def test_synaxis_timestamps():
from ophyd.status import wait
import time
def time_getter(m):
return {k: v['timestamp']
for k, v in m.read().items()}
def tester(m, orig_time):
new_time = time_getter(m)
assert orig_time != new_time
return new_time
motor = SynAxis(name='motor1')
motor.delay = .01
orig_time = time_getter(motor)
wait(motor.set(3))
orig_time = tester(motor, orig_time)
wait(motor.setpoint.set(4))
orig_time = tester(motor, orig_time)
motor.setpoint.put(3)
time.sleep(2*motor.delay)
orig_time = tester(motor, orig_time)
def test_synaxis_subcribe():
hits = dict.fromkeys(['r', 's', 'a'], 0)
vals = dict.fromkeys(['r', 's', 'a'], None)
def p1(tar, value):
hits[tar] += 1
vals[tar] = value
motor = SynAxis(name='motor1')
# prime the cb cache so these run an subscription
motor.set(0)
motor.subscribe(lambda *, value, _tar='a', **kwargs:
p1(_tar, value))
motor.readback.subscribe(lambda *, value, _tar='r', **kwargs:
p1(_tar, value))
motor.setpoint.subscribe(lambda *, value, _tar='s', **kwargs:
p1(_tar, value))
assert vals['r'] == motor.readback.get()
assert vals['a'] == motor.readback.get()
assert vals['s'] == motor.setpoint.get()
assert all(v == 1 for v in hits.values())
motor.set(1)
assert vals['r'] == motor.readback.get()
assert vals['a'] == motor.readback.get()
assert vals['s'] == motor.setpoint.get()
assert all(v == 2 for v in hits.values())
dcm_x.llm.put(0)
dcm_x.velocity.put(0.6)
dcm_x._limits = (0, 68)
## this is about as fast as this motor can go, 1.25 results in a following error
dcm_para.velocity.put(0.4)
dcm_para.hvel_sp.put(0.4)
dcm_perp.velocity.put(0.2)
dcm_perp.hvel_sp.put(0.2)
#dcm_para.llm.put(12.3)
#dcm_para.hlm.put(158.5)
dcm_perp.llm.put(1.39)
dcm_perp.hlm.put(26.5)
if dcm_x.user_readback.get() > 10:
dcm.set_crystal('311')
else:
dcm.set_crystal('111')
else:
dcm_bragg = SynAxis(name='dcm_bragg')
dcm_pitch = SynAxis(name='dcm_pitch')
dcm_roll = SynAxis(name='dcm_roll')
dcm_perp = SynAxis(name='dcm_perp')
dcm_para = SynAxis(name='dcm_para')
dcm_x = SynAxis(name='dcm_x')
dcm_y = SynAxis(name='dcm_y')
dcmlist = [dcm_bragg, dcm_pitch, dcm_roll, dcm_perp, dcm_para, dcm_x, dcm_y]
mcs8_motors.extend(dcmlist)
if rv is not None:
logging.error('%s' % rv)
RE = RunEngine({})
# cpo thinks this is more for printout of each step
from bluesky.callbacks.best_effort import BestEffortCallback
bec = BestEffortCallback()
# Send all metadata/data captured to the BestEffortCallback.
RE.subscribe(bec)
from ophyd.sim import motor1, SynAxis
from bluesky.plans import scan
step_value = SynAxis(name='step_value')
# instantiate DaqScan object
mydaq = DaqScan(control, daqState=daqState, args=args)
dets = [mydaq] # just one in this case, but it could be more than one
# configure DaqScan object with a set of motors
mydaq.configure(motors=[motor1, step_value])
# Scan motor1 from -10 to 10 and step_value from 0 to 14, stopping
# at 15 equally-spaced points along the way and reading dets.
RE(scan(dets, motor1, -10, 10, step_value, 0, 14, 15))
mydaq.push_socket.send_string('shutdown') #shutdown the daq thread
mydaq.comm_thread.join()
import logging
import pytest
from bluesky.plan_stubs import rel_set
from bluesky.preprocessors import run_wrapper
from ophyd.sim import SynAxis
from ..plans.preprocessors import return_to_start
logger = logging.getLogger(__name__)
m1 = SynAxis(name="m1")
m2 = SynAxis(name="m2")
motors = [m1, m2]
@pytest.mark.parametrize("return_devices", [[], [m1], [m1, m2]])
def test_return_to_start_returns_motors_correctly(fresh_RE, return_devices):
# Grab the initial positions
initial_positions = [mot.position for mot in motors]
final_positions = []
# Create the plan
@return_to_start(*return_devices)
def test_plan():
for mot in motors:
yield from rel_set(mot, 1)
# Grab the final positions
final_positions.append(mot.position)
# Run the plan
def get_calib_motor(request):
m1 = SynAxis(name="m1")
m2 = SynAxis(name="m2")
return CalibTest("test", m1=m1, m2=m2)
from ophyd.sim import det1, noisy_det
from ophyd.device import Device, Component as Cpt
from ophyd.signal import EpicsSignalRO, AttributeSignal
import pcdsdevices
"""
Creates a RunEngine, and uses BestEffortCallback for nice visualizations during the scan
"""
RE = RunEngine()
bec = BestEffortCallback()
RE.subscribe(bec)
install_qt_kicker()
# Create the motor
x = SynAxis(name='x')
def basic_event_builder(*args, **kwargs):
"""
Pass any number of pandas Series and return an event built pandas
DataFrame. Kwargs can be used to name the columns of the returned
DataFrame.
"""
data_table = dict()
[data_table.setdefault(col, args[col]) for col in range(len(args))]
[data_table.setdefault(col, kwargs[col]) for col in kwargs]
full_frame = pd.DataFrame(data_table)
return full_frame.dropna()
def motor():
return SynAxis(name='motor')
import numpy as np
from hutch_python.utils import safe_load
from ophyd.sim import SynAxis
# Test axes that may come in handy
with safe_load('Virtual Motors'):
virtual_motor_1 = SynAxis(name='Virtual Motor 1')
virtual_motor_2 = SynAxis(name='Virtual Motor 2')
virtual_motor_3 = SynAxis(name='Virtual Motor 3')
import logging
import numpy as np
from bluesky.preprocessors import run_wrapper
from ophyd.sim import SynAxis
from .conftest import Diode
from ..plans.alignment import maximize_lorentz, rocking_curve
logger = logging.getLogger(__name__)
crystal = SynAxis(name='angle')
def test_lorentz_maximize(fresh_RE):
# Simulated diode readout
diode = Diode('intensity', crystal, 'angle', 10.0, noise_multiplier=None)
# Create plan to maximize the signal
plan = run_wrapper(maximize_lorentz(diode, crystal, 'intensity',
step_size=0.2, bounds=(9., 11.),
position_field='angle',
initial_guess = {'center' : 8.}))
# Run the plan
fresh_RE(plan)
# Trigger an update
diode.trigger()
#Check that we were within 10%
assert np.isclose(diode.read()['intensity']['value'], 1.0, 0.1)
def test_rocking_curve(fresh_RE):
# Simulated diode readout
parser = argparse.ArgumentParser(description='Spatial overlap of timetool')
parser.add_argument('--sim', action='store_true', default=False, help='Do a simulated scan')
args = parser.parse_args()
# Interactive matplotlib mode
plt.ion()
# Create a RunEngine
RE = RunEngine()
# Use BestEffortCallback for nice vizualizations during scans
bec = BestEffortCallback()
# Install our notebook kicker to have plots update during a scan
install_nb_kicker()
if args.sim:
# Create our motors
x_motor = SynAxis(name='x')
y_motor = SynAxis(name='y')
#Defines relationships between centroids and motors
x_centroid = SynSignal(func=partial(centroid_from_motor_cross, x_motor,y_motor, noise_scale = 1), name='x_syn')
y_centroid = SynSignal(func=partial(centroid_from_motor_cross, y_motor,x_motor), name='y_syn')
print('Running Simulated Scan')
else:
#The Newport motors
x_motor = Newport('XPP:LAS:MMN:13', name = 'real_x')
y_motor = Newport('XPP:LAS:MMN:14', name = 'real_y')
#Readback from actual beamline devices
x_centroid = EpicsSignalRO('XPP:OPAL1K:01:Stats2:CentroidX_RBV', name = 'x_readback')
y_centroid = EpicsSignalRO('XPP:OPAL1K:01:Stats2:CentroidY_RBV', name = 'y_readback')
print('Running Real Scan')
#Executes the plan
from ophyd import Component
from ophyd.sim import SynAxis, SynSignal, Device
cs700 = SynAxis(name='cs700', value=300.)
cs700.readback.name = 'temperature'
shctl1 = SynAxis(name='shctl1', value=0)
shctl1.readback.name = 'rad'
class SimFilterBank(Device):
"""Simulated filter bank with only the first filter in by default"""
flt1 = Component(SynSignal, func=lambda: 'In')
flt2 = Component(SynSignal, func=lambda: 'Out')
flt3 = Component(SynSignal, func=lambda: 'Out')
flt4 = Component(SynSignal, func=lambda: 'Out')
fb = SimFilterBank(name='fb')
def linear():
motor = SynAxis(name='motor')
# Make our linear detector
sig = SynSignal(func=lambda: 4 * motor.position, name='det')
return (sig, motor)
def inverted_gauss():
motor = SynAxis(name='motor')
# Make our inverted detector
sig = SynGauss('det', motor, 'motor', center=0, Imax=-1, sigma=1)
return (sig, motor)
import logging
import pytest
from numpy import linspace
import pandas as pd
from bluesky.preprocessors import run_wrapper
from ophyd.sim import SynAxis
from .conftest import SynCamera
from ..plans.scans import centroid_scan
from ..utils import as_list
logger = logging.getLogger(__name__)
m1 = SynAxis(name="m1")
m2 = SynAxis(name="m2")
delay = SynAxis(name="delay")
def test_centroid_scan_returns_df(fresh_RE):
# Simulated camera
camera = SynCamera(m1, m2, delay, name="camera")
# Create the plan
def test_plan():
delay_scan = (yield from centroid_scan(
camera,
delay,
-1,
1,
3,
start=start)
config = dev.read_configuration()
# Assert the extra values are in the cofiguration
assert config['scan']['value'] is scan
assert config['scale']['value'] == scale
assert config['start']['value'] == start
@pytest.mark.parametrize(
"calib",
[None, pd.DataFrame(columns=['a']),
pd.DataFrame(columns=['a', 'b'])])
@pytest.mark.parametrize(
"motors",
[None, [SynAxis(name='a')], [SynAxis(name='a'),
SynAxis(name='b')]])
def test_CalibMotor_has_calib_correctly_indicates_there_is_a_valid_calibration(
calib, motors):
dev = CalibMotor("TST", name="test")
# Force replace the underlying calibration to use the inputs
dev._calib['calib']['value'] = calib
dev._calib['motors']['value'] = motors
# There must be both a calibration and motors, and they are the same length
expected_logic = bool((calib is not None and motors)
and (len(calib.columns) == len(motors)))
assert dev.has_calib == expected_logic
def test_CalibMotor_calibration_returns_correct_parameters():
# obj = tomopy.checkerboard(L)
# obj = tomopy.baboon(L)
# obj = tomopy.lena(L)
class TomoDet(Device):
image = Cpt(Signal)
def trigger(self):
super().trigger()
self.image.put(tomopy.project(obj, angle.read()['angle']['value']))
return NullStatus()
det = TomoDet(name='det')
angle = SynAxis(name='angle')
RE = RunEngine({})
# Do this if running the example interactively;
# skip it when building the documentation.
import os
if 'BUILDING_DOCS' not in os.environ:
from bluesky.utils import install_qt_kicker # for notebooks, qt -> nb
install_qt_kicker()
plt.ion()
angle._fake_sleep = 0.001 # simulate slow motor movement
class LiveRecon(CallbackBase):
SMALL = 1e-6
if rv is not None:
logging.error('%s' % rv)
RE = RunEngine({})
# cpo thinks this is more for printout of each step
from bluesky.callbacks.best_effort import BestEffortCallback
bec = BestEffortCallback()
# Send all metadata/data captured to the BestEffortCallback.
RE.subscribe(bec)
from ophyd.sim import motor1, SynAxis
from bluesky.plans import scan
step_value = SynAxis(name=ControlDef.STEP_VALUE)
# instantiate BlueskyScan object
mydaq = BlueskyScan(control, daqState=daqState, args=args)
dets = [mydaq] # just one in this case, but it could be more than one
# configure BlueskyScan object with a set of motors
mydaq.configure(motors=[motor1, step_value])
# Scan motor1 from -10 to 10 and step_value from 0 to 14, stopping
# at 15 equally-spaced points along the way and reading dets.
RE(scan(dets, motor1, -10, 10, step_value, 0, 14, 15))
mydaq.push_socket.send_string('shutdown') #shutdown the daq thread
mydaq.comm_thread.join()
def descriptor(self, doc):
if doc["name"] != self._stream:
return
if len(self._descriptors):
self._descriptors.add(doc["uid"])
else:
super().descriptor(doc)
lt = BatchLiveTable(
["ctrl_Ti", "ctrl_temp", "ctrl_anneal_time", "ctrl_thickness", "x", "y"])
y = SynAxis(name="y")
x = SynAxis(name="x")
RE = RunEngine()
RE.subscribe(lt)
recommender = SequenceRecommender([[30, 340, 450, 1], [35, 340, 450, 1],
[48, 400, 3600, 1], [35, 400, 450, 0]])
cb, queue = recommender_factory(
recommender,
["ctrl_Ti", "ctrl_temp", "ctrl_annealing_time", "ctrl_thickness"],
["x"],
)
pair = single_strip_set_transform_factory(single_data)
m.move = m.set
@property
def position(self):
return self.motor.position
def move(self, position, *args, **kwargs):
# Perform the calibration move
status = self.motor.set(position, *args, *kwargs)
if self.has_calib and self.use_calib:
status = status & self._calib_compensate(position)
return status
# Simulated Crystal motor that goes where you tell it
crystal = SynAxis(name='angle')
m1 = SynAxis(name="m1")
m2 = SynAxis(name="m2")
delay = SynAxis(name="delay")
# Create a fixture to automatically instantiate logging setup
@pytest.fixture(scope='session', autouse=True)
def set_level(pytestconfig):
# Read user input logging level
log_level = getattr(logging, pytestconfig.getoption('--log'), None)
# Report invalid logging level
if not isinstance(log_level, int):
raise ValueError("Invalid log level : {}".format(log_level))
def test_synaxis_describe():
bs = pytest.importorskip('bluesky')
import bluesky.plans as bp
motor1 = SynAxis(name='motor1')
RE = bs.RunEngine()
RE(bp.scan([], motor1, -5, 5, 5))
