def test_get_spikes_with_gather(self, sim=sim):
t1 = 12.3
t2 = 13.4
t3 = 14.5
p = sim.Population(14, sim.EIF_cond_exp_isfa_ista())
p.record('v')
sim.run(t1)
sim.run(t2)
sim.reset()
p.record('spikes')
p.record('w')
sim.run(t3)
data = p.get_data(gather=True)
self.assertEqual(len(data.segments), 2)
seg0 = data.segments[0]
self.assertEqual(len(seg0.analogsignalarrays), 1)
self.assertEqual(len(seg0.spiketrains), 0)
seg1 = data.segments[1]
self.assertEqual(len(seg1.analogsignalarrays), 2)
self.assertEqual(len(seg1.spiketrains), p.size)
assert_array_equal(
seg1.spiketrains[7],
numpy.array([p.first_id + 7, p.first_id + 7 + 5]) % t3)
def test_get_data_with_gather(self, sim=sim):
t1 = 12.3
t2 = 13.4
t3 = 14.5
p = sim.Population(14, sim.EIF_cond_exp_isfa_ista())
pv = p[::3]
pv.record('v')
sim.run(t1)
# what if we call p.record between two run statements?
# would be nice to get an AnalogSignal with a non-zero t_start
# but then need to make sure we get the right initial value
sim.run(t2)
sim.reset()
pv.record('spikes')
pv.record('w')
sim.run(t3)
data = p.get_data(gather=True)
self.assertEqual(len(data.segments), 2)
seg0 = data.segments[0]
self.assertEqual(len(seg0.analogsignals), 1)
self.assertEqual(len(seg0.spiketrains), 0)
seg1 = data.segments[1]
self.assertEqual(len(seg1.analogsignals), 2)
self.assertEqual(len(seg1.spiketrains), pv.size)
assert_array_equal(seg1.spiketrains[2],
numpy.array([p.first_id + 6, p.first_id + 6 + 5]) % t3)
def test_get_data_with_gather(self):
t1 = 12.3
t2 = 13.4
t3 = 14.5
p = sim.Population(14, sim.EIF_cond_exp_isfa_ista())
pv = p[::3]
pv.record('v')
sim.run(t1)
# what if we call p.record between two run statements?
# would be nice to get an AnalogSignalArray with a non-zero t_start
# but then need to make sure we get the right initial value
sim.run(t2)
sim.reset()
pv.record('spikes')
pv.record('w')
sim.run(t3)
data = p.get_data(gather=True)
self.assertEqual(len(data.segments), 2)
seg0 = data.segments[0]
self.assertEqual(len(seg0.analogsignalarrays), 1)
v = seg0.analogsignalarrays[0]
self.assertEqual(v.name, 'v')
num_points = int(round((t1 + t2)/sim.get_time_step())) + 1
self.assertEqual(v.shape, (num_points, pv.size))
self.assertEqual(v.t_start, 0.0*pq.ms)
self.assertEqual(v.units, pq.mV)
self.assertEqual(v.sampling_period, 0.1*pq.ms)
self.assertEqual(len(seg0.spiketrains), 0)
seg1 = data.segments[1]
self.assertEqual(len(seg1.analogsignalarrays), 2)
w = seg1.filter(name='w')[0]
self.assertEqual(w.name, 'w')
num_points = int(round(t3/sim.get_time_step())) + 1
self.assertEqual(w.shape, (num_points, pv.size))
self.assertEqual(v.t_start, 0.0)
self.assertEqual(len(seg1.spiketrains), pv.size)
assert_array_equal(seg1.spiketrains[2],
numpy.array([p.first_id+6, p.first_id+6+5]) % t3)
def test_get_data_with_gather(self):
t1 = 12.3
t2 = 13.4
t3 = 14.5
p = sim.Population(14, sim.EIF_cond_exp_isfa_ista())
p.record('v')
sim.run(t1)
# what if we call p.record between two run statements?
# would be nice to get an AnalogSignalArray with a non-zero t_start
# but then need to make sure we get the right initial value
sim.run(t2)
sim.reset()
p.record('spikes')
p.record('w')
sim.run(t3)
data = p.get_data(gather=True)
self.assertEqual(len(data.segments), 2)
seg0 = data.segments[0]
self.assertEqual(len(seg0.analogsignalarrays), 1)
v = seg0.analogsignalarrays[0]
self.assertEqual(v.name, 'v')
num_points = int(round((t1 + t2) / sim.get_time_step())) + 1
self.assertEqual(v.shape, (num_points, p.size))
self.assertEqual(v.t_start, 0.0 * pq.ms)
self.assertEqual(v.units, pq.mV)
self.assertEqual(v.sampling_period, 0.1 * pq.ms)
self.assertEqual(len(seg0.spiketrains), 0)
seg1 = data.segments[1]
self.assertEqual(len(seg1.analogsignalarrays), 2)
w = seg1.filter(name='w')[0]
self.assertEqual(w.name, 'w')
num_points = int(round(t3 / sim.get_time_step())) + 1
self.assertEqual(w.shape, (num_points, p.size))
self.assertEqual(v.t_start, 0.0)
self.assertEqual(len(seg1.spiketrains), p.size)
assert_array_equal(
seg1.spiketrains[7],
numpy.array([p.first_id + 7, p.first_id + 7 + 5]) % t3)
def test_get_data_with_gather(self, sim=sim):
t1 = 12.3
t2 = 13.4
t3 = 14.5
p1 = sim.Population(11, sim.IF_cond_exp())
p2 = sim.Population(6, sim.IF_cond_alpha())
p3 = sim.Population(3, sim.EIF_cond_exp_isfa_ista())
a = sim.Assembly(p3, p1, p2)
a.record('v')
sim.run(t1)
# what if we call p.record between two run statements?
# would be nice to get an AnalogSignal with a non-zero t_start
# but then need to make sure we get the right initial value
sim.run(t2)
sim.reset()
a.record('spikes')
p3.record('w')
sim.run(t3)
data = a.get_data(gather=True)
self.assertEqual(len(data.segments), 2)
seg0 = data.segments[0]
self.assertEqual(len(seg0.analogsignals), 1)
v = seg0.filter(name='v')[0]
self.assertEqual(v.name, 'v')
num_points = int(round((t1 + t2) / sim.get_time_step())) + 1
self.assertEqual(v.shape, (num_points, a.size))
self.assertEqual(v.t_start, 0.0 * pq.ms)
self.assertEqual(v.units, pq.mV)
self.assertEqual(v.sampling_period, 0.1 * pq.ms)
self.assertEqual(len(seg0.spiketrains), 0)
seg1 = data.segments[1]
self.assertEqual(len(seg1.analogsignals), 2)
w = seg1.filter(name='w')[0]
self.assertEqual(w.name, 'w')
num_points = int(round(t3 / sim.get_time_step())) + 1
self.assertEqual(w.shape, (num_points, p3.size))
self.assertEqual(v.t_start, 0.0)
self.assertEqual(len(seg1.spiketrains), a.size)
def test_get_spikes_with_gather(self, sim=sim):
t1 = 12.3
t2 = 13.4
t3 = 14.5
p = sim.Population(14, sim.EIF_cond_exp_isfa_ista())
p.record('v')
sim.run(t1)
sim.run(t2)
sim.reset()
p.record('spikes')
p.record('w')
sim.run(t3)
data = p.get_data(gather=True)
self.assertEqual(len(data.segments), 2)
seg0 = data.segments[0]
self.assertEqual(len(seg0.analogsignalarrays), 1)
self.assertEqual(len(seg0.spiketrains), 0)
seg1 = data.segments[1]
self.assertEqual(len(seg1.analogsignalarrays), 2)
self.assertEqual(len(seg1.spiketrains), p.size)
assert_array_equal(seg1.spiketrains[7],
numpy.array([p.first_id + 7, p.first_id + 7 + 5]) % t3)
def test_reset(self):
sim.setup()
sim.run(1000.0)
sim.reset()
self.assertEqual(sim.get_current_time(), 0.0)
def test_reset(self, sim=sim):
sim.setup(**self.extra)
sim.run(100.0)
sim.reset()
self.assertEqual(sim.get_current_time(), 0.0)
sim.end()
def test_reset(self, sim=sim):
sim.setup(**self.extra)
sim.run(100.0)
sim.reset()
self.assertEqual(sim.get_current_time(), 0.0)
sim.end()
def test_reset(self):
sim.setup()
sim.run(1000.0)
sim.reset()
self.assertEqual(sim.get_current_time(), 0.0)
