in one slice */
real dbangle = 0, /* angle between double bond and axis */
sdbangle = 0; /* sum of these angles */
gmx_bool use_unitvector = FALSE; /* use a specified unit vector instead of axis to specify unit normal*/
svmul(1.0/distsize, dref, dref);
if (radial)
{
- pbc_dx(&pbc, dref, com, dvec);
+ pbc_dx(&pbc, dref, com, dvec);
unitv(dvec, dvec);
}
}
if (radial)
{
/* bin order parameter by arc distance from reference group*/
- arcdist = gmx_angle(dvec,direction);
+ arcdist = gmx_angle(dvec, direction);
(*distvals)[j][i] += arcdist;
}
else if (i == 1)
{
/* Want minimum lateral distance to first group calculated */
tmpdist = trace(box); /* should be max value */
- for (k=0;k<distsize;k++)
+ for (k = 0; k < distsize; k++)
{
pbc_dx(&pbc, x1[distidx[k]], x1[a[index[i]+j]], dvec);
/* at the moment, just remove dvec[axis] */
dvec[axis] = 0;
- tmpdist = min(tmpdist, norm2(dvec));
+ tmpdist = min(tmpdist, norm2(dvec));
}
- //fprintf(stderr, "Min dist %f; trace %f\n", tmpdist, trace(box));
- (*distvals)[j][i]+=sqrt(tmpdist);
+ //fprintf(stderr, "Min dist %f; trace %f\n", tmpdist, trace(box));
+ (*distvals)[j][i] += sqrt(tmpdist);
}
}
} /* end loop j, over all atoms in group */