def run(args): work_params = get_phil(args) C = fit_translation(work_params) C.post_min_recalc() C.print_table() return None
def run(args):
work_params = get_phil(args)
C = fit_translation(work_params)
C.post_min_recalc()
C.print_table()
return None
def run(args):
work_params = get_phil(args)
C = fit_translation2(work_params)
C.post_min_recalc()
C.print_table()
sum_sq = 0.
for key in C.frame_delx.keys():
mn_x = flex.mean(C.frame_delx[key])
mn_y = flex.mean(C.frame_dely[key])
print("frame %d count %4d delx %7.2f dely %7.2f" %
(key, len(C.frame_delx[key]), mn_x, mn_y))
sum_sq += mn_x * mn_x + mn_y * mn_y
displacement = math.sqrt(sum_sq / len(C.frame_delx))
print("rms displacement of frames %7.2f" % displacement)
C.same_sensor_table()
return None
def run(args):
work_params = get_phil(args)
C = fit_translation2(work_params)
C.post_min_recalc()
C.print_table()
sum_sq = 0.
for key in C.frame_delx.keys():
mn_x = flex.mean(C.frame_delx[key])
mn_y = flex.mean(C.frame_dely[key])
print "frame %d count %4d delx %7.2f dely %7.2f"%(key,
len(C.frame_delx[key]),
mn_x,
mn_y )
sum_sq += mn_x*mn_x + mn_y*mn_y
displacement = math.sqrt(sum_sq / len(C.frame_delx.keys()))
print "rms displacement of frames %7.2f"%displacement
C.same_sensor_table()
return None