def _switch_factory(self, v_elem, klass=HardwareValve):
name = v_elem.text.strip()
address = v_elem.find('address')
act_elem = v_elem.find('actuator')
description = v_elem.find('description')
interlocks = [i.text.strip() for i in v_elem.findall('interlock')]
if description is not None:
description = description.text.strip()
actname = act_elem.text.strip() if act_elem is not None else 'valve_controller'
actuator = self.get_actuator_by_name(actname)
if actuator is None:
if not globalv.ignore_initialization_warnings:
self.warning_dialog(
'No actuator for {}. Valve will not operate. Check setupfiles/extractionline/valves.xml'.format(
name))
qs = True
vqs = v_elem.get('query_state')
if vqs:
qs = vqs == 'true'
parent = v_elem.find('parent')
parent_name = ''
parent_inverted = False
if parent is not None:
parent_name = parent.text.strip()
inverted = parent.find('inverted')
if inverted is not None:
parent_inverted = to_bool(inverted.text.strip())
check_actuation_enabled = True
cae = v_elem.find('check_actuation_enabled')
if cae is not None:
check_actuation_enabled = to_bool(cae.text.strip())
check_actuation_delay = 0
cad = v_elem.find('check_actuation_delay')
if cad is not None:
check_actuation_delay = float(cad.text.strip())
hv = klass(name,
address=address.text.strip() if address is not None else '',
parent=parent_name,
parent_inverted=parent_inverted,
check_actuation_enabled=check_actuation_enabled,
check_actuation_delay=check_actuation_delay,
actuator=actuator,
description=description,
query_state=qs,
interlocks=interlocks)
return name, hv
def _load_devices(self):
#read devices from config
#get device from app
app = self.application
parser = self._get_parser()
ds = []
for dev in parser.get_elements('device'):
name = dev.text.strip()
dname = dev.find('name')
if dname is None:
self.warning(
'no device name for {}. use a <name> tag'.format(name))
continue
dev_name = dname.text.strip()
device = None
if app:
device = app.get_service(ICoreDevice,
query='name=="{}"'.format(dev_name))
if device is None:
self.warning(
'no device named "{}" available'.format(dev_name))
continue
enabled = dev.find('use')
if enabled is not None:
enabled = to_bool(enabled.text.strip())
d = DashboardDevice(name=name, use=bool(enabled), _device=device)
for v in dev.findall('value'):
n = v.text.strip()
tag = '<{},{}>'.format(name, n)
func_name = self._get_xml_value(v, 'func', 'get')
period = self._get_xml_value(v, 'period', 60)
if not period == 'on_change':
try:
period = int(period)
except ValueError:
period = 60
enabled = to_bool(self._get_xml_value(v, 'enabled', False))
timeout = self._get_xml_value(v, 'timeout', 0)
d.add_value(n, tag, func_name, period, enabled, timeout)
ds.append(d)
self.devices = ds
def _load_devices(self):
# read devices from config
# get device from app
app = self.application
parser = self._get_parser()
ds = []
for dev in parser.get_elements("device"):
name = dev.text.strip()
dname = dev.find("name")
if dname is None:
self.warning("no device name for {}. use a <name> tag".format(name))
continue
dev_name = dname.text.strip()
device = None
if app:
device = app.get_service(ICoreDevice, query='name=="{}"'.format(dev_name))
if device is None:
self.warning('no device named "{}" available'.format(dev_name))
continue
enabled = dev.find("use")
if enabled is not None:
enabled = to_bool(enabled.text.strip())
d = DashboardDevice(name=name, use=bool(enabled), _device=device)
for v in dev.findall("value"):
n = v.text.strip()
tag = "<{},{}>".format(name, n)
func_name = self._get_xml_value(v, "func", "get")
period = self._get_xml_value(v, "period", 60)
if not period == "on_change":
try:
period = int(period)
except ValueError:
period = 60
enabled = to_bool(self._get_xml_value(v, "enabled", False))
timeout = self._get_xml_value(v, "timeout", 0)
d.add_value(n, tag, func_name, period, enabled, timeout)
ds.append(d)
self.devices = ds
def start(self):
logger.debug('starting update plugin')
pref=self.application.preferences
# print pref.get('pychron.update.check_on_startup')
if to_bool(pref.get('pychron.update.check_on_startup')):
url=pref.get('pychron.update.update_url')
if to_bool(pref.get('pychron.update.use_development')):
url=pref.get('pychron.update.update_url')
if url:
self._check_for_updates(url)
else:
self._load_local_revision()
else:
self._load_local_revision()
def start(self):
logger.debug('starting update plugin')
pref = self.application.preferences
# print pref.get('pychron.update.check_on_startup')
if to_bool(pref.get('pychron.update.check_on_startup')):
url = pref.get('pychron.update.update_url')
if to_bool(pref.get('pychron.update.use_development')):
url = pref.get('pychron.update.update_url')
if url:
self._check_for_updates(url)
else:
self._load_local_revision()
else:
self._load_local_revision()
def prepare(self):
self.info('Prepare laser')
self._ask('Prepare')
cnt = 0
tries = 0
maxtries = 200 # timeout after 50 s
if globalv.experiment_debug:
maxtries = 1
nsuccess = 1
self._cancel_blocking = False
ask = self._ask
period = 1
cmd = 'IsReady'
while tries < maxtries and cnt < nsuccess:
if self._cancel_blocking:
break
time.sleep(period)
resp = ask(cmd)
if resp is not None:
try:
if to_bool(resp):
cnt += 1
except:
cnt = 0
else:
cnt = 0
tries += 1
return cnt >= nsuccess
def _new_label(self,
label,
name,
c,
layer=1,
origin=None,
klass=None,
**kw):
if origin is None:
ox, oy = 0, 0
else:
ox, oy = origin
if klass is None:
klass = Label
x, y = 0, 0
trans = label.find('translation')
if trans is not None:
x, y = map(float, trans.text.split(','))
c = self._make_color(c)
l = klass(ox + x,
oy + y,
bgcolor=c,
use_border=to_bool(label.get('use_border', 'T')),
name=name,
text=label.text.strip(),
**kw)
font = label.find('font')
if font is not None:
l.font = font.text.strip()
self.add_item(l, layer=layer)
return l
def _monitor_factory(self):
mon = None
isok = True
self.debug('Experiment Executor mode={}'.format(self.mode))
if self.mode == 'client':
ip = InitializationParser()
exp = ip.get_plugin('Experiment', category='general')
monitor = exp.find('monitor')
if monitor is not None:
if to_bool(monitor.get('enabled')):
host, port, kind = None, None, None
comms = monitor.find('communications')
host = comms.find('host')
port = comms.find('port')
kind = comms.find('kind')
if host is not None:
host = host.text # if host else 'localhost'
if port is not None:
port = int(port.text) # if port else 1061
if kind is not None:
kind = kind.text
mon = RemoteAutomatedRunMonitor(host, port, kind, name=monitor.text.strip())
else:
mon = AutomatedRunMonitor()
self.debug('Automated run monitor {}'.format(mon))
if mon is not None:
# mon.configuration_dir_name = paths.monitors_dir
isok = mon.load()
if isok:
return mon
else:
self.warning(
'no automated run monitor avaliable. Make sure config file is located at setupfiles/monitors/automated_run_monitor.cfg')
def _new_label(self, label, name, c,
layer=1,
origin=None, klass=None, **kw):
if origin is None:
ox, oy = 0, 0
else:
ox, oy = origin
if klass is None:
klass = Label
x, y = 0, 0
trans = label.find('translation')
if trans is not None:
x, y = map(float, trans.text.split(','))
c = self._make_color(c)
l = klass(ox + x, oy + y,
bgcolor=c,
use_border=to_bool(label.get('use_border', 'T')),
name=name,
text=label.text.strip(),
**kw)
font = label.find('font')
if font is not None:
l.font = font.text.strip()
self.add_item(l, layer=layer)
return l
def prepare(self):
self.info('Prepare laser')
self._ask('Prepare')
cnt = 0
tries = 0
maxtries = 200 # timeout after 50 s
if globalv.experiment_debug:
maxtries = 1
nsuccess = 1
self._cancel_blocking = False
ask = self._ask
period = 1
cmd = 'IsReady'
while tries < maxtries and cnt < nsuccess:
if self._cancel_blocking:
break
time.sleep(period)
resp = ask(cmd)
if resp is not None:
try:
if to_bool(resp):
cnt += 1
except:
cnt = 0
else:
cnt = 0
tries += 1
return cnt >= nsuccess
def set_dac(self, v, verbose=False):
micro = self.microcontroller
unprotect = False
unblank=False
if micro:
if self.use_detector_protection:
if abs(self._dac - v) >self.detector_protection_threshold:
for pd in self.protected_detectors:
micro.ask('ProtectDetector {},On'.format(pd), verbose=verbose)
unprotect = True
elif self.use_beam_blank:
if abs(self._dac - v) >self.beam_blank_threshold:
micro.ask('BlankBeam True', verbose=verbose)
unblank=True
micro.ask('SetMagnetDAC {}'.format(v), verbose=verbose)
time.sleep(self.settling_time)
for i in xrange(50):
if not to_bool(micro.ask('GetMagnetMoving')):
break
time.sleep(0.25)
if unprotect:
for pd in self.protected_detectors:
micro.ask('ProtectDetector {},Off'.format(pd), verbose=verbose)
if unblank:
micro.ask('BlankBeam False', verbose=verbose)
self._dac = v
self.dac_changed = True
def set_dac(self, v, verbose=False):
micro = self.microcontroller
unprotect = False
unblank = False
if micro:
if self.use_detector_protection:
if abs(self._dac - v) > self.detector_protection_threshold:
for pd in self.protected_detectors:
micro.ask('ProtectDetector {},On'.format(pd),
verbose=verbose)
unprotect = True
elif self.use_beam_blank:
if abs(self._dac - v) > self.beam_blank_threshold:
micro.ask('BlankBeam True', verbose=verbose)
unblank = True
micro.ask('SetMagnetDAC {}'.format(v), verbose=verbose)
time.sleep(self.settling_time)
for i in xrange(50):
if not to_bool(micro.ask('GetMagnetMoving')):
break
time.sleep(0.25)
if unprotect:
for pd in self.protected_detectors:
micro.ask('ProtectDetector {},Off'.format(pd),
verbose=verbose)
if unblank:
micro.ask('BlankBeam False', verbose=verbose)
self._dac = v
self.dac_changed = True
def get_channel_state(self, obj):
"""
Query the hardware for the channel state
"""
cmd = 'GetValveState {}'.format(get_valve_name(obj))
resp = self.ask(cmd)
if resp is not None:
resp = to_bool(resp.strip())
return resp
def GoToHole(self, manager, hole, autocenter, *args):
try:
hole = int(hole)
autocenter = to_bool(autocenter)
err = manager.stage_manager.move_to_hole(
str(hole), correct_position=autocenter)
except (ValueError, TypeError):
err = InvalidArgumentsErrorCode('GoToHole', (hole, autocenter))
return self.error_response(err)
def GoToHole(self, manager, hole, autocenter, *args):
try:
hole = int(hole)
autocenter = to_bool(autocenter)
err = manager.stage_manager.move_to_hole(str(hole),
correct_position=autocenter)
except (ValueError, TypeError):
err = InvalidArgumentsErrorCode('GoToHole', (hole, autocenter))
return self.error_response(err)
def _block(self,
cmd='GetDriveMoving',
period=0.25,
position_callback=None):
ask = self._ask
cnt = 0
tries = 0
maxtries = int(50 / float(period)) # timeout after 50 s
nsuccess = 2
self._cancel_blocking = False
while tries < maxtries and cnt < nsuccess:
if self._cancel_blocking:
break
time.sleep(period)
resp = ask(cmd)
if self._communicator.simulation:
resp = 'False'
if resp is not None:
try:
if not to_bool(resp):
cnt += 1
except (ValueError, TypeError):
cnt = 0
if position_callback:
if self._communicator.simulation:
x, y, z = cnt / 3., cnt / 3., 0
position_callback(x, y, z)
else:
xyz = self.get_position()
if xyz:
position_callback(*xyz)
else:
cnt = 0
tries += 1
state = cnt >= nsuccess
if state:
self.info('Block completed')
else:
if self._cancel_blocking:
self.info('Block failed. canceled by user')
else:
self.warning('Block failed. timeout after {}s'.format(
maxtries * period))
return state
def get_initialization_model():
ip=InitializationParser()
rtree = load_plugin_tree()
gtree = load_global_tree()
for gi in ip.get_plugin_groups():
tree = get_tree(gi, rtree)
if tree:
for pp in ip.get_plugins(gi, element=True):
plugin = get_plugin(pp.text.strip(), tree)
if plugin:
plugin.enabled = to_bool(pp.get('enabled'))
for gi in ip.get_globals():
gv = gtree.get_value(gi.tag)
if gv:
gv.enabled = to_bool(gi.text.strip())
model = InitializationModel(trees=[gtree, rtree],
parser=ip)
model.init_hash()
return model
def get_channel_state(self, obj):
'''
Query the hardware for the channel state
'''
# returns one if channel close 0 for open
# boolfunc = lambda x:True if x in ['True', 'true', 'T', 't'] else False
cmd = 'GetValveState {}'.format(self._get_valve_name(obj))
resp = self.ask(cmd)
if resp is not None:
resp = to_bool(resp.strip())
return resp
def get_plugins(self, category=None, all_=False, element=False):
tree = self.get_root()
tree = tree.find('plugins')
if category:
cat = tree.find(category)
if cat is not None:
plugins = cat.findall('plugin')
else:
try:
plugins = tree.iter(tag='plugin')
except AttributeError:
plugins = tree.getiterator(tag='plugin')
return [p if element else p.text.strip()
for p in plugins if all_ or to_bool(p.get('enabled'))]
def get_plugins(self, category=None, all_=False, element=False):
tree = self.get_root()
tree = tree.find('plugins')
if category:
cat = tree.find(category)
if cat is not None:
plugins = cat.findall('plugin')
else:
try:
plugins = tree.iter(tag='plugin')
except AttributeError:
plugins = tree.getiterator(tag='plugin')
return [p if element else p.text.strip()
for p in plugins if all_ or to_bool(p.get('enabled'))]
def _block(self, cmd='GetDriveMoving', period=0.25, position_callback=None):
ask = self._ask
cnt = 0
tries = 0
maxtries = int(50 / float(period)) # timeout after 50 s
nsuccess = 2
self._cancel_blocking = False
while tries < maxtries and cnt < nsuccess:
if self._cancel_blocking:
break
time.sleep(period)
resp = ask(cmd)
if self._communicator.simulation:
resp = 'False'
if resp is not None:
try:
if not to_bool(resp):
cnt += 1
except (ValueError, TypeError):
cnt = 0
if position_callback:
if self._communicator.simulation:
x, y, z = cnt / 3., cnt / 3., 0
position_callback(x, y, z)
else:
xyz = self.get_position()
if xyz:
position_callback(*xyz)
else:
cnt = 0
tries += 1
state = cnt >= nsuccess
if state:
self.info('Block completed')
else:
if self._cancel_blocking:
self.info('Block failed. canceled by user')
else:
self.warning('Block failed. timeout after {}s'.format(maxtries * period))
return state
def set_dac(self, v, verbose=False):
self.debug('setting dac {}'.format(v))
micro = self.microcontroller
unprotect = False
unblank=False
if micro:
if self.use_detector_protection:
if abs(self._dac - v) >self.detector_protection_threshold:
for pd in self.protected_detectors:
micro.ask('ProtectDetector {},On'.format(pd), verbose=verbose)
unprotect = True
elif self.use_beam_blank:
if abs(self._dac - v) >self.beam_blank_threshold:
micro.ask('BlankBeam True', verbose=verbose)
unblank=True
micro.ask('SetMagnetDAC {}'.format(v), verbose=verbose)
time.sleep(self.settling_time)
#only block if move is large and was made slowly.
#this should be more explicit. get MAGNET_MOVE_THRESHOLD from RCS
# and use it as to test whether to GetMagnetMoving
if unprotect or unblank:
for i in xrange(50):
if not to_bool(micro.ask('GetMagnetMoving')):
break
time.sleep(0.25)
if unprotect:
for pd in self.protected_detectors:
micro.ask('ProtectDetector {},Off'.format(pd), verbose=verbose)
if unblank:
micro.ask('BlankBeam False', verbose=verbose)
change = v != self._dac
if change:
self._dac = v
self.dac_changed = True
return change
def _new_rectangle(self, elem, c, bw=3, layer=1, origin=None, type_tag=''):
if origin is None:
ox, oy = 0, 0
else:
ox, oy = origin
key = elem.text.strip()
display_name = elem.get('display_name', key)
fill = to_bool(elem.get('fill', 'T'))
x, y = self._get_floats(elem, 'translation')
w, h = self._get_floats(elem, 'dimension')
color = elem.find('color')
if color is not None:
c = color.text.strip()
cobj = self.get_item(c)
if cobj is not None:
c = cobj.default_color
else:
c = self._make_color(c)
rect = RoundedRectangle(
x + ox,
y + oy,
width=w,
height=h,
name=key,
border_width=bw,
display_name=display_name,
default_color=c,
type_tag=type_tag,
fill=fill,
)
font = elem.find('font')
if font is not None:
rect.font = font.text.strip()
self.add_item(rect, layer=layer)
return rect
def _monitor_factory(self):
mon = None
isok = True
self.debug('Experiment Executor mode={}'.format(self.mode))
if self.mode == 'client':
ip = InitializationParser()
exp = ip.get_plugin('Experiment', category='general')
monitor = exp.find('monitor')
if monitor is not None:
if to_bool(monitor.get('enabled')):
host, port, kind = None, None, None
comms = monitor.find('communications')
host = comms.find('host')
port = comms.find('port')
kind = comms.find('kind')
if host is not None:
host = host.text # if host else 'localhost'
if port is not None:
port = int(port.text) # if port else 1061
if kind is not None:
kind = kind.text
mon = RemoteAutomatedRunMonitor(host,
port,
kind,
name=monitor.text.strip())
else:
mon = AutomatedRunMonitor()
self.debug('Automated run monitor {}'.format(mon))
if mon is not None:
# mon.configuration_dir_name = paths.monitors_dir
isok = mon.load()
if isok:
return mon
else:
self.warning(
'no automated run monitor avaliable. Make sure config file is located at setupfiles/monitors/automated_run_monitor.cfg'
)
def _new_rectangle(self, elem, c, bw=3,
layer=1,
origin=None, type_tag=''):
if origin is None:
ox, oy = 0, 0
else:
ox, oy = origin
key = elem.text.strip()
display_name = elem.get('display_name', key)
fill = to_bool(elem.get('fill', 'T'))
x, y = self._get_floats(elem, 'translation')
w, h = self._get_floats(elem, 'dimension')
color = elem.find('color')
if color is not None:
c = color.text.strip()
cobj = self.get_item(c)
if cobj is not None:
c = cobj.default_color
else:
c = self._make_color(c)
rect = RoundedRectangle(x + ox, y + oy, width=w, height=h,
name=key,
border_width=bw,
display_name=display_name,
volume=get_volume(elem),
default_color=c,
type_tag=type_tag,
fill=fill)
font = elem.find('font')
if font is not None:
rect.font = font.text.strip()
self.add_item(rect, layer=layer)
return rect
def _get_affirmation(self, cmd):
token = self.get_tokens(cmd)[0]
b = to_bool(token)
return b
def _my_task_extensions_default(self):
def figure_group():
return Group(SpectrumAction(), IdeogramAction(), InverseIsochronAction(), SeriesAction())
def data_menu():
return SMenu(id="data.menu", name="Data")
def vcs_menu():
return SMenu(id="vcs.menu", name="VCS")
def grouping_group():
return Group(GroupSelectedAction(), GroupbyAliquotAction(), GroupbyLabnumberAction(), ClearGroupAction())
def reduction_group():
return Group(
IsotopeEvolutionAction(), BlankEditAction(), ICFactorAction(), DiscriminationAction(), FluxAction()
)
def interpreted_group():
return Group(
SetInterpretedAgeAction(),
OpenInterpretedAgeAction(),
OpenInterpretedAgeGroupAction(),
DeleteInterpretedAgeGroupAction(),
MakeGroupFromFileAction(),
)
def easy_group():
return Group(EasyImportAction(), EasyFiguresAction(), EasyTablesAction(), EasySensitivityAction())
default_actions = [
("recall_action", RecallAction, "MenuBar/File"),
("find_action", OpenAdvancedQueryAction, "MenuBar/File"),
("batch_edit", BatchEditAction, "MenuBar/Edit"),
("data", data_menu, "MenuBar", {"before": "tools.menu", "after": "view.menu"}),
("reduction_group", reduction_group, "MenuBar/data.menu"),
("figure_group", figure_group, "MenuBar/data.menu"),
("interpreted_group", interpreted_group, "MenuBar/data.menu"),
("tag", TagAction, "MenuBar/data.menu"),
("database_save", DatabaseSaveAction, "MenuBar/data.menu"),
("grouping_group", grouping_group, "MenuBar/data.menu"),
("clear_cache", ClearAnalysisCacheAction, "MenuBar/data.menu"),
("export_analyses", ExportAnalysesAction, "MenuBar/File"),
("equil_inspector", EquilibrationInspectorAction, "MenuBar/tools.menu"),
]
exts = [self._make_task_extension(default_actions)]
use_vcs = to_bool(self.application.preferences.get("pychron.vcs.use_vcs"))
if use_vcs:
exts.append(
self._make_task_extension(
[
("vcs", vcs_menu, "MenuBar", {"after": "view.menu"}),
("vcs_pull", PullVCSAction, "MenuBar/vcs.menu"),
("vcs_push", PushVCSAction, "MenuBar/vcs.menu"),
]
)
)
use_easy = to_bool(self.application.preferences.get("pychron.processing.use_easy"))
if use_easy:
grp = self._make_task_extension([("easy_group", easy_group, "MenuBar/tools.menu")])
a = self._make_task_extension(
[
("optimal_equilibration", CalcOptimalEquilibrationAction, "MenuBar/tools.menu"),
("easy_fit", EasyFitAction, "MenuBar/tools.menu/easy.group"),
],
task_id="pychron.processing.isotope_evolution",
)
b = self._make_task_extension(
[("easy_blanks", EasyBlanksAction, "MenuBar/Tools/easy.group")], task_id="pychron.processing.blanks"
)
c = self._make_task_extension(
[("easy_disc", EasyDiscriminationAction, "MenuBar/tools.menu/easy.group")],
task_id="pychron.processing.discrimination",
)
d = self._make_task_extension(
[("easy_ic", EasyICAction, "MenuBar/tools.menu/easy.group")], task_id="pychron.processing.ic_factor"
)
e = self._make_task_extension(
[("easy_flux", EasyFluxAction, "MenuBar/tools.menu")], task_id="pychron.processing.flux"
)
exts.extend((grp, a, b, c, d, e))
return exts
def set_motor_lock(self, name, value):
m = self.get_motor(name)
if m is not None:
m.locked = to_bool(value)
return True
'disable_between_positions',
# ver 2.0
('dis_btw_pos', 'disable_between_positions')
]:
attr = self._get_attr(attr)
idx = self._get_idx(header, attr)
if idx:
try:
param = args[idx]
except IndexError:
params[rattr] = False
continue
if param.strip():
bo = to_bool(param)
if bo is not None:
params[rattr] = bo
else:
params[rattr] = False
# load numbers
for attr in ['duration',
# 'overlap',
'cleanup',
# 'aliquot',
'ramp_duration',
# ver 1.0
'extract_group',
def set_motor_lock(self, name, value):
m = self.get_motor(name)
if m is not None:
m.locked = to_bool(value)
return True
def _get_parameters(self, subtree, tag, all_=False, element=False):
return [d if element else d.text.strip()
for d in subtree.findall(tag)
if all_ or to_bool(d.get('enabled'))]
def get_managers(self, elem, all_=False, element=False):
return [m if element else m.text.strip()
for m in elem.findall('manager')
if all_ or to_bool(m.get('enabled'))]
def _get_parameters(self, subtree, tag, all_=False, element=False):
return [d if element else d.text.strip()
for d in subtree.findall(tag)
if all_ or to_bool(d.get('enabled'))]
def get_managers(self, elem, all_=False, element=False):
return [m if element else m.text.strip()
for m in elem.findall('manager')
if all_ or to_bool(m.get('enabled'))]
def _set_use_cdd_warming_text(self, v):
self.item.use_cdd_warming = to_bool(v)
def load(self, path):
parser = ElementTree(file=open(path, 'r'))
circles = parser.find('circles')
outline = parser.find('outline')
bb = outline.find('bounding_box')
bs = bb.find('width'), bb.find('height')
w, h = map(lambda b: float(b.text), bs)
use_label = parser.find('use_label')
if use_label is not None:
use_label = to_bool(use_label.text.strip())
else:
use_label = True
data = ArrayPlotData()
p = Plot(data=data, padding=100)
p.x_grid.visible = False
p.y_grid.visible = False
p.x_axis.title = 'X cm'
p.y_axis.title = 'Y cm'
font = 'modern 22'
p.x_axis.title_font = font
p.x_axis.tick_label_font = font
p.y_axis.title_font = font
p.y_axis.tick_label_font = font
# p.x_axis_visible = False
# p.y_axis_visible = False
p.index_range.low_setting = -w / 2
p.index_range.high_setting = w / 2
p.value_range.low_setting = -h / 2
p.value_range.high_setting = h / 2
thetas = linspace(0, 2 * pi)
radius = circles.find('radius').text
radius = float(radius)
face_color = circles.find('face_color')
if face_color is not None:
face_color = face_color.text
else:
face_color = 'white'
for i, pp in enumerate(circles.findall('point')):
x, y, l = pp.find('x').text, pp.find('y').text, pp.find(
'label').text
# print i, pp, x, y
# load hole specific attrs
r = pp.find('radius')
if r is None:
r = radius
else:
r = float(r.text)
fc = pp.find('face_color')
if fc is None:
fc = face_color
else:
fc = fc.text
x, y = map(float, (x, y))
xs = x + r * sin(thetas)
ys = y + r * cos(thetas)
xn, yn = 'px{:03n}'.format(i), 'py{:03n}'.format(i)
data.set_data(xn, xs)
data.set_data(yn, ys)
plot = p.plot(
(xn, yn),
face_color=fc,
type='polygon',
)[0]
if use_label:
label = myDataLabel(
component=plot,
data_point=(x, y),
label_text=l,
bgcolor='transparent',
)
plot.overlays.append(label)
self.container.add(p)
def _my_task_extensions_default(self):
def figure_group():
return Group(
SpectrumAction(),
IdeogramAction(),
InverseIsochronAction(),
SeriesAction(),
XYScatterAction(),
MenuManager(IdeogramFromFile(),
SpectrumFromFile(),
name='From File'),
RefreshActiveEditorAction(),
name='Figures')
def data_menu():
return SMenu(id='data.menu', name='Data')
# def vcs_menu():
# return SMenu(id='vcs.menu', name='VCS')
def grouping_group():
return SMenu(Group(GroupSelectedAction(),
GroupbyAliquotAction(),
GroupbyLabnumberAction(),
GroupbySampleAction(),
ClearGroupAction()),
Group(GraphGroupSelectedAction(),
GraphGroupbySampleAction()),
name='Grouping')
def reduction_group():
return Group(IsotopeEvolutionAction(),
BlankEditAction(),
ICFactorAction(),
DiscriminationAction(),
FluxAction(),
name='Reduction')
def interpreted_group():
return SMenu(SetInterpretedAgeAction(),
OpenInterpretedAgeAction(),
OpenInterpretedAgeGroupAction(),
DeleteInterpretedAgeGroupAction(),
MakeGroupFromFileAction(),
name='Interpreted Ages')
def analysis_group():
return SMenu(MakeAnalysisGroupAction(),
DeleteAnalysisGroupAction(),
name='Analysis Grouping')
def recall_group():
return Group(RecallAction(),
# OpenAdvancedQueryAction(),
ConfigureRecallAction())
def misc_group():
return Group(TagAction(),
DataReductionTagAction(),
SelectDataReductionTagAction(),
DatabaseSaveAction(),
ClearAnalysisCacheAction(),
MakeTASAction(),
ModifyK3739Action(),
CalculationViewAction(),
SummaryLabnumberAction(),
name='misc')
def activate_group():
return Group(ActivateBlankAction(),
ActivateRecallAction(),
ActivateIdeogramAction())
default_actions = [('recall_action', RecallAction, 'MenuBar/file.menu'),
#('find_action', OpenAdvancedQueryAction, 'MenuBar/file.menu'),
('export_analyses', ExportAnalysesAction, 'MenuBar/file.menu'),
('batch_edit', BatchEditAction, 'MenuBar/Edit'),
('recall_group', recall_group, 'MenuBar/data.menu', {'absolute_position': 'first'}),
('data', data_menu, 'MenuBar', {'before': 'tools.menu', 'after': 'view.menu'}),
('activate_group', activate_group, 'MenuBar/view.menu'),
('reduction_group', reduction_group, 'MenuBar/data.menu'),
('figure_group', figure_group, 'MenuBar/data.menu'),
('interpreted_group', interpreted_group, 'MenuBar/data.menu'),
('grouping_group', grouping_group, 'MenuBar/data.menu'),
('misc_group', misc_group, 'MenuBar/data.menu'),
# ('tag', TagAction, 'MenuBar/data.menu'),
# ('database_save', DatabaseSaveAction, 'MenuBar/data.menu'),
# ('graph_grouping_group', graph_grouping_group, 'MenuBar/data.menu'),
# ('clear_cache', ClearAnalysisCacheAction, 'MenuBar/data.menu'),
('make_analysis_group', analysis_group, 'MenuBar/data.menu'),
('make_data_tables', MakeDataTablesAction, 'MenuBar/data.menu',
{'absolute_position': 'last'}),
# ('make_tas', MakeTASAction, 'MenuBar/data.menu'),
# ('modify_k3739', ModifyK3739Action, 'MenuBar/data.menu'),
('equil_inspector', EquilibrationInspectorAction, 'MenuBar/tools.menu'),
# ('split_editor_area', SplitEditorActionHor, 'MenuBar/window.menu'),
('split_editor_area', SplitEditorActionVert, 'MenuBar/window.menu')]
exts = [self._make_task_extension(default_actions)]
# use_vcs = to_bool(self.application.preferences.get('pychron.vcs.use_vcs'))
# if use_vcs:
# exts.append(self._make_task_extension([('vcs', vcs_menu, 'MenuBar', {'after': 'view.menu'}),
# ('vcs_pull', PullVCSAction, 'MenuBar/vcs.menu'),
# ('vcs_push', PushVCSAction, 'MenuBar/vcs.menu')]))
use_easy = to_bool(self.application.preferences.get('pychron.processing.use_easy'))
if use_easy:
def easy_group():
return Group(EasyImportAction(),
EasyFiguresAction(),
EasyCompareAction(),
EasyTablesAction(),
EasySensitivityAction(),
EasyFaradayICAction(),
EasyAverageBlanksAction(),
id='easy.group')
grp = self._make_task_extension([('easy_group', easy_group, 'MenuBar/tools.menu')])
a = self._make_task_extension(
[('optimal_equilibration', CalcOptimalEquilibrationAction, 'MenuBar/tools.menu'),
('easy_fit', EasyFitAction, 'MenuBar/tools.menu')],
task_id='pychron.processing.isotope_evolution')
b = self._make_task_extension([('easy_blanks', EasyBlanksAction, 'MenuBar/tools.menu')],
task_id='pychron.processing.blanks')
c = self._make_task_extension([('easy_disc', EasyDiscriminationAction, 'MenuBar/tools.menu')],
task_id='pychron.processing.discrimination')
d = self._make_task_extension([('easy_ic', EasyICAction, 'MenuBar/tools.menu')],
task_id='pychron.processing.ic_factor')
e = self._make_task_extension([('easy_flux', EasyFluxAction, 'MenuBar/tools.menu')],
task_id='pychron.processing.flux')
exts.extend((grp, a, b, c, d, e))
return exts
def get_lock_state(self, obj):
cmd = 'GetValveLockState {}'.format(get_valve_name(obj))
resp = self.ask(cmd)
if resp is not None:
resp = resp.strip()
return to_bool(resp)
def load(self, path):
parser = ElementTree(file=open(path, 'r'))
circles = parser.find('circles')
outline = parser.find('outline')
bb = outline.find('bounding_box')
bs = bb.find('width'), bb.find('height')
w, h = map(lambda b:float(b.text), bs)
use_label = parser.find('use_label')
if use_label is not None:
use_label = to_bool(use_label.text.strip())
else:
use_label = True
data = ArrayPlotData()
p = Plot(data=data, padding=100)
p.x_grid.visible = False
p.y_grid.visible = False
p.x_axis.title = 'X cm'
p.y_axis.title = 'Y cm'
font = 'modern 22'
p.x_axis.title_font = font
p.x_axis.tick_label_font = font
p.y_axis.title_font = font
p.y_axis.tick_label_font = font
# p.x_axis_visible = False
# p.y_axis_visible = False
p.index_range.low_setting = -w / 2
p.index_range.high_setting = w / 2
p.value_range.low_setting = -h / 2
p.value_range.high_setting = h / 2
thetas = linspace(0, 2 * pi)
radius = circles.find('radius').text
radius = float(radius)
face_color = circles.find('face_color')
if face_color is not None:
face_color = face_color.text
else:
face_color = 'white'
for i, pp in enumerate(circles.findall('point')):
x, y, l = pp.find('x').text, pp.find('y').text, pp.find('label').text
# print i, pp, x, y
# load hole specific attrs
r = pp.find('radius')
if r is None:
r = radius
else:
r = float(r.text)
fc = pp.find('face_color')
if fc is None:
fc = face_color
else:
fc = fc.text
x, y = map(float, (x, y))
xs = x + r * sin(thetas)
ys = y + r * cos(thetas)
xn, yn = 'px{:03n}'.format(i), 'py{:03n}'.format(i)
data.set_data(xn, xs)
data.set_data(yn, ys)
plot = p.plot((xn, yn),
face_color=fc,
type='polygon',
)[0]
if use_label:
label = myDataLabel(component=plot,
data_point=(x, y),
label_text=l,
bgcolor='transparent',
)
plot.overlays.append(label)
self.container.add(p)
def _my_task_extensions_default(self):
def figure_group():
return Group(SpectrumAction(), IdeogramAction(),
InverseIsochronAction(), SeriesAction())
def data_menu():
return SMenu(id='data.menu', name='Data')
def vcs_menu():
return SMenu(id='vcs.menu', name='VCS')
def grouping_group():
return Group(GroupSelectedAction(), GroupbyAliquotAction(),
GroupbyLabnumberAction(), ClearGroupAction())
def reduction_group():
return Group(IsotopeEvolutionAction(), BlankEditAction(),
ICFactorAction(), DiscriminationAction(),
FluxAction())
def interpreted_group():
return Group(SetInterpretedAgeAction(), OpenInterpretedAgeAction(),
OpenInterpretedAgeGroupAction(),
DeleteInterpretedAgeGroupAction(),
MakeGroupFromFileAction())
def easy_group():
return Group(EasyImportAction(), EasyFiguresAction(),
EasyTablesAction(), EasySensitivityAction())
default_actions = [
('recall_action', RecallAction, 'MenuBar/File'),
('find_action', OpenAdvancedQueryAction, 'MenuBar/File'),
('batch_edit', BatchEditAction, 'MenuBar/Edit'),
('data', data_menu, 'MenuBar', {
'before': 'tools.menu',
'after': 'view.menu'
}), ('reduction_group', reduction_group, 'MenuBar/data.menu'),
('figure_group', figure_group, 'MenuBar/data.menu'),
('interpreted_group', interpreted_group, 'MenuBar/data.menu'),
('tag', TagAction, 'MenuBar/data.menu'),
('database_save', DatabaseSaveAction, 'MenuBar/data.menu'),
('grouping_group', grouping_group, 'MenuBar/data.menu'),
('clear_cache', ClearAnalysisCacheAction, 'MenuBar/data.menu'),
('export_analyses', ExportAnalysesAction, 'MenuBar/File'),
('equil_inspector', EquilibrationInspectorAction,
'MenuBar/tools.menu')
]
exts = [self._make_task_extension(default_actions)]
use_vcs = to_bool(
self.application.preferences.get('pychron.vcs.use_vcs'))
if use_vcs:
exts.append(
self._make_task_extension([('vcs', vcs_menu, 'MenuBar', {
'after': 'view.menu'
}), ('vcs_pull', PullVCSAction, 'MenuBar/vcs.menu'),
('vcs_push', PushVCSAction,
'MenuBar/vcs.menu')]))
use_easy = to_bool(
self.application.preferences.get('pychron.processing.use_easy'))
if use_easy:
grp = self._make_task_extension([('easy_group', easy_group,
'MenuBar/tools.menu')])
a = self._make_task_extension(
[('optimal_equilibration', CalcOptimalEquilibrationAction,
'MenuBar/tools.menu'),
('easy_fit', EasyFitAction, 'MenuBar/tools.menu/easy.group')],
task_id='pychron.processing.isotope_evolution')
b = self._make_task_extension([
('easy_blanks', EasyBlanksAction, 'MenuBar/Tools/easy.group')
],
task_id='pychron.processing.blanks')
c = self._make_task_extension(
[('easy_disc', EasyDiscriminationAction,
'MenuBar/tools.menu/easy.group')],
task_id='pychron.processing.discrimination')
d = self._make_task_extension(
[('easy_ic', EasyICAction, 'MenuBar/tools.menu/easy.group')],
task_id='pychron.processing.ic_factor')
e = self._make_task_extension(
[('easy_flux', EasyFluxAction, 'MenuBar/tools.menu')],
task_id='pychron.processing.flux')
exts.extend((grp, a, b, c, d, e))
return exts
