def testStaticPeriod():
static = StaticPeriod()
static.start(0.1)
wait(0.05)
assert static.complete() == 1
static.start(0.1)
wait(0.11)
assert static.complete() == 0
win = Window(autoLog=False)
static = StaticPeriod(screenHz=60, win=win)
static.start(.002)
assert win.recordFrameIntervals == False
static.complete()
assert static._winWasRecordingIntervals == win.recordFrameIntervals
win.close()
# Test if screenHz parameter is respected, i.e., if after completion of the
# StaticPeriod, 1/screenHz seconds are still remaining, so the period will
# complete after the next flip.
refresh_rate = 100.0
period_duration = 0.1
timer = CountdownTimer()
win = Window(autoLog=False)
static = StaticPeriod(screenHz=refresh_rate, win=win)
static.start(period_duration)
timer.reset(period_duration)
static.complete()
assert np.allclose(timer.getTime(), 1.0 / refresh_rate, atol=0.001)
win.close()
def testStaticPeriod():
static = StaticPeriod()
static.start(0.1)
wait(0.05)
assert static.complete()==1
static.start(0.1)
wait(0.11)
assert static.complete()==0
win = Window(autoLog=False)
static = StaticPeriod(screenHz=60, win=win)
static.start(.002)
assert win.recordFrameIntervals == False
static.complete()
assert static._winWasRecordingIntervals == win.recordFrameIntervals
win.close()
# Test if screenHz parameter is respected, i.e., if after completion of the
# StaticPeriod, 1/screenHz seconds are still remaining, so the period will
# complete after the next flip.
refresh_rate = 100.0
period_duration = 0.1
timer = CountdownTimer()
win = Window(autoLog=False)
static = StaticPeriod(screenHz=refresh_rate, win=win)
static.start(period_duration)
timer.reset(period_duration )
static.complete()
assert np.allclose(timer.getTime(),
1.0/refresh_rate,
atol=0.001)
win.close()
def testCountdownTimer():
try:
cdt = CountdownTimer(5.0)
assert cdt.getTime() <= 5.0
assert cdt.getTime() >= 4.75
time.sleep(cdt.getTime())
assert np.fabs(cdt.getTime()) < 0.1
printf(">> CountdownTimer Test: PASSED")
except Exception:
printf(">> CountdownTimer Test: FAILED")
printExceptionDetails()
printf("-------------------------------------\n")
def test_CountdownTimer():
try:
cdt = CountdownTimer(5.0)
assert cdt.getTime() <= 5.0
assert cdt.getTime() >= 4.75
time.sleep(cdt.getTime())
assert np.fabs(cdt.getTime()) < 0.1
printf(">> CountdownTimer Test: PASSED")
except Exception:
printf(">> CountdownTimer Test: FAILED")
printExceptionDetails()
printf("-------------------------------------\n")
def synchronize(self, stimulus):
logging.msg('Await a signal from Labjack in {} sec...'.format(
self.component.timeout))
logging.flush()
for i in range(self.component.timeout, 0, -1):
timer = CountdownTimer(1)
msg = 'Await a signal from LabJack in {} sec...'.format(i)
stimulus.flip_text(msg)
while timer.getTime() > 0:
if event.getKeys('escape'):
raise UserAbortException()
if self.u3.get_counter():
logging.msg('counter increased')
logging.flush()
# self.instance.reset_timer()
return
else: # timeout...
raise TimeoutException('Could not catch any signal from LabJack.')
def open_trial(self):
self.trialnum += 1
self.result = ''
self.pts_this_trial = 0
self.trial_over = False
self.target_is_on = False
self.input_received = False
self.no_response = False
self.response_timer = None
self.rt = float('NaN')
self.data = []
numtargs = np.prod(self.pars['grid'])
self.which_target = np.random.randint(0, numtargs)
self.onset_interval = np.random.uniform(self.pars['min_onset'],
self.pars['max_onset'])
self.is_nogo = np.random.rand() < self.pars['frac_nogo']
if self.is_nogo:
self.trial_type = 'no'
else:
self.trial_type = 'go'
self.onset_countdown = CountdownTimer(self.onset_interval)
self.mark_event('trial_start', channel=1)
def open_trial(self):
self.trialnum += 1
self.result = ''
self.pts_this_trial = 0
self.trial_over = False
self.target_is_on = False
self.input_received = False
self.no_response = False
self.response_timer = None
self.rt = float('NaN')
self.data = []
numtargs = np.prod(self.pars['grid'])
self.which_target = np.random.randint(0, numtargs)
self.onset_interval = np.random.uniform(self.pars['min_onset'],
self.pars['max_onset'])
self.is_nogo = np.random.rand() < self.pars['frac_nogo']
if self.is_nogo:
self.trial_type = 'no'
else:
self.trial_type = 'go'
self.onset_countdown = CountdownTimer(self.onset_interval)
self.mark_event('trial_start', channel=1)
fullscr=True,
screen=0,
allowGUI=False,
allowStencil=False,
monitor='testMonitor',
color='black',
colorSpace='rgb',
blendMode='avg',
useFBO=True,
units='norm')
session, phases = 30, 120
R1, R2, score, phase, zeros, ones = 0, 0, 0, 0, 0, 0
lpressed, rpressed = False, False
mouse = Mouse()
stimuli_timer = CountdownTimer(0)
phase_timer = CountdownTimer(0)
global_time = Clock()
p_list = [0.25, 0.75]
data = [] #array for data
data.append(['time', 'R1', 'R2', 'score', 'number', 'zeros', 'ones',
'p']) #column names in csv file
#displayed text
text = TextStim(win=win, pos=(0, 0), text=' ')
#defines click boxes
lbox = Rect(win=win,
width=0.3,
height=0.3,
class Controller:
def __init__(self, pars, display, logger, joystick):
self.pars = pars
self.display = display
self.trialnum = 0
self.score = 0
self.end_task = False
self.mark_event = logger
self.joystick = joystick
def open_trial(self):
self.trialnum += 1
self.result = ''
self.pts_this_trial = 0
self.trial_over = False
self.target_is_on = False
self.input_received = False
self.no_response = False
self.response_timer = None
self.rt = float('NaN')
self.data = []
numtargs = np.prod(self.pars['grid'])
self.which_target = np.random.randint(0, numtargs)
self.onset_interval = np.random.uniform(self.pars['min_onset'],
self.pars['max_onset'])
self.is_nogo = np.random.rand() < self.pars['frac_nogo']
if self.is_nogo:
self.trial_type = 'no'
else:
self.trial_type = 'go'
self.onset_countdown = CountdownTimer(self.onset_interval)
self.mark_event('trial_start', channel=1)
def run_trial(self):
self.open_trial()
while not self.trial_over:
self.wait_for_input()
if self.input_received:
self.handle_input()
self.display_outcome()
else:
self.handle_no_input()
self.refresh()
self.close_trial()
return self.data
def wait_for_input(self):
pressed = []
while True:
self.present_target()
pressed = event.getKeys(keyList=['left', 'right', 'escape'])
if 'escape' in pressed:
self.end_task = True
break
elif pressed or True in self.joystick.getAllButtons():
self.input_received = True
self.mark_event('responded', channel=3)
break
elif self.target_is_on and (self.response_timer.getTime() >
self.pars['max_rt']):
self.no_response = True
self.mark_event('no_response', channel=4)
break
def present_target(self):
if not self.target_is_on and self.onset_countdown.getTime() < 0:
# rotate target into view
self.display.onset(self.which_target, self.trial_type)
self.target_is_on = True
self.response_timer = Clock()
self.mark_event('target on', channel=2)
self.display.draw()
def handle_input(self):
if self.target_is_on:
self.result = 'hit'
self.trial_over = True
self.rt = self.response_timer.getTime()
self.correct = not self.is_nogo
if self.correct:
self.pts_this_trial = self.calculate_points(self.pars, self.rt)
self.outcome_sound = self.display.cashsnd
else:
self.pts_this_trial = -self.pars['pts_per_correct']
self.outcome_sound = self.display.buzzsnd
self.outcome_delay = self.pars['disp_resp']
else:
self.result = 'premature'
self.pts_this_trial = -self.pars['pts_per_correct']
self.outcome_sound = self.display.firesnd
self.outcome_delay = 0.3
# remember to reset input
self.input_received = False
def handle_no_input(self):
self.result = 'no response'
self.correct = self.is_nogo
self.trial_over = True
def display_outcome(self):
# update text onscreen
self.display.set_target_text(self.which_target,
str(self.pts_this_trial))
self.score += self.pts_this_trial
self.display.set_score(self.score)
# refresh screen
self.outcome_sound.play()
self.mark_event('outcome', channel=5)
# during static period, code between start and complete will run
iti = StaticPeriod()
iti.start(self.outcome_delay)
self.display.draw()
iti.complete()
# remove text overlay on target
self.display.set_target_text(self.which_target, '')
def refresh(self):
if self.target_is_on:
self.display.offset(self.which_target)
self.display.draw()
def close_trial(self):
# print to screen
self.mark_event('trial_over', channel=8)
print 'Trial {0:d}: Type {1} Result: {2} RT: {3:0.3g} Correct: {4:d} Points: {5:d}'.format(
self.trialnum, self.trial_type, self.result, self.rt, self.correct,
self.pts_this_trial)
def calculate_points(self, pars, rt):
return int(
np.floor(pars['pts_per_correct'] *
np.exp(-(rt - pars['pts_offset']) / pars['pts_decay'])))
#system settings (session duration, interval length and size of COD)
session = 60 #minutes
phase_time = session / 6
COD = 5
schedule_list = ['ConcChFR20VI5/FR20FI5',
'ConcChFR20FI5/FR20VI5'] #where random schedule is located
interval = 5
ratio = 20
link_time = 100
initial = False
#initialization
#counts time from the start of reinforcement
global_time = Clock()
#timers for the schedule of reinforcement
interval_timer = CountdownTimer(0)
phase_timer = CountdownTimer(0)
link_timer = CountdownTimer(0)
#tracks responses
lpressed, rpressed, cpressed = False, False, False
mouse = Mouse()
R1, n1 = 0, 0 #tracks responses from left and prevents changeovers
R2, n2 = 0, 0 #tracks responses from right
R3 = 0 #tracks responses from center
#tracks consequences
Cs1, Cs2, Cs3, score = 0, 0, 0, 500
#tracks experiment
phase = 0 #how many different conditions introduced
data = [] #array for data
data.append([
def run(self):
mainTimer = getTime
self.__appInterface.displayInstructions()
totalTestTimer = CountdownTimer(TOTAL_TEST_DURATION)
inbetweenSessionCountdown = CountdownTimer(TEST_BLOCK_DURATION)
while totalTestTimer.getTime() > 0:
presentedItems = filter(lambda x: len(x.presentations) > 0, self.__stimuli)
stimulus = None
minActivationStimulus = None
if len(presentedItems) > 0:
# Select item from presented items with activation <= ACTIVATION_THRESHOLD_RETEST
predictionTime = mainTimer() + ACTIVATION_PREDICTION_TIME_OFFSET
minActivation, minActivationStimulus = min([(calculateActivation(s, predictionTime), s) for s in presentedItems], key=lambda x: x[0])
if minActivation <= ACTIVATION_THRESHOLD_RETEST:
stimulus = minActivationStimulus
if not stimulus:
# None under that threshold? Add a new item if possible
if len(presentedItems) < len(self.__stimuli):
stimulus = self.__stimuli[len(presentedItems)]
if not stimulus:
stimulus = minActivationStimulus
if not stimulus:
raise ValueError("Could not select any stimulus for presentation")
#print "Presented items:\n ", "\n ".join([str((calculateActivation(s, predictionTime), s.name, s.alpha, map(str, s.presentations))) for s in presentedItems])
newPresentation = WordItemPresentation()
presentationStartTime = mainTimer()
newPresentation.decay = calculateNewDecay(stimulus, presentationStartTime)
if len(stimulus.presentations) == 0:
# First presentation of stimulus
self.__appInterface.learn(stimulus.image, stimulus.name, stimulus.translation)
else:
# Second presentations of stimulus
response = self.__appInterface.test(stimulus.name)
if response.lower() == stimulus.translation.lower():
self.currentScore += CORRECT_ANSWER_SCORE
self.__appInterface.updateHighscore(self.currentScore)
self.__appInterface.displayCorrect(response, stimulus.translation)
repeat = False
else:
stimulus.alpha += ALPHA_ERROR_ADJUSTMENT_SUMMAND
newPresentation.decay = calculateNewDecay(stimulus, presentationStartTime)
mixedUpWord = self.findMixedUpWord(response)
if mixedUpWord:
self.__appInterface.mixedup(stimulus.name, stimulus.translation, mixedUpWord.name, mixedUpWord.translation)
else:
self.__appInterface.displayWrong(response, stimulus.translation, stimulus.image)
newPresentation.time = presentationStartTime
stimulus.presentations.append(newPresentation)
if inbetweenSessionCountdown.getTime() <= 0:
imageWordPairs = {}
imageSequence = []
for stimulus in self.__stimuli:
if stimulus.presentations:
translationData = (stimulus.name, stimulus.translation)
if stimulus.image in imageWordPairs:
imageWordPairs[stimulus.image].append(translationData)
else:
imageWordPairs[stimulus.image] = [translationData]
imageSequence.append(stimulus.image)
self.__appInterface.startInbetweenSession([(image, imageWordPairs[image]) for image in imageSequence])
inbetweenSessionCountdown = CountdownTimer(TEST_BLOCK_DURATION)
class Controller:
def __init__(self, pars, display, logger, joystick):
self.pars = pars
self.display = display
self.trialnum = 0
self.score = 0
self.end_task = False
self.mark_event = logger
self.joystick = joystick
def open_trial(self):
self.trialnum += 1
self.result = ''
self.pts_this_trial = 0
self.trial_over = False
self.target_is_on = False
self.input_received = False
self.no_response = False
self.response_timer = None
self.rt = float('NaN')
self.data = []
numtargs = np.prod(self.pars['grid'])
self.which_target = np.random.randint(0, numtargs)
self.onset_interval = np.random.uniform(self.pars['min_onset'],
self.pars['max_onset'])
self.is_nogo = np.random.rand() < self.pars['frac_nogo']
if self.is_nogo:
self.trial_type = 'no'
else:
self.trial_type = 'go'
self.onset_countdown = CountdownTimer(self.onset_interval)
self.mark_event('trial_start', channel=1)
def run_trial(self):
self.open_trial()
while not self.trial_over:
self.wait_for_input()
if self.input_received:
self.handle_input()
self.display_outcome()
else:
self.handle_no_input()
self.refresh()
self.close_trial()
return self.data
def wait_for_input(self):
pressed = []
while True:
self.present_target()
pressed = event.getKeys(keyList=['left', 'right', 'escape'])
if 'escape' in pressed:
self.end_task = True
break
elif pressed or (self.joystick and True in
self.joystick.getAllButtons()):
self.input_received = True
self.mark_event('responded', channel=3)
break
elif self.target_is_on and (self.response_timer.getTime() > self.pars['max_rt']):
self.no_response = True
self.mark_event('no_response', channel=4)
break
def present_target(self):
if not self.target_is_on and self.onset_countdown.getTime() < 0:
# rotate target into view
self.display.onset(self.which_target, self.trial_type)
self.target_is_on = True
self.response_timer = Clock()
self.mark_event('target on', channel=2)
self.display.draw()
def handle_input(self):
if self.target_is_on:
self.result = 'hit'
self.trial_over = True
self.rt = self.response_timer.getTime()
self.correct = not self.is_nogo
if self.correct:
self.pts_this_trial = self.calculate_points(self.pars,
self.rt)
self.outcome_sound = self.display.cashsnd
else:
self.pts_this_trial = -self.pars['pts_per_correct']
self.outcome_sound = self.display.buzzsnd
self.outcome_delay = self.pars['disp_resp']
else:
self.result = 'premature'
self.pts_this_trial = -self.pars['pts_per_correct']
self.outcome_sound = self.display.firesnd
self.outcome_delay = 0.3
# remember to reset input
self.input_received = False
def handle_no_input(self):
self.result = 'no response'
self.correct = self.is_nogo
self.trial_over = True
def display_outcome(self):
# update text onscreen
self.display.set_target_text(self.which_target,
str(self.pts_this_trial))
self.score += self.pts_this_trial
self.display.set_score(self.score)
# refresh screen
self.outcome_sound.play()
self.mark_event('outcome', channel=5)
# during static period, code between start and complete will run
iti = StaticPeriod()
iti.start(self.outcome_delay)
self.display.draw()
iti.complete()
# remove text overlay on target
self.display.set_target_text(self.which_target, '')
def refresh(self):
if self.target_is_on:
self.display.offset(self.which_target)
self.display.draw()
def close_trial(self):
# print to screen
self.mark_event('trial_over', channel=8)
print 'Trial {0:d}: Type {1} Result: {2} RT: {3:0.3g} Correct: {4:d} Points: {5:d}'.format(self.trialnum, self.trial_type, self.result, self.rt, self.correct, self.pts_this_trial)
def calculate_points(self, pars, rt):
return int(np.floor(pars['pts_per_correct'] * np.exp(
-(rt - pars['pts_offset']) / pars['pts_decay'])))
def start(self):
self.getTime = CountdownTimer(self.duration).getTime
return self
def start(self):
self.getTime = CountdownTimer(self.duration).getTime
self.stimulus.window.flip()
return self
useFBO=True,
units='norm')
#system settings (session duration, interval length and size of COD)
session = 60 #minutes
phase_time = session / 6
COD = 5
schedule_list = ['ConcVI15FI15',
'ConcFI15VI15'] #where random schedule is located
interval = 15
#initialization
#counts time from the start of reinforcement
global_time = Clock()
#timers for the schedule of reinforcement
T1, T2 = CountdownTimer(0), CountdownTimer(0)
phase_timer = CountdownTimer(0)
#tracks responses
lpressed, rpressed = False, False
mouse = Mouse()
R1, n1 = 0, 0 #tracks responses from left and prevents changeovers
R2, n2 = 0, 0 #tracks responses from right
#tracks consequences
Rf1, Rf2, score = 0, 0, 0
#tracks experiment
phase = 0 #how many different conditions introduced
data = [] #array for data
data.append(['time', 'R1', 'R2', 'Rf1', 'Rf2', 'phase',
'schedule']) #column names in csv file
