def calculate_adjusted_sa(ma,phases,b, resolution=None, d_min_ratio=None, solvent_fraction=None, region_weight=None, max_regions_to_test=None, sa_percent=None, fraction_occupied=None, wrapping=None, n_real=None): map_data=get_sharpened_map(ma,phases,b,resolution,n_real=n_real, d_min_ratio=d_min_ratio) from cctbx.maptbx.segment_and_split_map import score_map from libtbx.utils import null_out si=score_map( map_data=map_data, solvent_fraction=solvent_fraction, fraction_occupied=fraction_occupied, wrapping=wrapping, sa_percent=sa_percent, region_weight=region_weight, max_regions_to_test=max_regions_to_test, out=null_out()) return si.adjusted_sa
def calculate_adjusted_sa(ma,phases,b, d_cut=None, solvent_fraction=None, region_weight=None, max_regions_to_test=None, sa_percent=None, fraction_occupied=None, wrapping=None, n_real=None): map_data=get_sharpened_map(ma,phases,b,d_cut,n_real=n_real) from cctbx.maptbx.segment_and_split_map import score_map from libtbx.utils import null_out si=score_map( map_data=map_data, solvent_fraction=solvent_fraction, fraction_occupied=fraction_occupied, wrapping=wrapping, sa_percent=sa_percent, region_weight=region_weight, max_regions_to_test=max_regions_to_test, out=null_out()) return si.adjusted_sa