def plotQuantity(self, quantity, param_values):
''' Plot a simulated quantity vs its data points using Tellurium.'''
from data import name_to_id_map, conc_indices
quantity_id = name_to_id_map[quantity]
iq = self.measured_quantities.index(quantity_id)
reference_data = array(self.scaled_data[:, iq])
r = RoadRunner(self.sbml)
self._setParameterVector(param_values, self.param_list, r)
r.reset()
t_now = 0.
residuals = zeros((len(self.time_values), ))
residuals[0] = r[quantity_id] - reference_data[0]
for it_next in range(1, len(self.time_values)):
self._setParameterVector(param_values, self.param_list, r)
r.simulate(t_now, self.time_values[it_next], 100)
t_now = self.time_values[it_next]
residuals[it_next] = r[quantity_id] - reference_data[it_next]
r.reset()
s = r.simulate(0, float(self.time_values[-1]), 1000,
['time', quantity_id])
# print(quantity, sqrt(mean(residuals**2))/self.reference_value_means[iq])
import tellurium as te
te.plot(self.time_values,
reference_data,
scatter=True,
name=quantity + ' data',
show=False,
error_y_pos=maximum(residuals, 0),
error_y_neg=-minimum(residuals, 0))
te.plot(s[:, 0], s[:, 1], name=quantity + ' sim')
def __init__(self, sbml, measured_quantities, param_list,
reference_param_values, time_start, time_end, n):
'''
Constructor.
:param measured_quantities: A list of the measured quantities.
:param reference_param_values: The vector of parameter values in the reference state.
:param time_start: Start time of the simulation.
:param time_end: End time of the simulation.
:param n: Number of intervals/points in simulation.
'''
self.sbml = sbml
self.r = RoadRunner(sbml)
self.time_start = time_start
self.time_end = time_end
self.n = n
self.r.selections = ['time'] + measured_quantities
self.measured_quantities = measured_quantities
self.param_list = param_list
self.setParameterVector(reference_param_values)
sim = self.r.simulate(time_start, time_end, n)
self.reference_time = array(sim[:, 0])
self.reference_quantities = array(sim[:, 1:])
self.reference_quantity_means_squared = mean(self.reference_quantities,
axis=0)**2
# print(self.reference_quantity_means_squared)
self.penalty_scale = 1.
def __init__(self, sbml, data_quantities, measurement_map):
'''
Constructor.
:param measurement_map: A dictionary that maps the names of quantities to measurements to their respective (numpy) arrays.
'''
self.sbml = sbml
self.r = RoadRunner(sbml)
# self.r.integrator.stiff = False
# self.r.integrator.minimum_time_step = 0.0001
# self.r.integrator.maximum_time_step = 1.
# self.residuals = []
#print(self.r.getFloatingSpeciesIds())
self.timepoints = unique(hstack(a[:, 0] for a in data_quantities))
self.reset()
self.measurement_map = measurement_map
# map a quantity to its mean measured value
self.mean_measurement_map = {
quantity: mean(values[:, 1])
for quantity, values in self.measurement_map.items()
}
# keep track of the number of times a measurement is used
# (check correct number of residuals)
self.measurement_count = OrderedDict(
(quantity, 0) for quantity in self.measurement_map)
self.penalty_scale = 1.
def plotQuantity(self, identifier, param_values, n, bars=True):
''' Plot a simulated quantity vs its data points using Tellurium.'''
i = self.measured_quantities.index(identifier)
reference_quantity = self.reference_quantities[:, i]
r = RoadRunner(self.sbml)
if param_values is not None:
self._setParameterVector(param_values, self.param_list, r)
s = r.simulate(0, float(self.reference_time[-1]), n,
['time', identifier])
simulated_quantity = s[:, 1]
residuals = simulated_quantity - reference_quantity
# relative residuals
# print('avg relative deviation for ', identifier, ': {:.1f}'.format(mean(abs(residuals/reference_quantity))*100.), '%')
# residuals normalized to overall mean
print(
'avg relative deviation for ', identifier, ': {:.1f}'.format(
mean(abs(residuals)) / mean(abs(reference_quantity)) * 100.),
'%')
r.reset()
s = r.simulate(0, float(self.reference_time[-1]), 1000,
['time', identifier])
import tellurium as te
te.plot(self.reference_time,
reference_quantity,
scatter=True,
name=identifier + ' data',
show=False,
error_y_pos=maximum(residuals, 0),
error_y_neg=-minimum(residuals, 0))
te.plot(s[:, 0], s[:, 1], name=identifier + ' sim')
def __init__(self, sbml):
self.sbml = sbml
self.r = RoadRunner(sbml)
from data import measured_quantity_ids, exp_data
self.measured_quantity_ids = measured_quantity_ids
self.reference_values = exp_data
self.reference_value_means_squared = mean(self.reference_values, axis=0)**2
from params import new_param_ids as param_ids
self.param_list = param_ids
self.penalty_scale = 1.
def run(self, d, n, o, l, v):
settings_file = join(d, n, '{n}-settings.txt'.format(n=n))
settings = SettingsParser.from_file(settings_file)
sbml_file = join(d, n, '{n}-sbml-l{l}v{v}.xml'.format(n=n, l=l, v=v))
r = RoadRunner(sbml_file)
r.selections = ['time'] + settings.amount + settings.concentration
results = r.simulate(settings.start, settings.duration,
settings.steps + 1)
from pandas import DataFrame
print(r.selections)
DataFrame(results,
columns=r.selections).to_csv(join(o, '.'.join([n, 'csv'])),
index=False,
encoding='utf-8')
def plotQuantity(self, quantity_id, param_values):
''' Plot a simulated quantity vs its data points using Tellurium.'''
from data import measured_quantity_ids, measured_quantity_id_to_name_map
from data import t1, t2, time_end, n1, n2, n3
quantity_name = measured_quantity_id_to_name_map.get(quantity_id,quantity_id)
iq = measured_quantity_ids.index(quantity_id)
reference_data = array(self.reference_values[:,iq])
r = RoadRunner(self.sbml)
r.reset()
r.resetAll()
r.resetToOrigin()
self._setParameterVector(param_values, self.param_list, r)
# r.oneStep(0., 10)
# print('plotQuantity OAA\' = {}'.format(r["OAA'"]))
s1 = r.simulate(0., t1, n1, ['time', quantity_id])
s2 = r.simulate(t1, t2, n2, ['time', quantity_id])
# print(quantity_id)
# if quantity_id == 'GLC':
# print('BM before {}'.format(r['[BM]']))
# print(iq)
# print(reference_data)
s3 = r.simulate(t2, time_end, n3, ['time', quantity_id])
sim = vstack((
s1,
s2,
s3,
))
assert sim.shape[0] == reference_data.shape[0]
residuals = sim[:,1] - reference_data
r.reset()
r.resetAll()
r.resetToOrigin()
self._setParameterVector(param_values, self.param_list, r)
# self._setParameterVector(param_values, self.param_list, r)
s = r.simulate(0,time_end,1000,['time',quantity_id])
import tellurium as te
te.plot(sim[:,0], reference_data, scatter=True,
name=quantity_name+' data', show=False,
title=quantity_name,
error_y_pos=maximum(residuals,0),
error_y_neg=-minimum(residuals,0))
te.plot(s[:,0], s[:,1], name=quantity_name+' sim')
def plotQuantity(self, identifier, bars=True):
''' Plot a simulated quantity vs its data points using Tellurium.
The residuals should already be calculated.'''
data = self.measurement_map[identifier]
# data contains one column of time and one column of values
import tellurium as te
te.plot(data[:, 0],
data[:, 1],
scatter=True,
name=identifier + ' data',
show=False,
error_y_pos=maximum(array(self.quantity_residuals[identifier]),
0),
error_y_neg=-minimum(
array(self.quantity_residuals[identifier]), 0))
# simulate and plot the model
r = RoadRunner(self.sbml)
s = r.simulate(0, self.timepoints[-1], 1000, ['time', identifier])
te.plot(s[:, 0], s[:, 1], name=identifier + ' sim')
def plotQuantity(self, quantity_id, param_values):
''' Plot a simulated quantity vs its data points using Tellurium.'''
from data import time_values, measured_quantity_ids, measured_quantity_id_to_name_map
quantity_name = measured_quantity_id_to_name_map[quantity_id]
iq = measured_quantity_ids.index(quantity_id)
reference_data = array(self.reference_values[:, iq])
r = RoadRunner(self.sbml)
self._setParameterVector(param_values, self.param_list, r)
r.reset()
# r.resetAll()
# r.resetToOrigin()
# r.integrator = 'euler'
# r.integrator = 'rk4'
# r.integrator.subdivision_steps = 1000
# r.integrator.absolute_tolerance = 1e-10
# r.integrator.relative_tolerance = 1e-4
# r.integrator.initial_time_step = 0.001
# r.integrator.minimum_time_step = 0.0001
# r.integrator.maximum_time_step = 0.1
# print(r.integrator)
sim = r.simulate(0., 119., 120, ['time', quantity_id])
assert sim.shape[0] == reference_data.shape[0]
residuals = sim[:, 1] - reference_data
r.reset()
# r.resetAll()
# r.resetToOrigin()
s = r.simulate(0, float(time_values[-1]), 121, ['time', quantity_id])
# print('mse for {}: '.format(quantity_name), sqrt(mean((residuals**2)/(self.reference_norms[:,iq]**2))))
import tellurium as te
te.plot(time_values,
reference_data,
scatter=True,
name=quantity_name + ' data',
show=False,
title=quantity_name,
error_y_pos=maximum(residuals, 0),
error_y_neg=-minimum(residuals, 0))
te.plot(s[:, 0], s[:, 1], name=quantity_name + ' sim')
def __init__(self, sbml):
self.sbml = sbml
self.r = RoadRunner(sbml)
# self.r.integrator = 'rk4'
# print(self.r.integrator)
# self.r.integrator.absolute_tolerance = 1e-10
# self.r.integrator.relative_tolerance = 1e-4
from data import measured_quantity_ids, exp_data, norm_data
self.measured_quantity_ids = measured_quantity_ids
self.reference_values = exp_data
# self.reference_value_means_squared = mean(self.reference_values, axis=0)**2
self.reference_norms = maximum(norm_data, 0.0005)
# self.reference_norms_squared = maximum(norm_data, 0.0005)**2
self.quantity_norms = array([
0.0466906, 0.1666200, 0.1325631, 0.0757189, 0.1266561, 0.11634345,
0.1143341, 0.1104889, 0.2808254, 0.1275417, 0.1163108, 0.26822369,
0.1866278, 0.1555892, 0.4453806, 0.1598696, 0.1222940, 0.14366202,
0.1259413, 0.1473395, 0.1407897, 0.1246730, 0.1153060, 0.12375571,
0.1814630, 0.2199502, 0.1608888, 0.1903940, 0.1242392, 0.11704526,
0.1287076, 0.1319431, 0.1324937, 0.0690382, 0.1316586, 2.15109423,
0.1215476, 0.1414125, 0.1112873, 0.1297432, 0.1288462, 0.1155096,
0.1203922, 0.18807463
])**2
# UDP-D-glucose excluded because it has buggy errors
self.overall_norm = float(
mean(
array([
0.0466906, 0.1666200, 0.1325631, 0.0757189, 0.1266561,
0.11634345, 0.1143341, 0.1104889, 0.2808254, 0.1275417,
0.1163108, 0.26822369, 0.1866278, 0.1555892, 0.4453806,
0.1598696, 0.1222940, 0.14366202, 0.1259413, 0.1473395,
0.1407897, 0.1246730, 0.1153060, 0.12375571, 0.1814630,
0.2199502, 0.1608888, 0.1903940, 0.1242392, 0.11704526,
0.1287076, 0.1319431, 0.1324937, 0.0690382, 0.1316586,
0.1215476, 0.1414125, 0.1112873, 0.1297432, 0.1288462,
0.1155096, 0.1203922, 0.18807463
])))
from params import param_ids
self.param_list = param_ids
self.penalty_scale = 1.
def __init__(self, sbml, data_quantities, measurement_map):
'''
Constructor.
:param measurement_map: A dictionary that maps the names of quantities to measurements to their respective (numpy) arrays.
'''
self.sbml = sbml
self.r = RoadRunner(sbml)
self.residuals = []
#print(self.r.getFloatingSpeciesIds())
self.timepoints = unique(hstack(a[:, 0] for a in data_quantities))
self.reset()
self.measurement_map = measurement_map
# keep track of the number of times a measurement is used
# (check correct number of residuals)
self.measurement_count = OrderedDict(
(quantity, 0) for quantity in self.measurement_map)
self.quantity_residuals = dict(
(quantity, list()) for quantity in self.measurement_map)
def __init__(self, sbml):
self.sbml = sbml
self.r = RoadRunner(sbml)
self.r.integrator.absolute_tolerance = 1e-15
self.r.integrator.relative_tolerance = 1e-9
self.r.integrator.stiff = True
from observables import observables
self.measured_quantity_ids = observables
from json import load
with open(join(dirname(realpath(__file__)), 'exp_data.json')) as f:
self.reference_value_collection = [array(a) for a in load(f)]
self.reference_value_means_squared_collection = []
for a in self.reference_value_collection:
self.reference_value_means_squared_collection.append(
mean(a, axis=0)**2)
with open(join(dirname(realpath(__file__)), 'exp_y0.json')) as f:
self.exp_y0_collection = [array(a) for a in load(f)]
with open(join(dirname(realpath(__file__)), 'stimuli.json')) as f:
self.stimuli_collection = [d for d in load(f)]
from parameters import param_ids
self.param_list = param_ids
self.penalty_scale = 1.
def __init__(self, sbml):
'''
Constructor.
:param measured_quantities: A list of the measured quantities.
:param scaled_data: The scaled reference data.
:param scaled_error: The scaled reference error.
'''
from params import param_ids
from data import time_values, conc_ids, scaled_data, scaled_error
self.sbml = sbml
self.r = RoadRunner(sbml)
self.r.selections = ['time'] + conc_ids
self.time_values = time_values
assert self.time_values[0] == 0.
self.measured_quantities = conc_ids
self.param_list = param_ids
self.reference_values = scaled_data
self.reference_value_means = mean(self.reference_values, axis=0)
self.scaled_data = scaled_data
self.scaled_error = scaled_error
self.penalty_scale = 1.
def _worker(src, seeds, results, sim_args, sim_kwargs):
# create a rr obj
print("starting worker processes: " + str(os.getpid()))
n = 0
r = RoadRunner(src)
# remove and apply the selections
# no sense in re-evaluating selection list each time.
if 'sel' in sim_kwargs:
r.selections = sim_kwargs['sel']
del sim_kwargs['sel']
if 'selections' in sim_kwargs:
r.selections = sim_kwargs['selections']
del sim_kwargs['selections']
# might have forgot to reset sim,
# default is to reset sim between each simulation.
if not 'reset' in sim_kwargs:
Logger.log(
Logger.LOG_WARNING,
"simulate args missing reset, defaulting to reset between simulations"
)
sim_kwargs['reset'] = True
# read until None,
# blocks if queue is empty
for seed in iter(seeds.get, None):
sim_kwargs['seed'] = seed
result = r.simulate(*sim_args, **sim_kwargs)
results.put(result)
n += 1
print("process {} finished with {} simulations".format(os.getpid(), n))
import arrow
from roadrunner import RoadRunner
r = RoadRunner('../../../../../sbml/b2.xml')
class StalledSimulation(RuntimeError):
pass
# r.integrator.stiff = False
# r.integrator.maximum_time_step = 1e-3
# r.integrator.minimum_time_step = 1e-9
r.integrator = 'rk4'
print(r.integrator)
time_start = arrow.utcnow()
from interruptingcow import timeout
try:
with timeout(1, StalledSimulation):
r.simulate(0,1000,10000)
except (StalledSimulation):
print('')
print('timed out')
time_end = arrow.utcnow()
print('Total time: {}'.format(time_end-time_start))
from os.path import join, realpath, dirname
from roadrunner import RoadRunner
xmod = RoadRunner(join(realpath(dirname(__file__)), 'out-sbml.xml'))
# xmod.reset()
# xmod.integrator.relative_tolerance = 1e-12
# xmod.integrator.absolute_tolerance = 1e-20
# xmod.oneStep()
# xmod.simulate(0,1000,1000,selections=['time']+xmod.getFloatingSpeciesIds())
# xmod.plot()
# values = {s:xmod[s] for s in xmod.getFloatingSpeciesIds()}
# block_rates = [xmod['block{}_Add10'.format(k)] for k in (range(len(wiring.blocks)))]
# # pprint(block_rates)
# r_block_indices = model.getReactionBlockIndices()
def benchmark_loading_time():
import arrow
time_start = arrow.utcnow()
r = RoadRunner('../../../../../sbml/b2.xml')
delta_t = arrow.utcnow() - time_start
print('Loading time:', delta_t)
import numpy as np
from roadrunner import RoadRunner
from timeit import default_timer
r = RoadRunner('WolfGlycolysis.xml')
#orders = 5
#for multiplier in np.logspace(0,orders,orders+1):
##print('multiplier = {}'.format(multiplier))
#t1 = default_timer()
#r.reset()
#r.simulate(0,2*int(multiplier),1000*int(multiplier))
#t2 = default_timer()
#print('{} simulation, duration = {}'.format(2*int(multiplier), t2-t1))
##r.plot()
# COPASI 4:20
t1 = default_timer()
r.reset()
r.simulate(0,20000,200000)
t2 = default_timer()
def test_delayed_choice(self):
inpil = """
length a = 5
length b = 15
length c = 15
length d = 15
length e = 15
length z = 15
RC1 = d( e( z ) ) b*( a* + ) c( + ) d @i 1e-8 M
RC1b = d e( z ) d*( b*( a* + ) c( + ) ) @i 1e-8 M
R0 = a b c @i 1e-7 M
R21 = b c( + ) d @i 0 M
R22 = d( e( z ) ) b*( a*( + ) ) c @i 0 M
R31 = b c @i 0 M
RC32b = d e( z ) d*( b*( a*( + ) ) c( + ) ) @i 0 M
RC32 = d( e( z ) ) b*( a*( + ) ) c( + ) d @i 0 M
TC1 = a( b c + b( c( + ) d + d( e( z ) ) ) ) @i 0 M
TC2 = a( b c + b( c( + ) d( + d e( z ) ) ) ) @i 0 M
TC3 = a( b( c + b c( + ) d( + d e( z ) ) ) ) @i 0 M
"""
enum, out = enumerate_pil(inpil, is_file=False, condensed=True)
xml = write_sbml(enum, condensed=True)
rr = RoadRunner()
rr.load(xml)
ExecutableModel = rr.model
RC32 = 'RC32' if 'RC32' in rr.model.getFloatingSpeciesIds(
) else 'RC32b'
RC1 = 'RC1' if 'RC1' in rr.model.getFloatingSpeciesIds() else 'RC1b'
# Compartment
assert ExecutableModel.getCompartmentVolumes() == 1.
assert ExecutableModel.getNumCompartments() == 1
assert ExecutableModel.getCompartmentIds() == ['TestTube']
# Species
speciesIDs = ['R0', RC32, 'R22', 'R31', 'R21', RC1]
ini_spIDs = sorted('init({})'.format(x) for x in speciesIDs)
concIDs = [
'[R0]', '[' + RC32 + ']', '[R22]', '[R31]', '[R21]',
'[' + RC1 + ']'
]
ini_coIDs = sorted('init({})'.format(x) for x in concIDs)
assert ExecutableModel.getNumFloatingSpecies() == len(speciesIDs)
assert sorted(
ExecutableModel.getFloatingSpeciesIds()) == sorted(speciesIDs)
assert sorted(
ExecutableModel.getFloatingSpeciesInitAmountIds()) == sorted(
ini_spIDs)
assert sorted(ExecutableModel.getFloatingSpeciesInitConcentrationIds()
) == sorted(ini_coIDs)
#print(sorted(ini_coIDs))
#print(ExecutableModel.getFloatingSpeciesInitAmounts())
#print(ExecutableModel.getFloatingSpeciesInitConcentrations())
# Reactions
rxnIDs = [
'R0_' + RC1 + '__' + RC32 + '_R31', 'R0_' + RC1 + '__R22_R21'
]
assert ExecutableModel.getNumReactions() == len(rxnIDs)
assert sorted(ExecutableModel.getReactionIds()) == sorted(rxnIDs)
assert rr.model[RC32] == 0
assert rr.model[RC1] == 2e-8
# simulate deterministic
rr.model['init([R0])'] = 1e-8
assert rr.model['init(R0)'] == 1e-8
Vol = 1.66e-15
rr.model.setCompartmentVolumes([Vol])
rr.model['init([R0])'] = 1e-8 * Vol
rr.model[f'init({RC1})'] = 2e-8 * Vol
rr.integrator.absolute_tolerance = 1e-12 * Vol
rr.integrator.relative_tolerance = 1e-12 * Vol
rr.integrator.initial_time_step = 0.00001
result = rr.simulate(0, 500, steps=100)
#print(result)
#rr.plot() # look at it if you like!
# NOTE: something is off with the units with stochastic simulations, weird...
#print(rr.model.getCompartmentVolumes())
#print(rr.model.getFloatingSpeciesInitConcentrations())
#print(rr.model.getFloatingSpeciesInitAmounts())
#print(rr.model.getFloatingSpeciesConcentrations())
#print(rr.model.getFloatingSpeciesAmounts())
rr.reset()
from b3problem import B3Problem
from os.path import join, dirname, abspath, realpath
from numpy import allclose, isclose
problem = B3Problem(
abspath(
join(dirname(realpath(__file__)), '..', '..', '..', '..', '..', 'sbml',
'b3.xml')))
from roadrunner import RoadRunner
orig = RoadRunner(
abspath(
join(dirname(realpath(__file__)), '..', '..', '..', '..', '..', 'sbml',
'b3-original.xml')))
# print('Original OAA\' = {}'.format(orig["OAA'"]))
new = RoadRunner(
abspath(
join(dirname(realpath(__file__)), '..', '..', '..', '..', '..', 'sbml',
'b3.xml')))
from data import GLC_ss_value_map
for q in GLC_ss_value_map.keys():
if new[q] != GLC_ss_value_map[q]:
print('discrepancy: {} = {} vs {}'.format(q, new[q],
GLC_ss_value_map[q]))
# for rxn_id in new.model.getReactionIds():
# if orig[rxn_id] != new[rxn_id]:
# print('discrepancy: {} = {} vs {}'.format(rxn_id, orig[rxn_id], new[rxn_id]))
#
# quantities = ['[Emp]','e_Emp_kcat_f','FBP','e_Emp_Kfbp','e_Emp_kcat_r','PG3','e_Emp_Kpg3']
from roadrunner import RoadRunner, Logger
#Logger.setLevel(Logger.LOG_DEBUG) # too verbose
Logger.setLevel(Logger.LOG_WARNING)
# Load model
rr = RoadRunner('/tmp/tx.sbml')
#rr = RoadRunner('/tmp/tx-reduced.sbml')
#rr = RoadRunner('/tmp/antsbml.xml')
# Simulate model
results = rr.simulate(0, 10, 30, integrator='gillespie')
print(results)
# Write results to temp file
with open('/tmp/sim_res.csv', 'w') as f:
f.write(str(results))
# Plot
rr.plot()
