def __init__(self,pd,horizons_phil):
#initialVolumeFactor = 1.8 # Legacy value=1.5 prior to 7/17/07
initialVolumeFactor = horizons_phil.integration.initial_volume_factor
self.subsequentVolumeFactor = 1.5 # this value not used by stats_mtz; see stats_mtz code
if horizons_phil.mosflm_integration_reslimit_override!=None:
self.initial_limit = horizons_phil.mosflm_integration_reslimit_override
self.outer_limit = self.initial_limit
else:
#resolution_inspection from DISTL is a conservative estimate
#increase the reciprocal space volume by factor of 1.5 for trial integration
from math import pow
trial_reslimit = float(pd["resolution_inspection"])/pow(initialVolumeFactor,1.0/3.0)
from labelit.dptbx import AutoIndexEngine,Parameters
ai = AutoIndexEngine(pd['endstation'],
horizons_phil.model_refinement_minimum_N) #Just a container for a few parameters
base = Parameters(xbeam = float(pd['xbeam']), ybeam = float(pd['ybeam']),
distance = float(pd['distance']), twotheta = 0.0 )
ai.setBase(base)
ai.setWavelength(float(pd['wavelength']))
safety = SafetyLimits(pd,ai).safety_limit(
algorithm = horizons_phil.mosflm_safety_algorithm)
self.outer_limit = safety
self.initial_limit = max((trial_reslimit,safety))
"""synopsis:
LABELIT integrates to determine the best-estimate of
dataset resolution. After integration out to the image corner, an
intensity log-plot is used to linearly extrapolate out to an I/sigma
of 0.75, based on all partials and fulls. Ana Gonzalez requested that
this be changed to the image edge, because of MOSFLM problems in cases
where the diffraction is of low quality or low resolution. Unfortunately,
using a cutoff at the edge is counter-productive in cases where diffraction
extends past the corners. In those cases, the log-linear extrapolation
invariably leads to a resolution estimate that is more optimistic (lower
Angstrom cutoff) than when all of the data is used out to the image corner.
Edge cutoff is therefore not recommended. However, it is now available as
a configurable choice using the command line argument:
mosflm_safety_algorithm=[corner|edge] (default = corner).
#print pd['file'][pd['file'].keys()[0]]
#print "corner: %.2f"%(max((trial_reslimit,interface.SafetyLimits(pd,ai).safety_limit(algorithm="corner"))))
#print " edge: %.2f"%(max((trial_reslimit,interface.SafetyLimits(pd,ai).safety_limit(algorithm="edge"))))
"""
self.current_limit = self.initial_limit
def __init__(self, pd, horizons_phil):
#initialVolumeFactor = 1.8 # Legacy value=1.5 prior to 7/17/07
initialVolumeFactor = horizons_phil.integration.initial_volume_factor
self.subsequentVolumeFactor = 1.5 # this value not used by stats_mtz; see stats_mtz code
if horizons_phil.mosflm_integration_reslimit_override != None:
self.initial_limit = horizons_phil.mosflm_integration_reslimit_override
self.outer_limit = self.initial_limit
else:
#resolution_inspection from DISTL is a conservative estimate
#increase the reciprocal space volume by factor of 1.5 for trial integration
from math import pow
trial_reslimit = float(pd["resolution_inspection"]) / pow(
initialVolumeFactor, 1.0 / 3.0)
from labelit.dptbx import AutoIndexEngine, Parameters
ai = AutoIndexEngine(pd['endstation'],
horizons_phil.model_refinement_minimum_N
) #Just a container for a few parameters
base = Parameters(xbeam=float(pd['xbeam']),
ybeam=float(pd['ybeam']),
distance=float(pd['distance']),
twotheta=0.0)
ai.setBase(base)
ai.setWavelength(float(pd['wavelength']))
safety = SafetyLimits(pd, ai).safety_limit(
algorithm=horizons_phil.mosflm_safety_algorithm)
self.outer_limit = safety
self.initial_limit = max((trial_reslimit, safety))
"""synopsis:
LABELIT integrates to determine the best-estimate of
dataset resolution. After integration out to the image corner, an
intensity log-plot is used to linearly extrapolate out to an I/sigma
of 0.75, based on all partials and fulls. Ana Gonzalez requested that
this be changed to the image edge, because of MOSFLM problems in cases
where the diffraction is of low quality or low resolution. Unfortunately,
using a cutoff at the edge is counter-productive in cases where diffraction
extends past the corners. In those cases, the log-linear extrapolation
invariably leads to a resolution estimate that is more optimistic (lower
Angstrom cutoff) than when all of the data is used out to the image corner.
Edge cutoff is therefore not recommended. However, it is now available as
a configurable choice using the command line argument:
mosflm_safety_algorithm=[corner|edge] (default = corner).
#print pd['file'][pd['file'].keys()[0]]
#print "corner: %.2f"%(max((trial_reslimit,interface.SafetyLimits(pd,ai).safety_limit(algorithm="corner"))))
#print " edge: %.2f"%(max((trial_reslimit,interface.SafetyLimits(pd,ai).safety_limit(algorithm="edge"))))
"""
self.current_limit = self.initial_limit
def integrate_one_character(self,setting,integration_limit):
#from libtbx.development.timers import Profiler
#P = Profiler("Preliminary")
import copy
local = copy.deepcopy(self.process_dictionary)
local['cell']=cellstr(setting)
print("Cell in setting",setting["counter"],local["cell"])
frames = list(sorted(self.spotfinder_results.pd['osc_start'].keys()))
local['maxcel']='0'
local['xbeam']="%f"%setting['minimizer'].new['xbeam']
local['ybeam']="%f"%setting['minimizer'].new['ybeam']
local['distance']="%f"%setting['minimizer'].new['distance']
local["resolution"]= "%f"%integration_limit
from labelit.steps import primaries
local['spacegroup'] = primaries[setting['bravais']]
local['procstart'] = local['procend'] = "%d"%frames[0]
self.pixel_size = float(local['pixel_size'])
from labelit.dptbx import AutoIndexEngine, Parameters
ai = AutoIndexEngine(local['endstation'])
P = Parameters(xbeam=setting["refined x beam"],ybeam=setting["refined y beam"],
distance=setting["refined distance"],twotheta=float(local["twotheta"]))
ai.setBase(P)
ai.setWavelength(float(local['wavelength']))
ai.setMaxcell(float(local['ref_maxcel']))
print("Deltaphi is",float(local['deltaphi']))
ai.setDeltaphi(float(local['deltaphi'])*math.pi/180.)
ai.setMosaicity(setting["mosaicity"])
ai.setOrientation(setting["orient"])
refimage = self.files.images[0]
ai.set_active_areas(self.horizons_phil,
beam=(int(refimage.beamx/refimage.pixel_size),
int(refimage.beamy/refimage.pixel_size)))
image_centers = [(math.pi/180.)*float(x) for x in local["osc_start"].values()]
print("Limiting resolution",integration_limit)
local["results"] = []
for i in range(len(frames)):
print("---------BEGIN Integrate one frame %d %s" % \
(frames[i], os.path.split(self.files.filenames()[i])[-1]))
#P = Profiler("worker")
if self.horizons_phil.integration.combine_sym_constraints_and_3D_target and setting["counter"]>1:
from rstbx.apps.stills.dials_refinement_preceding_integration import integrate_one_frame
integrate_worker = integrate_one_frame(self.triclinic["integration"]["results"][0])
else:
from rstbx.apps.stills.deltapsi_refinement_preceding_integration import integrate_one_frame
integrate_worker = integrate_one_frame()
integrate_worker.inputai = ai
integrate_worker.inputpd = dict(masks=local["masks"],
size1=local["size1"],
size2=local["size2"],
symmetry=setting["best_subsym"])
# carefully select only the data items needed for integrate_worker
# avoid giving the whole process dictionary; reference to "local"
# is a circular reference creating memory leak, while copying the
# whole thing is a big performance hit.
integrate_worker.frame_numbers = frames
integrate_worker.imagefiles = self.files
integrate_worker.spotfinder = self.spotfinder_results
integrate_worker.image_centers = image_centers
integrate_worker.limiting_resolution = integration_limit
integrate_worker.setting_id = setting["counter"]
integrate_worker.pixel_size = self.pixel_size
integrate_worker.set_pixel_size(self.pixel_size)
integrate_worker.set_detector_size(int(local["size1"]),int(local["size2"]))
integrate_worker.set_detector_saturation(refimage.saturation)
integrate_worker.set_up_mask_focus()
integrate_worker.initialize_increments(i)
integrate_worker.horizons_phil = self.horizons_phil
if self.horizons_phil.indexing.verbose_cv:
print("EFFECTIVE TILING"," ".join(
["%d"%z for z in refimage.get_tile_manager(self.horizons_phil).effective_tiling_as_flex_int()]))
integrate_worker.integration_concept(image_number = i,
cb_op_to_primitive = setting["cb_op_inp_best"].inverse(),
verbose_cv = self.horizons_phil.indexing.verbose_cv,
background_factor = self.horizons_phil.integration.background_factor,
)
#P = Profiler("proper")
integrate_worker.integration_proper()
local["results"].append(integrate_worker)
local["r_xbeam"]=ai.xbeam()
local["r_ybeam"]=ai.ybeam()
local["r_distance"]=ai.distance()
local["r_wavelength"]=ai.wavelength
local["r_residual"]=integrate_worker.r_residual
local["r_mosaicity"]=setting["mosaicity"]
try:
local["ewald_proximal_volume"]=integrate_worker.ewald_proximal_volume
except Exception as e:
local["ewald_proximal_volume"]=None
if (self.horizons_phil.indexing.open_wx_viewer):
if True: #use updated slip viewer
try:
import wx
from rstbx.slip_viewer.frame import XrayFrame as SlipXrayFrame
from rstbx.command_line.slip_viewer import master_str as slip_params
from iotbx import phil
from spotfinder import phil_str
from spotfinder.command_line.signal_strength import additional_spotfinder_phil_defs
work_phil = phil.process_command_line("",master_string=slip_params + phil_str + additional_spotfinder_phil_defs)
work_params = work_phil.work.extract()
app = wx.App(0)
wx.SystemOptions.SetOption("osx.openfiledialog.always-show-types", "1")
frame = SlipXrayFrame(None, -1, "X-ray image display", size=(800,720))
frame.Show()
# Update initial settings with values from the command line. Needs
# to be done before image is loaded (but after the frame is
# instantiated).
frame.inherited_params = integrate_worker.horizons_phil
frame.params = work_params
if (frame.pyslip is None):
frame.init_pyslip()
if (frame.settings_frame is None):
frame.OnShowSettings(None)
frame.Layout()
frame.pyslip.tiles.user_requests_antialiasing = work_params.anti_aliasing
frame.settings_frame.panel.center_ctrl.SetValue(True)
frame.settings_frame.panel.integ_ctrl.SetValue(True)
frame.settings_frame.panel.spots_ctrl.SetValue(False)
frame.settings.show_effective_tiling = work_params.show_effective_tiling
frame.settings_frame.panel.collect_values()
paths = work_phil.remaining_args
frame.user_callback = integrate_worker.slip_callback
frame.load_image(self.files.filenames()[i])
app.MainLoop()
del app
except Exception:
pass # must use phenix.wxpython for wx display
elif False : #original wx viewer
try:
from rstbx.viewer.frame import XrayFrame
import wx
from rstbx.viewer import display
display.user_callback = integrate_worker.user_callback
app = wx.App(0)
frame = XrayFrame(None, -1, "X-ray image display", size=(1200,1080))
frame.settings.show_spotfinder_spots = False
frame.settings.show_integration = False
#frame.settings.enable_collect_values = False
frame.SetSize((1024,780))
frame.load_image(self.files.filenames()[i])
frame.Show()
app.MainLoop()
del app
except Exception:
pass # must use phenix.wxpython for wx display
# for the wx image viewer
filename = self.horizons_phil.indexing.indexing_pickle
if filename != None:
filename = "%s_%d_%d.pkl"%(filename,setting["counter"],keys[i])
SIO = StringIO()
table_raw = show_observations(integrate_worker.get_obs(
local["spacegroup"]),out=SIO)
limitobject = ResolutionAnalysisMetaClass(local, self.horizons_phil)
info = dict(table = SIO.getvalue(),
table_raw = table_raw,
xbeam = setting["refined x beam"],
ybeam = setting["refined y beam"],
distance = setting["refined distance"],
residual = integrate_worker.r_residual,
resolution = limitobject.value, # FIXME not reliable?
mosaicity = setting["mosaicity"],
pointgroup = local["spacegroup"],
hkllist = integrate_worker.hkllist,
predictions = (1./integrate_worker.pixel_size)*integrate_worker.predicted,
mapped_predictions = integrate_worker.detector_xy,
integration_masks_xy = integrate_worker.integration_masks_as_xy_tuples(),
background_masks_xy = integrate_worker.background_masks_as_xy_tuples()
)
assert info["predictions"].size() >= info["mapped_predictions"].size()
assert info["predictions"].size() == info["hkllist"].size()
G = open(filename,"wb")
pickle.dump(info,G,pickle.HIGHEST_PROTOCOL)
print("---------END Integrate one frame",frames[i])
return local
def analyze_one(self, solution):
inputpd = self.Org.process()
settings = pickle.load(open("LABELIT_possible", "rb"))
setting = [
setting for setting in settings if setting["counter"] == solution
][0]
from labelit.preferences import labelit_commands as param
pixel_size = float(inputpd['pixel_size'])
self.pixel_size = pixel_size
from labelit.dptbx import AutoIndexEngine, Parameters
ai = AutoIndexEngine(inputpd['endstation'])
P = Parameters(xbeam=setting["refined x beam"],
ybeam=setting["refined y beam"],
distance=setting["refined distance"],
twotheta=float(inputpd["twotheta"]))
ai.setBase(P)
ai.setWavelength(float(inputpd['wavelength']))
ai.setMaxcell(float(inputpd['ref_maxcel']))
print "Deltaphi is", float(inputpd['deltaphi'])
ai.setDeltaphi(float(inputpd['deltaphi']) * math.pi / 180.)
ai.setMosaicity(setting["mosaicity"])
ai.setOrientation(setting["orient"])
#why aren't hexagonal constraints applied here???
print inputpd["osc_start"]
image_centers = [(math.pi / 180.) * float(x)
for x in inputpd["osc_start"].values()]
limiting_resolution = param.distl_highres_limit
print "Limiting resolution", limiting_resolution
#predict the spots
spots = ai.predict_all(image_centers[0], limiting_resolution)
pre2m = spots.vec3()
self.pre2m = pre2m
hkllist = spots.hkl()
cell = ai.getOrientation().unit_cell()
print cell
for hkl in hkllist:
#print "%25s %5.2f"%(str(hkl),cell.d(hkl))
assert cell.d(hkl) >= limiting_resolution
print "Number of hkls:", (hkllist).size(),
print "all inside the %4.2f Angstrom limiting sphere." % limiting_resolution
print "The unit cell is", cell
self.solution_setting_ai = ai
self.solution_pd = inputpd
self.image_centers = image_centers
self.one_setting = setting
return [ai.getOrientation().unit_cell(), hkllist]
def analyze_one(self,solution):
inputpd = self.Org.process()
settings = pickle.load(open("LABELIT_possible","rb"))
setting = [setting for setting in settings if setting["counter"]==solution][0]
from labelit.preferences import labelit_commands as param
pixel_size = float(inputpd['pixel_size'])
self.pixel_size = pixel_size
from labelit.dptbx import AutoIndexEngine, Parameters
ai = AutoIndexEngine(inputpd['endstation'])
P = Parameters(xbeam=setting["refined x beam"],ybeam=setting["refined y beam"],
distance=setting["refined distance"],twotheta=float(inputpd["twotheta"]))
ai.setBase(P)
ai.setWavelength(float(inputpd['wavelength']))
ai.setMaxcell(float(inputpd['ref_maxcel']))
print "Deltaphi is",float(inputpd['deltaphi'])
ai.setDeltaphi(float(inputpd['deltaphi'])*math.pi/180.)
ai.setMosaicity(setting["mosaicity"])
ai.setOrientation(setting["orient"])
#why aren't hexagonal constraints applied here???
print inputpd["osc_start"]
image_centers = [(math.pi/180.)*float(x) for x in inputpd["osc_start"].values()]
limiting_resolution = param.distl_highres_limit
print "Limiting resolution",limiting_resolution
#predict the spots
spots = ai.predict_all(image_centers[0],limiting_resolution)
pre2m = spots.vec3()
self.pre2m = pre2m
hkllist = spots.hkl()
cell = ai.getOrientation().unit_cell()
print cell
for hkl in hkllist:
#print "%25s %5.2f"%(str(hkl),cell.d(hkl))
assert cell.d(hkl)>=limiting_resolution
print "Number of hkls:",(hkllist).size(),
print "all inside the %4.2f Angstrom limiting sphere."%limiting_resolution
print "The unit cell is",cell
self.solution_setting_ai = ai
self.solution_pd = inputpd
self.image_centers = image_centers
self.one_setting = setting
return [ai.getOrientation().unit_cell(),hkllist]
def integrate_one_character(self,setting,integration_limit):
#from libtbx.development.timers import Profiler
#P = Profiler("Preliminary")
import copy
local = copy.deepcopy(self.process_dictionary)
local['cell']=cellstr(setting)
print "Cell in setting",setting["counter"],local["cell"]
frames = self.spotfinder_results.pd['osc_start'].keys()
frames.sort()
local['maxcel']='0'
local['xbeam']="%f"%setting['minimizer'].new['xbeam']
local['ybeam']="%f"%setting['minimizer'].new['ybeam']
local['distance']="%f"%setting['minimizer'].new['distance']
local["resolution"]= "%f"%integration_limit
from labelit.steps import primaries
local['spacegroup'] = primaries[setting['bravais']]
local['procstart'] = local['procend'] = "%d"%frames[0]
self.pixel_size = float(local['pixel_size'])
from labelit.dptbx import AutoIndexEngine, Parameters
ai = AutoIndexEngine(local['endstation'])
P = Parameters(xbeam=setting["refined x beam"],ybeam=setting["refined y beam"],
distance=setting["refined distance"],twotheta=float(local["twotheta"]))
ai.setBase(P)
ai.setWavelength(float(local['wavelength']))
ai.setMaxcell(float(local['ref_maxcel']))
print "Deltaphi is",float(local['deltaphi'])
ai.setDeltaphi(float(local['deltaphi'])*math.pi/180.)
ai.setMosaicity(setting["mosaicity"])
ai.setOrientation(setting["orient"])
refimage = self.files.images[0]
ai.set_active_areas(self.horizons_phil,
beam=(int(refimage.beamx/refimage.pixel_size),
int(refimage.beamy/refimage.pixel_size)))
image_centers = [(math.pi/180.)*float(x) for x in local["osc_start"].values()]
print "Limiting resolution",integration_limit
local["results"] = []
for i in xrange(len(frames)):
print "---------BEGIN Integrate one frame %d %s" % \
(frames[i], os.path.split(self.files.filenames()[i])[-1])
#P = Profiler("worker")
if self.horizons_phil.integration.combine_sym_constraints_and_3D_target and setting["counter"]>1:
from rstbx.apps.stills.dials_refinement_preceding_integration import integrate_one_frame
integrate_worker = integrate_one_frame(self.triclinic["integration"]["results"][0])
else:
from rstbx.apps.stills.deltapsi_refinement_preceding_integration import integrate_one_frame
integrate_worker = integrate_one_frame()
integrate_worker.inputai = ai
integrate_worker.inputpd = dict(masks=local["masks"],
size1=local["size1"],
size2=local["size2"],
symmetry=setting["best_subsym"])
# carefully select only the data items needed for integrate_worker
# avoid giving the whole process dictionary; reference to "local"
# is a circular reference creating memory leak, while copying the
# whole thing is a big performance hit.
integrate_worker.frame_numbers = frames
integrate_worker.imagefiles = self.files
integrate_worker.spotfinder = self.spotfinder_results
integrate_worker.image_centers = image_centers
integrate_worker.limiting_resolution = integration_limit
integrate_worker.setting_id = setting["counter"]
integrate_worker.pixel_size = self.pixel_size
integrate_worker.set_pixel_size(self.pixel_size)
integrate_worker.set_detector_size(int(local["size1"]),int(local["size2"]))
integrate_worker.set_detector_saturation(refimage.saturation)
integrate_worker.set_up_mask_focus()
integrate_worker.initialize_increments(i)
integrate_worker.horizons_phil = self.horizons_phil
if self.horizons_phil.indexing.verbose_cv:
print "EFFECTIVE TILING"," ".join(
["%d"%z for z in refimage.get_tile_manager(self.horizons_phil).effective_tiling_as_flex_int()])
integrate_worker.integration_concept(image_number = i,
cb_op_to_primitive = setting["cb_op_inp_best"].inverse(),
verbose_cv = self.horizons_phil.indexing.verbose_cv,
background_factor = self.horizons_phil.integration.background_factor,
)
#P = Profiler("proper")
integrate_worker.integration_proper()
local["results"].append(integrate_worker)
local["r_xbeam"]=ai.xbeam()
local["r_ybeam"]=ai.ybeam()
local["r_distance"]=ai.distance()
local["r_wavelength"]=ai.wavelength
local["r_residual"]=integrate_worker.r_residual
local["r_mosaicity"]=setting["mosaicity"]
try:
local["ewald_proximal_volume"]=integrate_worker.ewald_proximal_volume
except Exception, e:
local["ewald_proximal_volume"]=None
if (self.horizons_phil.indexing.open_wx_viewer) :
if True: #use updated slip viewer
try:
import wx
from rstbx.slip_viewer.frame import XrayFrame as SlipXrayFrame
from rstbx.command_line.slip_viewer import master_str as slip_params
from iotbx import phil
from spotfinder import phil_str
from spotfinder.command_line.signal_strength import additional_spotfinder_phil_defs
work_phil = phil.process_command_line("",master_string=slip_params + phil_str + additional_spotfinder_phil_defs)
work_params = work_phil.work.extract()
app = wx.App(0)
wx.SystemOptions.SetOptionInt("osx.openfiledialog.always-show-types", 1)
frame = SlipXrayFrame(None, -1, "X-ray image display", size=(800,720))
frame.Show()
# Update initial settings with values from the command line. Needs
# to be done before image is loaded (but after the frame is
# instantiated).
frame.inherited_params = integrate_worker.horizons_phil
frame.params = work_params
if (frame.pyslip is None):
frame.init_pyslip()
if (frame.settings_frame is None):
frame.OnShowSettings(None)
frame.Layout()
frame.pyslip.tiles.user_requests_antialiasing = work_params.anti_aliasing
frame.settings_frame.panel.center_ctrl.SetValue(True)
frame.settings_frame.panel.integ_ctrl.SetValue(True)
frame.settings_frame.panel.spots_ctrl.SetValue(False)
frame.settings.show_effective_tiling = work_params.show_effective_tiling
frame.settings_frame.panel.collect_values()
paths = work_phil.remaining_args
frame.user_callback = integrate_worker.slip_callback
frame.load_image(self.files.filenames()[i])
app.MainLoop()
del app
except Exception:
pass # must use phenix.wxpython for wx display
elif False : #original wx viewer
try:
from rstbx.viewer.frame import XrayFrame
import wx
from rstbx.viewer import display
display.user_callback = integrate_worker.user_callback
app = wx.App(0)
frame = XrayFrame(None, -1, "X-ray image display", size=(1200,1080))
frame.settings.show_spotfinder_spots = False
frame.settings.show_integration = False
#frame.settings.enable_collect_values = False
frame.SetSize((1024,780))
frame.load_image(self.files.filenames()[i])
frame.Show()
app.MainLoop()
del app
except Exception:
pass # must use phenix.wxpython for wx display
# for the wx image viewer
filename = self.horizons_phil.indexing.indexing_pickle
if filename != None:
filename = "%s_%d_%d.pkl"%(filename,setting["counter"],keys[i])
SIO = StringIO.StringIO()
table_raw = show_observations(integrate_worker.get_obs(
local["spacegroup"]),out=SIO)
limitobject = ResolutionAnalysisMetaClass(local, self.horizons_phil)
info = dict(table = SIO.getvalue(),
table_raw = table_raw,
xbeam = setting["refined x beam"],
ybeam = setting["refined y beam"],
distance = setting["refined distance"],
residual = integrate_worker.r_residual,
resolution = limitobject.value, # FIXME not reliable?
mosaicity = setting["mosaicity"],
pointgroup = local["spacegroup"],
hkllist = integrate_worker.hkllist,
predictions = (1./integrate_worker.pixel_size)*integrate_worker.predicted,
mapped_predictions = integrate_worker.detector_xy,
integration_masks_xy = integrate_worker.integration_masks_as_xy_tuples(),
background_masks_xy = integrate_worker.background_masks_as_xy_tuples()
)
assert info["predictions"].size() >= info["mapped_predictions"].size()
assert info["predictions"].size() == info["hkllist"].size()
G = open(filename,"wb")
pickle.dump(info,G,pickle.HIGHEST_PROTOCOL)
print "---------END Integrate one frame",frames[i]
def process(work_params, spots, sampling_resolution_factor=0.5):
import libtbx.load_env
libtbx.env.require_module("labelit")
spots_high_res = get_spots_high_resolution(
work_params=work_params, spots=spots)
if (spots_high_res is None):
return
uc = work_params.unit_cell
uc_max_length = max(uc.parameters()[0:3])
sampling = sampling_resolution_factor * spots_high_res / uc_max_length
#
from labelit.preferences import labelit_commands
labelit_commands.model_refinement_minimum_N = 10
labelit_commands.target_cell = uc
print "labelit_commands.target_cell:", labelit_commands.target_cell
#
from scitbx.array_family import flex
raw_spot_input = flex.vec3_double()
dsx,dsy = work_params.detector.size
dpx,dpy = work_params.detector.pixels
sopx,sopy = dsx/dpx, dsy/dpy
for spot in spots: # XXX C++
x, y = spot.ctr_mass_x(), spot.ctr_mass_y()
raw_spot_input.append((x*sopx+0.5, y*sopy+0.5, 0.0))
#
from labelit.dptbx import AutoIndexEngine, Parameters
from iotbx.detectors.context.endstation import EndStation
ai = AutoIndexEngine(EndStation(), sampling)
ai.setData(raw_spot_input)
ai_params = Parameters(
xbeam=dsx/2,
ybeam=dsy/2,
distance=work_params.detector.distance,
twotheta=0.)
ai.setBase(ai_params)
ai.setWavelength(work_params.wavelength)
ai.setMaxcell(1.25*max(uc.parameters()[0:3]))
ai.setDeltaphi(0.0)
f = ai.film_to_camera()
c = ai.camera_to_xyz()
#
from labelit.dptbx.sampling import HemisphereSampler
hem_samp = HemisphereSampler(
max_grid=sampling,
characteristic_grid=sampling,
quick_grid=0.016) # all grid parameters in radians
hem_samp.hemisphere(
ai=ai, size=30, cutoff_divisor=4.) # never change these parameters
#
from labelit.dptbx.basis_choice import SelectBasisMetaprocedure
pd = {}
sbm = SelectBasisMetaprocedure(
input_index_engine=ai,
input_dictionary=pd,
opt_rawframes=False,
opt_target=True,
reduce_target=False)
ai.fixsign()
return ai
