def runRT(window,ask,test,language,preferred_hand,exp):
try:
while True:
ask(lookup[test][language][preferred_hand])
response = ask(practiceLookup[language])
if event.getKeys(keyList=['escape', 'q']):
core.quit()
if 'r' in response:
print 'r pressed'
continue
if 'space' in response:
break
if event.getKeys(keyList=['s']):
print "Skipped experiment"
return
getReady = lookupGetReady[language]
error = lookupError[language]
wrongkey = lookupwrongKey[language]
score=1
while score != 0:
score = run(window,clock, ask, error,getReady,wrongkey,language, exp,practice=True)
print score
#Run experiment
run(window,clock, ask, error,getReady,wrongkey,language,exp)
except KeyboardInterrupt:
raise
core.quit()
def wait_check_pause_quit(win, wait_time, quit_keys=["q", "escape"],
pause_keys=["space"], check_every=1):
"""Wait while checking for pause or quit input."""
raise NotImplementedError("This isn't quite finished yet")
checks = int(floor(wait_time / check_every))
for _ in range(checks):
core.wait(check_every)
if event.getKeys(keyList=quit_keys):
print "Subject quit execution"
core.quit()
if event.getKeys(keyList=pause_keys):
pause_start = time.time()
visual.TextStim(win, text="Experiment paused").draw()
win.flip()
paused = True
while paused:
if event.getKeys(keyList=pause_keys):
paused = False
core.sleep(check_every)
pause_end = time.time()
pause_duration = pause_end - pause_start
remaining = wait_time - checks * check_every
if remaining:
core.wait(remaining)
return pause_duration
def get_rating(input_method, resp_device, timeStamped,trig_collector,win):
#if participants don't respond we will set up a null value so we don't get an error
thisResp = None
thisRT = np.nan
if input_method == 'keyboard':
for key, RT in event.getKeys(keyList = ['escape', 'q', '1', '2', '3', '4'], timeStamped = timeStamped):
if key in ['escape','q']:
print 'User Cancelled'
if trig_collector:
trig_collector.endCollection()
quitEXP(True)
else:
thisResp = key
thisRT = timeStamped.getTime()
else:
thisResp = resp_device.read(1)
thisRT = timeStamped.getTime()
if len(thisResp) == 0:
thisResp = None
thisRT = np.nan
else:
pass
# Quickly check for a 'escape' response on the keyboard to quit
for key, RT in event.getKeys(keyList = ['escape'], timeStamped = timeStamped):
if key in ['escape']:
print 'User cancelled'
trials.saveAsText(datalog_fn + '_data.csv')
if trig_collector:
trig_collector.endCollection()
quitEXP(True)
return thisResp, thisRT
def showUntilKeyPressed(self, text, keyList=[]):
"""
Show text until a key is pressed.
If keyList is empty, it will listen for all keys.
"""
self._display(text)
instructionClock = core.Clock()
instructionClock.reset()
keyPressed = False
eventCheckStarted = False
while not keyPressed:
t = instructionClock.getTime()
if t >= 0.5:
# Do not check for events immediatelly, such that people do not accidentally
# skip the message.
if eventCheckStarted == False:
# Remove keyboard events that were sent before the "grace" period had elapsed
event.clearEvents(eventType='keyboard')
eventCheckStarted = True
# Check for keys
if keyList == []:
theseKeys = event.getKeys()
else:
theseKeys = event.getKeys(keyList=keyList)
if len(theseKeys) > 0:
# A key was pressed, return it
return theseKeys[0]
def WaitForKeyInput():
text='...'
#until return pressed, listen for letter keys & add to text string
while event.getKeys(keyList=['return'])==[]:
letterlist=event.getKeys(keyList=['0', '1', '2', '3', '4', '5' , '6', '7', '8', '9','backspace','q'])
for l in letterlist:
if l == 'q':
core.quit()
#if key isn't backspace, add key pressed to the string
if l !='backspace':
if text =="...":
text=l
pressedkeys=l
else:
text+=l
pressedkeys+=(";" + l)
#otherwise, take the last letter off the string
elif len(text)>0:
text=text[:-1]
pressedkeys+=(";backspace")
#continually redraw text onscreen until return pressed
text = unicode(text)
print "UNICODE"
print text
response = visual.TextStim(mywin, height=36,text=text,color="white",pos=(0,-100))
betAsk.draw()
response.draw()
mywin.flip()
core.wait(0.1)
RT = trialClock.getTime()
event.clearEvents()
return text,RT
def show_probe():
stats={'type':'probe'}
# clear keybuffer
event.getKeys()
# set probe to either on- or off-task
probe.init_random()
fclock.reset()
for i in range(fprobe):
probe.draw()
win.flip()
keys=event.getKeys()
if key1 in keys:
probe.arrow_move(int(key1))
elif key2 in keys:
probe.arrow_move(int(key2))
elif key3 in keys:
probe.arrow_move(int(key3))
elif key4 in keys:
probe.arrow_move(int(key4))
stats['time_probe']=fclock.getTime()
stats['response']=probe.current_pos+1
return stats
def show_trial(num):
stats={'type':'go' if num!=3 else 'stop', 'number':num, 'nresponses':0}
fclock.reset()
num=int(num)
number.setText("%i"%num)
fclock.reset()
for i in range(fnumber):
number.draw()
win.flip()
keys=event.getKeys()
if set(valid_keys) & set(keys): #intersection on sets
if stats['nresponses']==0:
stats['response']=1
stats['RT']=fclock.getTime()
stats['nresponses']+=1
stats['time_number']=fclock.getTime()
fclock.reset()
for i in range(fblank):
win.flip()
keys=event.getKeys()
if set(valid_keys) & set(keys):
if stats['nresponses']==0:
stats['response']=1
stats['RT']=fclock.getTime()+stats['time_number']
stats['nresponses']+=1
stats['time_blank']=fclock.getTime()
return stats
def textInput():
#until return pressed, listen for letter keys & add to text string
text = ''
while event.getKeys(keyList=['escape'])==[]:
letterlist=event.getKeys()
letterDict = {'space': ' '}
# letterlist=event.getKeys(keyList=['0','1','2','3','4','5','6','7','8','9','backspace'])
for l in letterlist:
if l == 'space':
text += ' '
elif l == 'return':
text += '\n'
#if key isn't backspace, add key pressed to the string
elif l != 'backspace':
text += l
#otherwise, take the last letter off the string
elif len(text)>0:
text = text[:-1]
#continually redraw text onscreen until return pressed
textObject = visual.TextStim(win=win, ori=0, name='pause', text=text, font=u'Arial', pos=[0, 0],
height=1.0, wrapWidth=None, color=u'white', colorSpace=u'rgb', opacity=1, depth=-1.0)
# textReport.draw()
textObject.draw()
win.flip()
text = str(text)
event.clearEvents()
print text
return text
def waitForKeypress():
allKeys = event.getKeys()
while len(allKeys)==0:
allKeys = event.getKeys()
if 'escape' in allKeys[0]:
mywin.close() # quit
core.quit()
def ask(text='', keyList=[]):
"""
Ask subject something. Shows question and returns answer (keypress)
and reaction time. Defaults to no text and all keys.
"""
# Draw the TextStims to visual buffer, then show it and reset timing immediately (at stimulus onset)
stimText.setText(codecs.decode(text,"utf-8"))
spaceText.setText(codecs.decode(spaceLookup[language],"utf-8"))
# Set the text height
stimText.setHeight(1)
spaceText.setHeight(1)
# set the text color
stimText.setColor('white')
spaceText.setColor('white')
stimText.draw()
spaceText.draw()
win.flip()
event.clearEvents('keyboard')
# Halt everything and wait for (first) responses matching the keys given in the Q object.
response = event.waitKeys(keyList=['space','q','r'])
if response[0] in keysQuit: # Look at first reponse [0]. Quit everything if quit-key was pressed
core.quit()
if response[0] in keysBreak:
event.clearEvents('keyboard')
win.flip()
if event.getKeys(keyList=['escape', 'q']):
core.quit()
if event.getKeys(keyList=['s']):
print "Skipped experiment"
quit()
return response # When answer given, return it.
def doUserInteraction(stim, expectedKeys, timeout, soundFile):
global paused
if timeout == None or timeout == 0:
timeout = sys.maxint
startTime = trialClock.getTime()
endTime = startTime + timeout
response = {
"keys": [],
"firstKey": None,
"lastKey": None,
"startTime": startTime,
"endTime": endTime,
"duration": 0,
"timedOut": False,
}
if soundFile != None:
soundFile.play()
while(True):
stim.setAutoDraw(True) #continuously draws the stimulus to the buffer
win.flip() # exposes the stimulus to the screen
keys = [] # initializes an empty array to hold the keys that were pressed.
# this IF checks 2 things in order to determine which keys are allowed to be pressed:
if expectedKeys != None: # Have I specified a list of allowed keys?
if len(expectedKeys) != 0: # Have I specified any particular keys (rather than just [] which means All keys?
keys = event.getKeys(expectedKeys) # Listen for key presses from a particular subset
else:
keys = event.getKeys() # Listen for Any key presses.
if len(keys) > 0: # If a key was pressed store some values in the object "response" defined above.
response["keys"] = keys # put all the responses in here.
response["firstKey"] = keys[0] # put the first keypress here
response["lastKey"] = keys[len(keys)-1] # put the last keypress here.
break #break out of this function
elif trialClock.getTime() > endTime: # If the response time window has run out
response["timedOut"] = True # indicate that we timed out
response["firstKey"] = 'NA' # put 'NA' as the first key pressed
break
if event.getKeys(['f5']): # This is a "pause" button for the experiment
textStim.text = 'Press any key to continue'
textStim.pos = (0,-10)
paused = 1
stimUntilAnyKey(textStim)
textStim.pos = (0,0)
#check for quit (the [Esc] key)
if event.getKeys(["escape"]):
core.quit() #quits the entire experiment - will dump you to the desktop or whatever.
stim.setAutoDraw(False) # stop drawing the stimulus to the buffer
win.flip() # expose the now blank buffer to the screen
response["duration"] = trialClock.getTime() - startTime # keeps track of how long since the stim was drawn to the screen
event.clearEvents(eventType=None) # clear the key buffer.
return response # ends the function and returns the object "response". Without this return - we would not be able to access any of this data.
def show_instr(instructionText):
instruction = visual.TextStim(mywin, text=instructionText,color=(1,1,1),height = 25)
instruction.draw()
mywin.flip()
# wait for key-press
allKeys = event.getKeys()
while len(allKeys)==0:
allKeys = event.getKeys()
def do_break():
breaktext = visual.TextStim(mywin, text="Break\n\nPress <space> to continue...",color=(1,1,1),height = 50)
breaktext.draw()
mywin.flip()
# wait for key-press
allKeys = event.getKeys()
while len(allKeys)==0:
allKeys = event.getKeys()
def Letters3Back(win, ask, language, letters):
event.clearEvents()
win.setRecordFrameIntervals(True)
mouse = event.Mouse(visible=False)
list =[random.randint(0,10) for r in xrange(numTrials)]
#list = [2,3,2,3,2,3,2,3,4,5,6,7,8,9,8]
keyList=[]
responses = ['none'] * len(letters)
demoDisp = visual.TextStim(win, text = letters[0], height = 4, pos=(0.0, 0.0)) #textstim object that will be displayed
counter = 0 # Counter is unused?
for x in range(len(letters)):
# PREPARE STIMULUS
demoDisp.setText(letters[x])
# PRESENT STIMULUS
for frameN in range(stimFrames):
# Display stimulus
demoDisp.draw()
win.flip()
RT.reset()
# Reset timer on onset
if frameN == 0:
RT.reset()
if event.getKeys(['q','escape']):
core.quit()
# RECORD RESPONSES
keyList=event.getKeys(timeStamped=RT)
if keyList:
# keyList[N][Y], N is response number if multiple keys were pressed. Y=0 is key-name. Y=1 is time
if 'space' in keyList[0][0]:
#Play sound when key pressed
#filesound = sound.Sound(audioPath)
#filesound.setVolume(1.0)
#filesound.play()
#Save responses
responses[x]= keyList[0][0]
print responses
elif keyList == 'q':
core.quit()
else:
#responses.append('none')
#No key was pressed
continue
#if not keyList:
# responses.append('none')
# PRESENT BLANK
for frameN in range(blankFrames):
# Blank screen with no response recording
RT.reset()
win.flip()
if event.getKeys(['q']):
core.quit()
print 'Letters 3-Back task finished...'
return responses
def show(win, to_show = [], mouse_btns = [0,1,2], exit_keys = None, buttons = [], delay = 100000, clickReset = True):
if mouse_btns == None:
mouse_btns = [0,1,2]
use_mouse = False
use_keybd = True # this is always true to capture the ESC key
if len(mouse_btns):
use_mouse = True
mouse = event.Mouse(win=win)
rects = [ button.rect() for r in buttons ]
if len(rects):
mouse.setVisible(True)
rt,b,k,re = -1,None,None,None
event.clearEvents()
if use_keybd:
event.getKeys()
if use_mouse:
mouse_release(mouse)
clock_show=core.Clock()
if use_mouse and clickReset:
mouse.clickReset()
t=0; clock_show.reset()
while True:
rt = t= clock_show.getTime()
if t >= delay:
break
if (0.0 <= t):
for t in to_show:
t.draw()
for b in buttons:
b.draw()
if use_mouse:
rt, bt, re, ts = mouse_pressed(mouse, mouse_btns, rects = rects)
if len(bt) and (len(rects) == 0 or len(re)):
break
if use_keybd:
rt, k = key_pressed(clock_show, exit_keys)
if len(k):
break
win.flip()
if use_mouse and len(rects):
mouse.setVisible(False)
return rt,b,k,re
def draw_fixation(color):
while 'space' not in event.getKeys():
[s.setFillColor(color) for s in fixations]
[s.draw() for s in fixations]
win.flip()
if event.getKeys(["escape"]):
core.quit()
event.clearEvents()
win.flip()
core.wait(0.5)
def waitBeforeTrial(nDone,respDeadline,expStop,stuffToDrawOnRespScreen):
#displayDraw is a function instance to call to draw what want to between trials
if dirOrLocalize:
betweenTrialsText.setText('CLICK in blue area to continue')
clickContinueArea.draw()
else:
betweenTrialsText.setText('Press SPACE to continue')
progressMsg = 'Completed ' + str(nDone) + ' of ' + str(trials.nTotal) + ' trials'
nextRemindCountText.setText(progressMsg)
event.clearEvents() #clear keypresses and mouse clicks
myClock.reset();
if dirOrLocalize:
betweenTrialsText.setText('CLICK in blue area to continue')
waitingForClick = True
while waitingForClick and respClock.getTime() < respDeadline:
m_x, m_y = myMouse.getPos() # in the same units as the Window
mouseLocationMarker.setPos((m_x, m_y)) #Because mouseLocationMarker is in same units as windowAndMouseUnits, and mouse returns windowAndMouseUnits, this has to work
mouse1, mouse2, mouse3 = myMouse.getPressed()
if myMouse.isPressedIn(clickContinueArea):
waitingForClick = False
event.clearEvents()
if waitingForClick and (mouse1 or mouse2 or mouse3):
myWin.flip(); myWin.flip() #flicker everything to tell user registered your click but it's in wrong place
keysPressed = event.getKeys()
if 'escape' in keysPressed:
expStop = True
for x in stuffToDrawOnRespScreen:
x.draw()
betweenTrialsText.setText('CLICK in blue area to continue')
if nDone==0:
beforeFirstTrialText.draw()
clickContinueArea.draw()
mouseLocationMarker.draw()
betweenTrialsText.draw()
nextRemindCountText.draw()
myWin.flip()
if not expStop and not waitingForClick: #person never responded, but timed out. Presumably because of autopilot or hit escape
waitingForPressBetweenTrials = True
betweenTrialsText.setText('While looking at the green dot, press SPACE to continue')
while waitingForPressBetweenTrials and myClock.getTime() < respDeadline:
if nDone==0:
beforeFirstTrialText.draw()
respPromptText.draw()
betweenTrialsText.draw()
for x in stuffToDrawOnRespScreen:
x.draw()
myWin.flip()
for key in event.getKeys(): #check if pressed abort-type key
if key in ['escape']:
expStop = True; waitingForPressBetweenTrials=False
if key in ['space']:
waitingForPressBetweenTrials=False
return expStop
def show_instruction(screen):
"""screen is a list of strings that is displayed on one screen"""
event.getKeys() # clear buffer
r=None
if not debug:
for i,inst in enumerate(screen):
ypos=1-(pad+(i+1)*(2.0-2*pad)/len(screen))
msg=visual.TextStim(win, pos=[0,ypos],text=unicode(inst,"utf-8"), units='norm', height=0.075, #size=(2.0,1.0),
alignHoriz='center', alignVert='center', color=stimcolor ,wrapWidth=1.8)
msg.draw()
win.flip()
r=event.waitKeys()[0]
return r
def waitForExitPress(time = 0):
logging.debug("Waiting for exit key to be pressed")
if time == 0:
while True:
if event.getKeys(["escape"]):
logging.debug("User pressed escape")
exit()
else:
waitTimer = core.CountdownTimer(time)
while (waitTimer.getTime() > 0):
if event.getKeys(["escape"]):
logging.debug("User pressed escape")
exit()
def draw_fixation(color):
"""args: color should be a string
"""
print_message("Color", color)
print("Press 'space' to continue")
while 'space' not in event.getKeys():
[s.setFillColor(COLOR[color]) for s in fixations]
[s.draw() for s in fixations]
win.flip()
if event.getKeys(["escape"]):
core.quit()
event.clearEvents()
win.flip()
core.wait(0.5)
def show_trial(self, trial, feedback=False):
# get model and relation
model, sequence, relation = self.get_model(trial)
# get questions
questions = self.get_questions(model, relation, trial)
self.filldf(trial, model, sequence, relation, questions)
# pre-trial fixation
pre_trial_time = self.get_time('pre_trial')
self.show_element('fix', pre_trial_time)
# show premises
if self.send_triggers:
for el in ['letter', 'relation']:
self.triggers[el] = self.settings['triggers'][el]
premise_times = self.show_premises(model, sequence, relation)
# change triggers for questions
if self.send_triggers:
add = self.settings['triggers']['question_add']
for el in ['letter', 'relation']:
self.triggers[el] = self.settings['triggers'][el] + add
# show questions
for q_num, q in enumerate(questions):
# clear keyboard buffer
event.getKeys()
time_and_resp = self.ask_question(q)
if feedback:
# calculate dataframe row
row = (trial - 1) * 3 + q_num
# get and check response
try:
response = time_and_resp[1][0] # check time_and_resp[1] - sometimes None or nan
except:
response = None
if response is not None:
response = self.df.loc[row, 'iftrue'] == self.\
resp_mapping[response]
else:
response = False
# choose relevant circle and show
circ = 'feedback_' + ['in',''][int(response)] + 'correct'
self.show_element(circ, 25)
core.wait(0.25)
self.window.flip()
self.save_responses(trial, q_num, time_and_resp)
finish_time = self.get_time('after_trial')
self.show_element('btw_pairs', finish_time)
def check_keys(self):
"""Checks key input"""
for keys in event.getKeys(timeStamped=True):
k = keys[0]
if k in ["escape", "q"]:
self.window.close()
sys.exit()
elif k in ["space"]:
for c in range(1, 2):
t = Circle(self.window, radius=c)
self.stims.append(t)
# for c in range (1,2):
# t = RadialStim(self.window)
# self.stims.append(t)
# handle projections
elif k in ["s"]:
self.warper.changeProjection("spherical", None, (0.5, 0.5))
elif k in ["c"]:
self.warper.changeProjection("cylindrical", None, (0.5, 0.5))
elif k in ["n"]:
self.warper.changeProjection(None, None, (0.5, 0.5))
elif k in ["f"]:
self.warper.changeProjection(
"warpfile",
# r'C:\WinPython-64bit-2.7.5.3\python-2.7.5.amd64\Lib\site-packages\aibs\Projector\Calibration\standard_4x3.data',
r"C:\Users\jayb\Documents\Stash\aibs\Projector\Calibration\InteriorProject24inDome6inMirrorCenter.meshwarp.data",
# r'C:\WinPython-64bit-2.7.5.3\python-2.7.5.amd64\Lib\site-packages\aibs\Projector\Calibration\standard_16x9.data',
(0.5, 0.5),
)
# flip horizontal and vertical
elif k in ["h"]:
self.warper.changeProjection(
self.warper.warp, self.warper.warpfile, flipHorizontal=not self.warper.flipHorizontal
)
elif k in ["v"]:
self.warper.changeProjection(
self.warper.warp, self.warper.warpile, flipVertical=not self.warper.flipVertical
)
# move eyepoint
elif k in ["down"]:
if self.warper.dist_cm > 1:
self.warper.dist_cm -= 1
self.warper.changeProjection(self.warper.warp, None, self.warper.eyepoint)
elif k in ["up"]:
if self.warper.dist_cm < 200:
self.warper.dist_cm += 1
self.warper.changeProjection(self.warper.warp, None, self.warper.eyepoint)
elif k in ["right"]:
if self.warper.eyepoint[0] < 0.9:
self.warper.eyepoint = (self.warper.eyepoint[0] + 0.1, self.warper.eyepoint[1])
self.warper.changeProjection(self.warper.warp, None, self.warper.eyepoint)
elif k in ["left"]:
if self.warper.eyepoint[0] > 0.1:
self.warper.eyepoint = (self.warper.eyepoint[0] - 0.1, self.warper.eyepoint[1])
self.warper.changeProjection(self.warper.warp, None, self.warper.eyepoint)
self.updateInfo()
def experiment():
list =[random.randint(0,10) for r in xrange(numTrials)]
#list = [2,3,2,3,2,3,2,3,4,5,6,7,8,9,8]
keyList=[]
demoDisp = visual.TextStim(win, text = '', height = 100) #textstim object that will be displayed
counter = 0 # Counter is unused?
for x in list:
# PREPARE STIMULUS
demoDisp.setText(x)
# PRESENT STIMULUS
for frameN in range(stimFrames):
# Display stimulus
demoDisp.draw()
win.flip()
# Reset timer on onset
if frameN == 0:
RT.reset()
# PRESENT BLANK
for frameN in range(blankFrames):
# Blank screen with no response recording
win.flip()
# RECORD RESPONSES
keyList = event.getKeys(timeStamped=RT)
# keyList[N][Y], N is response number if multiple keys were pressed. Y=0 is key-name. Y=1 is time
if keyList:
print keyList[0][0], 'key was pressed after', str(keyList[0][1]), 'seconds'
else:
print 'no key was pressed'
def waitEvents(self, downOnly=True,
timeout=0, escape='escape', wait=0.002):
'''Wait for and return the first button press event.
Always calls `clearEvents()` first (like PsychoPy keyboard waitKeys).
Use `downOnly=False` to include button-release events.
`escape` is a list/tuple of keyboard events that, if pressed, will
interrupt the bbox wait; `waitKeys` will return `None` in that case.
`timeout` is the max time to wait in seconds before returning `None`.
`timeout` of 0 means no time-out (= default).
'''
self.clearEvents() # e.g., removes UP from previous DOWN
if timeout > 0:
c = core.Clock()
if escape and not type(escape) in [list, tuple]:
escape = [escape]
while True:
if wait:
core.wait(wait, 0) # throttle CPU; event RTs come from bbox
evt = self.getEvents(downOnly=downOnly)
if evt:
evt = evt[0]
break
if escape and event.getKeys(escape) or 0 < timeout < c.getTime():
return
return evt
def wait_get_response(p, clock, oddball, wait_time):
"""Get response info specific to this experiment."""
check_clock = core.Clock()
good_resp = False
corr, response, resp_rt = 0, 0, -1
while not good_resp:
keys = event.getKeys(timeStamped=clock)
for key, stamp in keys:
if key in p.quit_keys:
print "Subject quit execution"
core.quit()
elif key in p.match_keys:
corr = 0 if oddball else 1
response = 1
resp_rt = stamp
good_resp = True
break
elif key in p.nonmatch_keys:
corr = 1 if oddball else 0
response = 2
resp_rt = stamp
good_resp = True
break
event.clearEvents()
# Possibly exit with nothing
if check_clock.getTime() >= wait_time:
return corr, response, resp_rt
# Wait the rest of the time
core.wait(wait_time - resp_rt)
return corr, response, resp_rt
def arrow_exp(win, randid ,hand='r'):
if hand == 'l':
keylist = LH_ARROWS_KEYLIST
else:
keylist = RH_ARROWS_KEYLIST
#Create our stimuli
arrow = visual.ImageStim(win=win, image=arrow_image_path, pos=ST_arrow_pos)
stim_times = []
for i in range(int(SA_repetition_times)):
#Escribimos el circulo
arrow.size*= -1 #(hack ;) )
arrow.draw()
#Enviamos la pantalla con el circulo
win.flip()
#Tomamos el tiempo en el que fue enviado
stim_times.append(core.getTime())
#Lo mostramos por "SA_duration_time" segundos
core.wait(SA_duration_time)
#Mandamos pantalla en blanco
win.flip()
#Mostramos pantalla en blanco por "SA_interval_time" segundos.
core.wait(SA_interval_time)
#Vemos cuando fueron apretadas las teclas
user_times = event.getKeys(keyList=keylist, timeStamped = True)
return stim_times, user_times
def present_fb(self, win, score, objects):
"""Display the feeback for the game. Requires the window, the score,
and a list of the objects already on the screen to be presented with the feedback."""
#determine feedback picture and audio based on score
if score:
fb = self.green_check
sound = self.ding
else:
fb = self.red_x
sound = self.honk
#check if objects is a list
if type(objects)!=list:
print 'objects passed to feedback must be a list; instead got {}'.format(type(objects))
core.quit()
#display objects and feedback
for object in objects:
object.draw()
fb.draw()
win.flip()
sound.play()
#wait 2 seconds
start_time=self.trialClock.getTime()
timer=0
while timer<1:
timer= self.trialClock.getTime() - start_time
these_keys=event.getKeys(keyList=['escape'])
if 'escape' in these_keys: core.quit()
def get_key(self, keylist=None, timeout=None): """See openexp._keyboard.legacy""" if keylist == None: keylist = self._keylist if timeout == None: timeout = self.timeout if keylist == None: _keylist = None else: _keylist = keylist + ["escape"] start_time = 1000.0 * self.experiment.clock.getTime() time = start_time while timeout == None or time-start_time <= timeout: time = 1000.0 * self.experiment.clock.getTime() keys = event.getKeys(_keylist, timeStamped=self.experiment.clock) for key, time in keys: time *= 1000.0 if key == "escape": raise openexp.exceptions.response_error( \ "The escape key was pressed.") elif keylist == None or key in keylist: return key, time return 'timeout', time
def get_keyboard(myClock,win, respkeylist):
keyResp = None
thisRT = np.nan
from string import letters, punctuation, digits
# allow number pad keys if there's numbers
for k in respkeylist:
if k in digits:
num_k = ['num_' + k]
respkeylist += num_k
keylist = ['escape'] + respkeylist
for key, RT in event.getKeys(keyList=keylist, timeStamped=myClock):
if key in ['escape']:
quitEXP(True)
else:
if key in ['num_1', 'num_2', 'num_3', 'num_4', 'num_5', 'num_6', 'num_7', 'num_8', 'num_9', 'num_0']: # allow number pad keys
key = key.translate(None, letters) # no letters
key = key.translate(None, punctuation) #no underscore
else:
pass
keyResp = key
thisRT = RT
return keyResp, thisRT
def tapping_exp(win, randid ,hand='r'):
if hand == 'l':
keylist = LH_TAPPING_KEYLIST
else:
keylist = RH_TAPPING_KEYLIST
#create some stimuli
circle = visual.ImageStim(win=win, image=circle_image_path, pos=SA_circle_pos)
#draw the stimuli and update the window
stim_times = []
for i in range(int(ST_repetition_times)):
#Escribimos el circulo
circle.draw()
#Enviamos la pantalla con el circulo
win.flip()
#Tomamos el tiempo en el que fue enviado
stim_times.append(core.getTime())
#Lo mostramos por "ST_duration_time" segundos
core.wait(ST_duration_time)
#Mandamos pantalla en blanco
win.flip()
#Mostramos pantalla en blanco por "ST_interval_time" segundos.
core.wait(ST_interval_time)
#Vemos cuando fueron apretadas las teclas
user_times = event.getKeys(keyList=keylist, timeStamped = True)
return stim_times, user_times
def ringScan(scanDict, screenSize=[1024, 768], direction=1.0):
#do ring
scanLength = float(scanDict['numCycles'] * scanDict['period'] +
scanDict['preScanRest'])
if scanDict['operatorScreen'] == scanDict['subjectScreen']:
screenCount = 1
else:
screenCount = 2
thisPlatform = scanDict['platform']
#if there is only one window, need to display the winOp stuff and then clear it
screenSize = scanDict['screenSize']
if screenCount == 1:
#pop up the Tr info and wait for "ok"
winOp = visual.Window([500, 500],
monitor='testMonitor',
units='norm',
screen=scanDict['operatorScreen'],
color=[0.0, 0.0, 0.0],
colorSpace='rgb')
msgScanLength = visual.TextStim(winOp,
pos=[0, 0.5],
units='norm',
height=0.1,
text='Scan length (s): %.1f' %
scanLength)
msgScanTr = visual.TextStim(
winOp,
pos=[0, 0],
units='norm',
height=0.1,
text='No. of Volumes (at Tr=%.2f): %.1f' %
(scanDict['Tr'], scanLength / scanDict['Tr']))
msgOK = visual.TextStim(winOp,
pos=[0, -0.5],
units='norm',
height=0.1,
text='Operator, press any key to proceed')
msgScanLength.draw()
msgScanTr.draw()
msgOK.draw()
winOp.flip()
#wait for keypress
thisKey = None
while thisKey == None:
thisKey = event.waitKeys()
if thisKey in ['q', 'escape']:
core.quit() #abort
else:
event.clearEvents()
#close the winOp
winOp.close()
else:
winOp = visual.Window([500, 500],
monitor='testMonitor',
units='norm',
screen=scanDict['operatorScreen'],
color=[0.0, 0.0, 0.0],
colorSpace='rgb')
msgScanLength = visual.TextStim(winOp,
pos=[0, 0.5],
units='norm',
height=0.1,
text='Scan length (s): %.1f' %
scanLength)
msgScanTr = visual.TextStim(
winOp,
pos=[0, 0],
units='norm',
height=0.1,
text='No. of Volumes (at Tr=%.2f): %.1f' %
(scanDict['Tr'], scanLength / scanDict['Tr']))
msgScanLength.draw()
msgScanTr.draw()
winOp.flip()
#open subject window
winSub = visual.Window(screenSize,
monitor=scanDict['monCalFile'],
units='deg',
screen=scanDict['subjectScreen'],
color=[0.0, 0.0, 0.0],
colorSpace='rgb',
fullscr=False,
allowGUI=False)
#parse out vars from scanDict
IR = scanDict['innerRadius']
OR = scanDict['outerRadius']
#get actual size of window--useful in the functions
subWinSize = winSub.size
screenSize = numpy.array([subWinSize[0], subWinSize[1]])
fixPercentage = scanDict['fixFraction']
dutyCycle = scanDict['dutyCycle']
fixDuration = 0.2
respDuration = 1.0
dummyLength = int(numpy.ceil(scanLength * 60 / 100))
subjectResponse = numpy.zeros((dummyLength, 1))
subjectResponse[:] = numpy.nan
white = [1.0, 1.0, 1.0]
gray = [0.0, 0.0, 0.0]
black = [-1.0, -1.0, -1.0]
gridgray = [0.25, 0.25, 0.25]
numRadialCycles = 0.75 / 1.2
numAngularCycles = 4.0
wedgeEdges = numpy.linspace(0.0, 360.0, 9)
ringOri = 0.0
#figure out the ring sizes
#start with a fixed width ring, given by the duty cycle.
#this is a percentage of the total size
maxWidth = (OR - IR) * dutyCycle / 100.0
width = maxWidth
#print "maxWidth" ,maxWidth
#assign starting IR and OR for the actual ring
ringIR = IR
ringOR = ringIR + maxWidth
#set the amplitude of the ring for the sawtooth function
ringAmp = OR - IR - maxWidth
#print 'ringAmp', ringAmp
#print 'OR', OR
#print 'IR', IR
quitKeys = ['q', 'escape']
radialUnits = 2.0
debugVar = numpy.zeros((int(scanLength * 60), 9))
ringRate = (OR - (IR + width)) / scanDict['period']
contrast = scanDict['contrast']
# ringRadPhi=numpy.zeros((8,1))
# ringRadPhiInit=numpy.zeros((8,1))
ringRadPhiInit = numpy.random.rand(8)
ringRadPhi = ringRadPhiInit
# for iP in range(8):
# ringRadPhiInit[iP]=numpy.random.random()*2.0*math.pi
startOR = OR - scanDict['preScanRest'] * ringRate
#needs to be direction based?
ring1 = visual.RadialStim(winSub,
pos=[0, 0],
tex='sqrXsqr',
radialCycles=numRadialCycles * OR * radialUnits,
angularCycles=numAngularCycles,
angularPhase=0,
size=startOR * radialUnits,
color=1,
visibleWedge=(wedgeEdges[0], wedgeEdges[8]),
radialPhase=ringRadPhiInit[0],
contrast=contrast,
interpolate=False,
autoLog=False)
ring2 = visual.RadialStim(winSub,
pos=[0, 0],
tex='sqrXsqr',
radialCycles=numRadialCycles * OR * radialUnits,
angularCycles=numAngularCycles,
angularPhase=0,
size=startOR * radialUnits,
color=1,
visibleWedge=(wedgeEdges[1], wedgeEdges[8]),
radialPhase=ringRadPhiInit[1],
contrast=contrast,
interpolate=False,
autoLog=False)
ring3 = visual.RadialStim(winSub,
pos=[0, 0],
tex='sqrXsqr',
radialCycles=numRadialCycles * OR * radialUnits,
angularCycles=numAngularCycles,
angularPhase=0,
size=startOR * radialUnits,
color=1,
visibleWedge=(wedgeEdges[2], wedgeEdges[8]),
radialPhase=ringRadPhiInit[2],
contrast=contrast,
interpolate=False,
autoLog=False)
ring4 = visual.RadialStim(winSub,
pos=[0, 0],
tex='sqrXsqr',
radialCycles=numRadialCycles * OR * radialUnits,
angularCycles=numAngularCycles,
angularPhase=0,
size=startOR * radialUnits,
color=1,
visibleWedge=(wedgeEdges[3], wedgeEdges[8]),
radialPhase=ringRadPhiInit[3],
contrast=contrast,
interpolate=False,
autoLog=False)
ring5 = visual.RadialStim(winSub,
pos=[0, 0],
tex='sqrXsqr',
radialCycles=numRadialCycles * OR * radialUnits,
angularCycles=numAngularCycles,
angularPhase=0,
size=startOR * radialUnits,
color=1,
visibleWedge=(wedgeEdges[4], wedgeEdges[8]),
radialPhase=ringRadPhiInit[4],
contrast=contrast,
interpolate=False,
autoLog=False)
ring6 = visual.RadialStim(winSub,
pos=[0, 0],
tex='sqrXsqr',
radialCycles=numRadialCycles * OR * radialUnits,
angularCycles=numAngularCycles,
angularPhase=0,
size=startOR * radialUnits,
color=1,
visibleWedge=(wedgeEdges[5], wedgeEdges[8]),
radialPhase=ringRadPhiInit[5],
contrast=contrast,
interpolate=False,
autoLog=False)
ring7 = visual.RadialStim(winSub,
pos=[0, 0],
tex='sqrXsqr',
radialCycles=numRadialCycles * OR * radialUnits,
angularCycles=numAngularCycles,
angularPhase=0,
size=startOR * radialUnits,
color=1,
visibleWedge=(wedgeEdges[6], wedgeEdges[8]),
radialPhase=ringRadPhiInit[6],
contrast=contrast,
interpolate=False,
autoLog=False)
ring8 = visual.RadialStim(winSub,
pos=[0, 0],
tex='sqrXsqr',
radialCycles=numRadialCycles * OR * radialUnits,
angularCycles=numAngularCycles,
angularPhase=0,
size=startOR * radialUnits,
color=1,
visibleWedge=(wedgeEdges[7], wedgeEdges[8]),
radialPhase=ringRadPhiInit[7],
contrast=contrast,
interpolate=False,
autoLog=False)
#create a gray circle to mask the inside of the radialStim
ringMask = visual.Circle(winSub,
radius=startOR - width,
edges=32,
lineColor=gray,
lineColorSpace='rgb',
fillColor=gray,
fillColorSpace='rgb',
autoLog=False,
units='deg',
opacity=1.0)
#try a new mask
mask = numpy.zeros((int(OR * 100), 1))
ringRadPhiDelta = ringRadPhiInit
#driftFreq = 0.2 #Hz after L&H
driftFreq = scanDict['animFreq']
driftReverseFreq = 1.0 #Hz
fix0 = visual.Circle(winSub,
radius=IR / 2.0,
edges=32,
lineColor=gray,
lineColorSpace='rgb',
fillColor=gray,
fillColorSpace='rgb',
autoLog=False,
units='deg')
fix1 = visual.ShapeStim(winSub,
pos=[0.0, 0.0],
vertices=((0.0, -0.15), (0.0, 0.15)),
lineWidth=3.0,
lineColor=black,
lineColorSpace='rgb',
fillColor=black,
fillColorSpace='rgb',
autoLog=False,
units='deg')
fix2 = visual.ShapeStim(winSub,
pos=[0.0, 0.0],
vertices=((-0.15, 0), (0.15, 0.0)),
lineWidth=3.0,
lineColor=black,
lineColorSpace='rgb',
autoLog=False,
units='deg')
#add to the fixation with a faint background polar grid
gridRadii = numpy.zeros((8, 1))
gridRadii[0] = IR
gridRadii[1] = 2 * IR
gridRadii[2] = 4 * IR
gridRadii[3] = 6 * IR
gridRadii[4] = 8 * IR
gridRadii[5] = 16 * IR
gridRadii[6] = 32 * IR
gridRadii[7] = OR
gridCircle = visual.Circle(winSub,
radius=gridRadii[0],
edges=128,
lineColor=gridgray,
lineColorSpace='rgb',
autoLog=False)
gridEnds = numpy.zeros((8, 2))
gridEnds[0, 0] = 0
gridEnds[0, 1] = OR
gridEnds[1, 0] = OR
gridEnds[1, 1] = OR
gridEnds[2, 0] = OR
gridEnds[2, 1] = 0
gridEnds[3, 0] = OR
gridEnds[3, 1] = -OR
gridEnds[4, 0] = 0
gridEnds[4, 1] = -OR
gridEnds[5, 0] = -OR
gridEnds[5, 1] = -OR
gridEnds[6, 0] = -OR
gridEnds[6, 1] = 0
gridEnds[7, 0] = -OR
gridEnds[7, 1] = OR
gridSpoke = visual.Line(winSub,
start=(0, 0),
end=(0, OR),
lineColor=gridgray,
lineColorSpace='rgb',
autoLog=False)
if direction == 1:
scanNameText = 'contracting ring, %2.1f%% duty cycle' % dutyCycle
else:
scanNameText = 'expanding ring, %2.1f%% duty cycle' % dutyCycle
#wait for subject
msg1 = visual.TextStim(winSub,
pos=[0, +2],
text='%s \n\nSubject: press a button when ready.' %
scanNameText)
msg1.draw()
winSub.flip()
thisKey = None
responseKeys = list(scanDict['subjectResponse'])
responseKeys.extend('q')
responseKeys.extend('escape')
while thisKey == None:
thisKey = event.waitKeys(keyList=responseKeys)
if thisKey in quitKeys:
core.quit()
else:
event.clearEvents()
responseKeys = list(scanDict['subjectResponse'])
#wait for trigger
msg1.setText('Noise Coming....')
msg1.draw()
winSub.flip()
trig = None
triggerKeys = list(scanDict['trigger'])
triggerKeys.extend('q')
triggerKeys.extend('escape')
while trig == None:
trig = event.waitKeys(keyList=triggerKeys)
if trig in quitKeys:
core.quit()
else:
event.clearEvents()
#start the timer
scanTimer = core.Clock()
startTime = scanTimer.getTime()
#draw the stimulus
# ring1.draw()
# ring2.draw()
# ring3.draw()
# ring4.draw()
# ring5.draw()
# ring6.draw()
# ring7.draw()
# ring8.draw()
# ringMask.draw()
if thisPlatform < 3:
gridCircle.draw()
gridCircle.setRadius(gridRadii[0])
gridCircle.draw()
gridCircle.setRadius(gridRadii[1])
gridCircle.draw()
gridCircle.setRadius(gridRadii[2])
gridCircle.draw()
gridCircle.setRadius(gridRadii[3])
gridCircle.draw()
gridCircle.setRadius(gridRadii[4])
gridCircle.draw()
gridCircle.setRadius(gridRadii[5])
gridCircle.draw()
gridCircle.setRadius(gridRadii[6])
gridCircle.draw()
gridCircle.setRadius(gridRadii[7])
gridCircle.draw()
gridSpoke.setEnd(gridEnds[0, ])
gridSpoke.draw()
gridSpoke.setEnd(gridEnds[1, ])
gridSpoke.draw()
gridSpoke.setEnd(gridEnds[2, ])
gridSpoke.draw()
gridSpoke.setEnd(gridEnds[3, ])
gridSpoke.draw()
gridSpoke.setEnd(gridEnds[4, ])
gridSpoke.draw()
gridSpoke.setEnd(gridEnds[5, ])
gridSpoke.draw()
gridSpoke.setEnd(gridEnds[6, ])
gridSpoke.draw()
gridSpoke.setEnd(gridEnds[7, ])
gridSpoke.draw()
fix0.draw()
fix1.draw()
fix2.draw()
winSub.flip()
#draw the time
timeNow = scanTimer.getTime()
# timeMsg=visual.TextStim(winSub,pos=[-screenSize[0]/2+100,-screenSize[1]/2+15],units='pix',text= 't = %.3f' %timeNow)
if screenCount == 2:
timeMsg = visual.TextStim(winOp,
pos=[0, -0.5],
text='t = %.3f' % timeNow)
timeMsg.draw()
loopCounter = 0
fixTimer = core.Clock()
respTimer = core.Clock()
fixOri = 0
numCoins = 0
phaseSign = 1.0
phaseTimer = core.Clock()
event.clearEvents()
#drift it
while timeNow < startTime + scanLength:
timeBefore = timeNow #seems to be OK--testing shows it doesn't alias
timeNow = scanTimer.getTime()
deltaT = timeNow - startTime
modDeltaT = (deltaT + scanDict['preScanRest']) % scanDict['period']
deltaTinc = timeNow - timeBefore
thisWidth = width * math.log(ringOR)
thisWidth = width
#fix time to account for preScanRest. Add on the fractional period requested
deltaTshift = deltaT + (scanDict['period'] - scanDict['preScanRest'])
#new way to calculate the OR, based on the formula for a sawtooth
#calculate the new OR for this timestep
#from wikipedia
#yWikiTrig=(-2*amplitude/pi)*atan(cot(pi*t/period));
#yT2=0.5*(yWikiTrig+amplitude);
if direction < 0:
#expanding
ringIR = IR + 0.5 * (
ringAmp +
(-2.0 * ringAmp / math.pi) * numpy.arctan(1.0 / numpy.tan(
math.pi * deltaTshift / scanDict['period'])))
else:
#contracting
ringIR = IR + 0.5 * (
ringAmp -
(-2.0 * ringAmp / math.pi) * numpy.arctan(1.0 / numpy.tan(
math.pi * deltaTshift / scanDict['period'])))
ringOR = ringIR + thisWidth
# debugVar[loopCounter,0]=deltaT
# debugVar[loopCounter,1]=ringIR
# debugVar[loopCounter,2]=ringOR
#set the ORs
ring1.setSize(ringOR * radialUnits)
ring1.setRadialCycles(ringOR * radialUnits * numRadialCycles)
ring2.setSize(ringOR * radialUnits)
ring2.setRadialCycles(ringOR * radialUnits * numRadialCycles)
ring3.setSize(ringOR * radialUnits)
ring3.setRadialCycles(ringOR * radialUnits * numRadialCycles)
ring4.setSize(ringOR * radialUnits)
ring4.setRadialCycles(ringOR * radialUnits * numRadialCycles)
ring5.setSize(ringOR * radialUnits)
ring5.setRadialCycles(ringOR * radialUnits * numRadialCycles)
ring6.setSize(ringOR * radialUnits)
ring6.setRadialCycles(ringOR * radialUnits * numRadialCycles)
ring7.setSize(ringOR * radialUnits)
ring7.setRadialCycles(ringOR * radialUnits * numRadialCycles)
ring8.setSize(ringOR * radialUnits)
ring8.setRadialCycles(ringOR * radialUnits * numRadialCycles)
ringMask.setRadius(ringIR)
#experimental mask
# mask[0:ringIR*100]=0.5
# mask[ringIR*100:ringOR*100]=1
# mask[ringOR*100:]=0
# ring1.setMask(mask)
# ring2.setMask(mask)
# ring3.setMask(mask)
# ring4.setMask(mask)
# ring5.setMask(mask)
# ring6.setMask(mask)
# ring7.setMask(mask)
# ring8.setMask(mask)
#new phase
#ringRadPhi = driftFreq*deltaT
# ringRadPhi = ringRadPhi + 2.0*math.pi*driftFreq*(timeNow-timeBefore)
#new direction of phase drift--set randomly but not too often
# phaseTimeCheck = phaseTimer.getTime()
## debugVar[loopCounter,3]=phaseTimeCheck
# phaseCoin=numpy.random.ranf()
# if phaseCoin<1.0 and phaseTimeCheck>3.0:
# phaseTimer.reset()
# phaseSign *= -1.0
#set the phase
# ring1.setRadialPhase(ringRadPhi*phaseSign)
# ring2.setRadialPhase(-1.0*ringRadPhi*phaseSign)
# ring3.setRadialPhase(ringRadPhi*phaseSign)
# ring4.setRadialPhase(-1.0*ringRadPhi*phaseSign)
# ring5.setRadialPhase(ringRadPhi*phaseSign)
# ring6.setRadialPhase(-1.0*ringRadPhi*phaseSign)
# ring7.setRadialPhase(ringRadPhi*phaseSign)
# ring8.setRadialPhase(-1.0*ringRadPhi*phaseSign)
setSign = math.floor(driftReverseFreq * deltaT / 3.0)
if setSign % 2 == 0:
phaseSign = 1.0
else:
phaseSign = -1.0
ringRadPhiDelta = driftFreq * deltaTinc
ringRadPhi[0] += ringRadPhiDelta * phaseSign
ringRadPhi[1] += ringRadPhiDelta * phaseSign * -1
ringRadPhi[2] += ringRadPhiDelta * phaseSign
ringRadPhi[3] += ringRadPhiDelta * phaseSign * -1
ringRadPhi[4] += ringRadPhiDelta * phaseSign
ringRadPhi[5] += ringRadPhiDelta * phaseSign * -1
ringRadPhi[6] += ringRadPhiDelta * phaseSign
ringRadPhi[7] += ringRadPhiDelta * phaseSign * -1
ring1.setRadialPhase(ringRadPhiInit[0])
ring2.setRadialPhase(ringRadPhi[1])
ring3.setRadialPhase(ringRadPhi[2])
ring4.setRadialPhase(ringRadPhi[3])
ring5.setRadialPhase(ringRadPhi[4])
ring6.setRadialPhase(ringRadPhi[5])
ring7.setRadialPhase(ringRadPhi[6])
ring8.setRadialPhase(ringRadPhi[7])
#every 100 frames, decide if fixation should change or not
if loopCounter % 100 == 0 and loopCounter > 10:
#flip a coin to decide
flipCoin = numpy.random.ranf()
if flipCoin < fixPercentage:
#reset timers/change ori
fixOri = 45
fixTimer.reset()
respTimer.reset()
numCoins += 1
subjectResponse[numCoins] = 0
fixTimeCheck = fixTimer.getTime()
respTimeCheck = respTimer.getTime()
if fixTimeCheck > fixDuration: #timer expired--reset ori
fixOri = 0
fix1.setOri(fixOri)
fix2.setOri(fixOri)
ring1.draw()
ring2.draw()
ring3.draw()
ring4.draw()
ring5.draw()
ring6.draw()
ring7.draw()
ring8.draw()
ringMask.draw()
#draw grid only if NOT linux, where it looks bad....
if thisPlatform < 3:
gridCircle.setRadius(gridRadii[0])
gridCircle.draw()
gridCircle.setRadius(gridRadii[1])
gridCircle.draw()
gridCircle.setRadius(gridRadii[2])
gridCircle.draw()
gridCircle.setRadius(gridRadii[3])
gridCircle.draw()
gridCircle.setRadius(gridRadii[4])
gridCircle.draw()
gridCircle.setRadius(gridRadii[5])
gridCircle.draw()
gridCircle.setRadius(gridRadii[6])
gridCircle.draw()
gridCircle.setRadius(gridRadii[7])
gridCircle.draw()
gridSpoke.draw()
gridSpoke.setEnd(gridEnds[0, ])
gridSpoke.draw()
gridSpoke.setEnd(gridEnds[1, ])
gridSpoke.draw()
gridSpoke.setEnd(gridEnds[2, ])
gridSpoke.draw()
gridSpoke.setEnd(gridEnds[3, ])
gridSpoke.draw()
gridSpoke.setEnd(gridEnds[4, ])
gridSpoke.draw()
gridSpoke.setEnd(gridEnds[5, ])
gridSpoke.draw()
gridSpoke.setEnd(gridEnds[6, ])
gridSpoke.draw()
gridSpoke.setEnd(gridEnds[7, ])
gridSpoke.draw()
fix0.draw()
fix1.draw()
fix2.draw()
winSub.flip()
if screenCount == 2:
timeMsg.setText('t = %.3f' % timeNow)
timeMsg.draw()
msgScanLength.draw()
msgScanTr.draw()
winOp.flip()
#look for responses
for key in event.getKeys():
if key in quitKeys:
core.quit()
elif key in responseKeys and respTimeCheck < respDuration:
subjectResponse[numCoins] = 1
loopCounter += 1
#summarize responses
findResp = subjectResponse[~numpy.isnan(subjectResponse)]
calcResp = findResp[findResp == 1]
numCorrect = float(calcResp.shape[0])
if numCoins > 0:
percentCorrect = 100.0 * float(numCorrect) / (float(numCoins))
else:
percentCorrect = 100.0
msgText = 'You got %.0f %% correct!' % (percentCorrect, )
msgPC = visual.TextStim(winSub, pos=[0, +3], text=msgText)
msgPC.draw()
winSub.flip()
#numpy.savetxt('debug.txt',debugVar,fmt='%.3f')
#create an output file in a subdirectory
#check for the subdirectory
if os.path.isdir('subjectResponseFiles') == False:
#create directory
os.makedirs('subjectResponseFiles')
nowTime = datetime.datetime.now()
outFile = 'ringResponse%04d%02d%02d_%02d%02d.txt' % (
nowTime.year, nowTime.month, nowTime.day, nowTime.hour, nowTime.minute)
outFilePath = os.path.join('subjectResponseFiles', outFile)
numpy.savetxt(outFilePath, findResp, fmt='%.0f')
core.wait(2)
if screenCount == 2:
winOp.close()
winSub.close()
# Draw bubbles of increasing radius at random positions
for radius in range(n_bubbles):
bubble.setRadius(radius / 2.)
bubble.setPos(((rnd.random() - .5) * scrsize[0],
(rnd.random() - .5) * scrsize[1]))
bubble.draw()
# Show the new screen we've drawn
win.flip()
# For the duration of 'changetime',
# Listen for a spacebar or escape press
change_clock.reset()
while change_clock.getTime() <= changetime:
keys = event.getKeys(keyList=['space', 'escape'])
if len(keys) > 0:
break
# Analyze the keypress
if keys:
if 'escape' in keys:
# Escape press = quit the experiment
break
else:
# Spacebar press = correct change detection; register response time
acc = 1
rt = rt_clock.getTime()
else:
# No press = failed change detection; maximal response time
win = visual.Window([1280,1024], fullscr=True, allowGUI=False, waitBlanking=True)
progBar = visual.PatchStim(win, tex=None, mask=None,
size=[0,0.05],color='red',pos=[0,-0.9],
autoLog=False)
myStim = visual.PatchStim(win, tex='sin', mask='gauss',
size=300,sf=0.05, units='pix',
autoLog=False)
#logging.console.setLevel(logging.INFO)#uncomment if you want to print every frame time
win.setRecordFrameIntervals()
for frameN in range(nIntervals+1):
progBar.setSize([2.0*frameN/nIntervals, 0.05])
progBar.draw()
myStim.setPhase(0.1,'+')
myStim.draw()
if event.getKeys():
print 'stopped early'
break
win.logOnFlip(msg='frame=%i' %frameN, level=logging.EXP)
win.flip()
win.close()
#calculate some values
intervalsMS = pylab.array(win.frameIntervals[1:])*1000
m=pylab.mean(intervalsMS)
sd=pylab.std(intervalsMS)
# se=sd/pylab.sqrt(len(intervalsMS)) # for CI of the mean
distString= "Mean=%.1fms, s.d.=%.1f, 99%%CI(frame)=%.2f-%.2f" %(m,sd,m-2.58*sd,m+2.58*sd)
nTotal=len(intervalsMS)
nDropped=sum(intervalsMS>(1.5*m))
droppedString = "Dropped/Frames = %i/%i = %.3f%%" %(nDropped,nTotal, 100*nDropped/float(nTotal))
def runLotsOfDots(self, win, fieldShape, starting=100, baseline=None):
"""DotStim stress test: draw increasingly many dots until drop lots of frames
report best dots as the highest dot count at which drop no frames at all
fieldShape = circle or square
starting = initial dot count; increases until failure
baseline = known frames per second; None means measure it here
"""
win.recordFrameIntervals = True
secs = 1 # how long to draw them for, at least 1s
# baseline frames per second:
if not baseline:
for i in xrange(5):
win.flip() # wake things up
win.fps() # reset
for i in xrange(60):
win.flip()
baseline = round(win.fps())
maxFrame = round(baseline * secs)
dotsInfo = []
win.flip()
bestDots = starting # this might over-estimate the actual best
dotCount = starting
count = visual.TextStim(win, text=str(dotCount), autoLog=False)
count.draw()
win.flip()
dots = visual.DotStim(win,
color=(1.0, 1.0, 1.0),
fieldShape=fieldShape,
nDots=dotCount,
autoLog=False)
win.fps() # reset
frameCount = 0
while True:
dots.draw()
win.flip()
frameCount += 1
if frameCount > maxFrame:
fps = win.fps() # get frames per sec
if len(event.getKeys(['escape'])):
sys.exit()
if fps < baseline * 0.6:
# only break when start dropping a LOT of frames (80% or more)
dotsInfo.append(
('dots_' + fieldShape, str(bestDots), '', False))
break
frames_dropped = round(baseline - fps) # can be negative
if frames_dropped < 1: # can be negative
# only set best if no dropped frames:
bestDots = dotCount
# but do allow to continue in case do better with more dots:
dotCount += 100
if dotCount > 1200:
dotCount += 100
if dotCount > 2400:
dotCount += 100
# show the dot count:
count.setText(str(dotCount), log=False)
count.draw()
win.flip()
dots = visual.DotStim(win,
color=(1.0, 1.0, 1.0),
fieldShape=fieldShape,
nDots=dotCount,
autoLog=False)
frameCount = 0
win.fps() # reset
win.recordFrameIntervals = False
win.flip()
return tuple(dotsInfo)
main_label.size = 10
main_label.setText("+")
main_label.draw()
globalClock = core.Clock()
win.flip()
## Launch MRI (operator selects Scan or Test [emulate]; see API docuwmentation)
vol = launchScan(win,
MR_settings,
globalClock=globalClock,
simResponses=None,
mode=None,
esc_key='escape',
instr=file_contents)
# wait for first MRI sync event
while not event.getKeys(MR_settings['sync']):
time.sleep(0.001)
onset = globalClock.getTime()
vol += 1
log_msg(u"%3d %7.3f sync\n" % (vol, onset))
## Main loop
while globalClock.getTime() < duration:
# retrieve and log key presses
all_keys = event.getKeys()
ts = globalClock.getTime()
for key in all_keys:
if key == MR_settings['sync']:
log_csv(ts, 'sync')
log_msg(u"%3d %7.3f sync\n" % (vol, ts))
def do_run(run_number, trials):
# 1. add ready screen and wait for trigger
ready_screen.draw()
win.flip()
event.waitKeys(keyList='space')
# reset globalClock
globalClock.reset()
# send START log event
logging.log(level=logging.DATA,
msg='******* START (trigger from scanner) - Run %i *******' %
run_number)
################
# SHOW INSTRUCTIONS
################
#for frame in range(instruct_dur):
instruction_image.draw()
instruction_text.draw()
win.flip()
event.waitKeys(keyList=('space'))
#######################
# MAIN LOOP for trials
# loop over stimuli
for tidx, trial in enumerate(trials):
value = trial['value']
prime_label = 'Daily Activity' if value == 'control' else value.title()
situation = trial['message']
valueStim.setText(prime_label)
# test for REST trial
if trial['value'] == 'REST':
for frame in range(rest_dur):
fixation.draw()
win.flip()
# fixation
for frame in range(fixation_dur):
fixation.draw()
win.flip()
continue
# 1. show prime
primeStim.setText(prime_label)
if tidx % 2 == 0:
primeStim.draw()
win.flip()
event.waitKeys(keyList=('space'))
else:
for frame in range(prime_dur):
primeStim.draw()
win.flip()
# 2. show situation
situationStim.setText(situation)
if tidx % 2 == 0:
situationStim.draw()
thinkStim.draw()
win.flip()
event.waitKeys(keyList=('space'))
else:
for frame in range(situation_dur):
situationStim.draw()
thinkStim.draw()
win.flip()
event.clearEvents()
# 3. show rating and get response
timer = core.Clock()
timer.reset()
space_pressed = False
while (tidx % 2 != 0 and timer.getTime() < rating_dur / frame_rate
) or (tidx % 2 == 0 and space_pressed == False):
#for frame in range(rating_dur):
situationStim.draw()
valueStim.draw()
anchor1.draw()
anchor4.draw()
# draw rating
for resp in ratingStim:
resp.draw()
win.flip()
# get key response
resp = event.getKeys(keyList=buttons)
if len(resp) > 0:
if resp[0] == 'space':
space_pressed = True
continue
resp_value = button_labels[resp[0]]
ratingStim[resp_value].setColor('red')
trials.addData('resp', resp_value + 1)
# reset rating number color
for rate in ratingStim:
rate.setColor('white')
# 4. fixation
for frame in range(fixation_dur):
fixation.draw()
win.flip()
ready_screen.draw()
win.flip()
event.waitKeys(keyList=['space'])
# write logs
# send END log event
logging.log(level=logging.DATA,
msg='******* END run %i *******' % run_number)
# save the trial infomation from trial handler
log_filename2 = "%s_%i.csv" % (log_filename[:-4], run_number)
trials.saveAsText(log_filename2, delim=',', dataOut=('n', 'all_raw'))
if t >= 0.0 and instr1.status == NOT_STARTED:
# keep track of start time/frame for later
instr1.tStart = t
instr1.frameNStart = frameN # exact frame index
instr1.setAutoDraw(True)
# *ready1* updates
if t >= 0.0 and ready1.status == NOT_STARTED:
# keep track of start time/frame for later
ready1.tStart = t
ready1.frameNStart = frameN # exact frame index
ready1.status = STARTED
# keyboard checking is just starting
event.clearEvents(eventType='keyboard')
if ready1.status == STARTED:
theseKeys = event.getKeys()
# check for quit:
if "escape" in theseKeys:
endExpNow = True
if len(theseKeys) > 0: # at least one key was pressed
# a response ends the routine
continueRoutine = False
# check if all components have finished
if not continueRoutine: # a component has requested a forced-end of Routine
break
continueRoutine = False # will revert to True if at least one component still running
for thisComponent in instructPracticeComponents:
if hasattr(thisComponent,
"status") and thisComponent.status != FINISHED:
def collectStringResponse(numCharsWanted,respPromptStim,respStim,acceptTextStim,myWin,clickSound,badKeySound,requireAcceptance,autopilot,responseDebug=False):
'''respPromptStim should be a stimulus with a draw() method
'''
event.clearEvents() #clear the keyboard buffer
drawBlanks = True
expStop = False
passThisTrial = False
responses=[]
numResponses = 0
accepted = True
if requireAcceptance: #require user to hit ENTER to finalize response
accepted = False
while not expStop and (numResponses < numCharsWanted or not accepted):
# (numResponses < numCharsWanted and not expStop) or not accepted:
#while (numResponses < numCharsWanted and not expStop) or not accepted:
print 'numResponses=', numResponses #debugOFF
print 'expStop=',expStop
print 'accepted=',accepted
noResponseYet = True
thisResponse=''
while noResponseYet: #loop until a valid key is hit
respPromptStim.draw()
drawResponses(responses,respStim,numCharsWanted,drawBlanks)
myWin.flip()
click = False
keysPressed = event.getKeys(); #print 'keysPressed = ', keysPressed
if autopilot:
noResponseYet = False
if 'ESCAPE' in keysPressed:
expStop = True
elif len(keysPressed) > 0:
key = keysPressed[-1] #process only the last key, it being the most recent. In theory person could type more than one key between window flips,
#but that might be hard to handle.
key = key.upper()
thisResponse = key
if key in ['ESCAPE']:
expStop = True
noResponseYet = False
# if key in ['SPACE']: #observer opting out because think they moved their eyes
# passThisTrial = True
# noResponseYet = False
elif key in string.ascii_letters:
noResponseYet = False
responses.append(thisResponse)
numResponses += 1 #not just using len(responses) because want to work even when autopilot, where thisResponse is null
click = True
elif key in ['BACKSPACE','DELETE']:
if len(responses) >0:
responses.pop()
numResponses -= 1
else: #invalid key pressed
badKeySound.play()
if click and (click is not None):
clickSound.play()
drawResponses(responses,respStim,numCharsWanted,drawBlanks)
myWin.flip() #draw again, otherwise won't draw the last key
if (numResponses == numCharsWanted) and requireAcceptance: #ask participant to HIT ENTER TO ACCEPT
waitingForAccept = True
while waitingForAccept and not expStop:
acceptTextStim.draw()
respStim.draw()
for key in event.getKeys():
key = key.upper()
if key in ['ESCAPE']:
expStop = True
#noResponseYet = False
elif key in ['ENTER','RETURN']:
waitingForAccept = False
accepted = True
elif key in ['BACKSPACE','DELETE']:
waitingForAccept = False
numResponses -= 1
responses.pop()
drawResponses(responses,respStim,numCharsWanted,drawBlanks)
myWin.flip() #draw again, otherwise won't draw the last key
myWin.flip() #end of waitingForAccept loop
#end of waiting until response is finished, all keys and acceptance if required
responsesAutopilot = np.array( numCharsWanted*list([('A')]) )
responses=np.array( responses )
#print 'responses=', responses,' responsesAutopilot=', responsesAutopilot #debugOFF
return expStop,passThisTrial,responses,responsesAutopilot
if t >= 0.0 and welcome_scr.status == NOT_STARTED:
# keep track of start time/frame for later
welcome_scr.tStart = t
welcome_scr.frameNStart = frameN # exact frame index
welcome_scr.setAutoDraw(True)
# *exp_start* updates
if t >= 0.0 and exp_start.status == NOT_STARTED:
# keep track of start time/frame for later
exp_start.tStart = t
exp_start.frameNStart = frameN # exact frame index
exp_start.status = STARTED
# keyboard checking is just starting
event.clearEvents(eventType='keyboard')
if exp_start.status == STARTED:
theseKeys = event.getKeys(keyList=['y'])
# check for quit:
if "escape" in theseKeys:
endExpNow = True
if len(theseKeys) > 0: # at least one key was pressed
# a response ends the routine
continueRoutine = False
# check if all components have finished
if not continueRoutine: # a component has requested a forced-end of Routine
break
continueRoutine = False # will revert to True if at least one component still running
for thisComponent in StartComponents:
if hasattr(thisComponent, "status") and thisComponent.status != FINISHED:
continueRoutine = True
def get_events(self):
""" Logs responses/triggers """
events = event.getKeys(timeStamped=self.session.clock)
if events:
if 'q' in [ev[0] for ev in events]: # specific key in settings?
np.save(
opj(self.session.output_dir,
self.session.output_str + '_simple_response_data.npy'),
{
"Expected number of responses":
len(self.session.dot_switch_color_times),
"Total subject responses":
self.session.total_responses,
f"Correct responses (within {self.session.settings['Task settings']['response interval']}s of dot color change)":
self.session.correct_responses
})
if self.session.settings['PRF stimulus settings'][
'Screenshot'] == True:
self.session.win.saveMovieFrames(
opj(self.session.screen_dir,
self.session.output_str + '_Screenshot.png'))
self.session.close()
self.session.quit()
for key, t in events:
if key == self.session.mri_trigger:
event_type = 'pulse'
#marco edit. the second bit is a hack to avoid double-counting of the first t when simulating a scanner
if self.session.settings['PRF stimulus settings'][
'Scanner sync'] == True and t > 0.1:
self.exit_phase = True
#ideally, for speed, would want getMovieFrame to be called right after the first winflip.
#but this would have to be dun from inside trial.run()
if self.session.settings['PRF stimulus settings'][
'Screenshot'] == True:
self.session.win.getMovieFrame()
else:
event_type = 'response'
self.session.total_responses += 1
#tracking percentage of correct responses per session
if self.session.dot_count < len(
self.session.dot_switch_color_times):
if t > self.session.dot_switch_color_times[self.session.dot_count] and \
t < self.session.dot_switch_color_times[self.session.dot_count] + float(self.session.settings['Task settings']['response interval']):
self.session.correct_responses += 1
# print(f'number correct responses: {self.session.correct_responses}') #testing
idx = self.session.global_log.shape[0]
self.session.global_log.loc[idx, 'trial_nr'] = self.trial_nr
self.session.global_log.loc[idx, 'onset'] = t
self.session.global_log.loc[idx, 'event_type'] = event_type
self.session.global_log.loc[idx, 'phase'] = self.phase
self.session.global_log.loc[idx, 'response'] = key
for param, val in self.parameters.items():
self.session.global_log.loc[idx, param] = val
#self.trial_log['response_key'][self.phase].append(key)
#self.trial_log['response_onset'][self.phase].append(t)
#self.trial_log['response_time'][self.phase].append(t - self.start_trial)
if key != self.session.mri_trigger:
self.last_resp = key
self.last_resp_onset = t
#update counter
if self.session.dot_count < len(self.session.dot_switch_color_times):
if self.session.clock.getTime() > self.session.dot_switch_color_times[self.session.dot_count] + \
float(self.session.settings['Task settings']['response interval'])+0.1: #to give time to respond
self.session.dot_count += 1
def RunTrial(sequence):
# check for going over session time
if globalClock.getTime() - tStartSession > tSessionMax:
CoolDown() #exit experiment gracefully
# get deadline for response
respDur = tRespPerItem * (len(sequence))
respDur = int(
tRespRoundOff *
np.ceil(float(respDur) /
tRespRoundOff)) # round up to next tRespRoundOff multiple
# print("length = %d, respDur = %1.1f"%(len(sequence), respDur))
logging.log(level=logging.EXP, msg='Start Sequence %d' % len(sequence))
# play sequence
for iStim in sequence:
DisplayButtons([iStim], stimDur)
beeps[iStim].play()
core.wait(stimDur, stimDur) # wait so sound plays properly
DisplayButtons([], pauseDur)
# core.wait(pauseDur,pauseDur)
logging.log(level=logging.EXP, msg='End Sequence %d' % len(sequence))
#draw fixation dot and wait for response
event.clearEvents() # ignore any keypresses before now
# win.logOnFlip(level=logging.EXP, msg='Display Fixation')
# fixation.draw()
DisplayButtons([], 0, True)
# tResp = trialClock.getTime() # IMPORTANT REFERENCE POINT
tResp = tNextFlip[0] # IMPORTANT REFERENCE POINT
iSeq = 0
# Response loop
while globalClock.getTime() < (tResp + respDur) and iSeq < len(sequence):
iStim = sequence[iSeq]
thisKey = event.getKeys(timeStamped=globalClock)
if len(thisKey) > 0 and thisKey[0][0] == respKeys[iStim]:
#tResp = trialClock.getTime(); # reset the shot clock
# fixation.draw()
DisplayButtons([iStim], 0, True) # DON'T INCREMENT CLOCK
beepsShort[iStim].play()
core.wait(
shortDur,
shortDur) # USE CORE.WAIT HERE SO CLOCK DOESN'T INCREMENT
# fixation.draw()
DisplayButtons([], 0, True)
iSeq += 1
elif len(thisKey) > 0 and thisKey[0][0] in ['q', 'escape']:
core.quit()
elif len(thisKey) > 0:
print('this: %s' % str(thisKey[0][0]))
print('correct: %s' % str(respKeys[iStim]))
buzz.play()
core.wait(buzzDur,
buzzDur) # USE CORE.WAIT HERE SO CLOCK DOESN'T INCREMENT
return (WRONG)
#get response
if iSeq == len(sequence): # finished sequence
DisplayButtons([], respDur, False) # increment next-frame clock
return (RIGHT)
else: # ran out of time
buzz.play()
core.wait(buzzDur,
buzzDur) # USE CORE.WAIT HERE SO CLOCK DOESN'T INCREMENT
DisplayButtons([], respDur, False) # increment next-frame clock
return (TOOSLOW)
simResponses = [(0.123, 'a'), (4.789, 'c'), (2.456, 'b')]
# launch: operator selects Scan or Test (emulate); see API documentation
vol = launchScan(win,
MR_settings,
globalClock=globalClock,
simResponses=simResponses)
infer_missed_sync = False # best if your script timing works without this, but this might be useful sometimes
max_slippage = 0.02 # how long to allow before treating a "slow" sync as missed
# any slippage is almost certainly due to timing issues with your script or PC, and not MR scanner
duration = MR_settings['volumes'] * MR_settings['TR']
# note: globalClock has been reset to 0.0 by launchScan()
while globalClock.getTime() < duration:
allKeys = event.getKeys()
for key in allKeys:
if key != MR_settings['sync']:
output += "%3d %7.3f %s\n" % (vol - 1, globalClock.getTime(),
str(key))
if 'escape' in allKeys:
output += 'user cancel, '
break
# detect sync or infer it should have happened:
if MR_settings['sync'] in allKeys:
sync_now = key_code # flag
onset = globalClock.getTime()
if infer_missed_sync:
expected_onset = vol * MR_settings['TR']
now = globalClock.getTime()
if now > expected_onset + max_slippage:
for midx, ts in enumerate(tmel):
trigger = str(block['type'][tidx]) + str(midx + 1) + str(ts)
sounds[ts - 1].play()
#setParallelData(int(trigger)) # for sending triggers
print(trigger)
#clear events and reset the clock for RT
if midx == 0:
event.clearEvents(eventType='keyboard')
RT.reset()
core.wait(0.5, hogCPUperiod=0.5)
# if there is a response record keys and RT. Else record 0 and time limit:
resp = None
while resp == None:
key = event.getKeys(timeStamped=RT)
if len(key) > 0:
resp = key[0][0]
rt = key[0][1]
elif RT.getTime() > 2.5:
resp = 0
rt = RT.getTime()
## gather log info and add to logfile:
lrow = '{},{},{},{},{},{};{};{},{};{};{},{},{},{}\n'
lrow = lrow.format(sub_id[0], b, ttime, block['melID'][tidx],
block['trialID'][tidx], pmel[0], pmel[1], pmel[2],
tmel[0], tmel[1], tmel[2], block['type'][tidx],
resp, rt * 1000)
logfile.write(lrow)
core.wait(0.3) # 300 ms after response, to start new trial
def get_events(self):
events = event.getKeys(timeStamped=self.session.clock)
if events:
if 'q' in [ev[0] for ev in events]: # specific key in settings?
self.session.close()
self.session.quit()
for key, t in events:
if key == self.session.mri_trigger:
event_type = 'pulse'
else:
event_type = 'response'
idx = self.session.global_log.shape[0]
self.session.global_log.loc[idx, 'trial_nr'] = self.trial_nr
self.session.global_log.loc[idx, 'onset'] = t
self.session.global_log.loc[idx, 'event_type'] = event_type
self.session.global_log.loc[idx, 'phase'] = self.phase
self.session.global_log.loc[idx, 'response'] = key
for param, val in self.parameters.items():
self.session.global_log.loc[idx, param] = val
if self.eyetracker_on: # send msg to eyetracker
msg = f'start_type-{event_type}_trial-{self.trial_nr}_phase-{self.phase}_key-{key}_time-{t}'
self.session.tracker.sendMessage(msg)
#self.trial_log['response_key'][self.phase].append(key)
#self.trial_log['response_onset'][self.phase].append(t)
#self.trial_log['response_time'][self.phase].append(t - self.start_trial)
if key != self.session.mri_trigger:
self.last_resp = key
self.last_resp_onset = t
for e in events:
if e[0] in self.keys:
ix = self.keys.index(e[0])
if ix == 0:
if self.current_topic == 'position_x':
self.position[0] -= 0.1
elif self.current_topic == 'position_y':
self.position[1] -= 0.1
elif self.current_topic == 'size':
self.size -= 0.1
elif ix == 1:
if self.current_topic == 'position_x':
self.position[0] += 0.1
elif self.current_topic == 'position_y':
self.position[1] += 0.1
elif self.current_topic == 'size':
self.size += 0.1
elif ix == 2:
if self.current_topic == 'position_x':
self.current_topic = 'position_y'
elif self.current_topic == 'position_y':
self.current_topic = 'size'
elif self.current_topic == 'size':
self.current_topic = 'position_x'
if self.current_topic == 'position_x':
self.session.info.text = 'x: {:0.2f}'.format(self.position[0])
elif self.current_topic == 'position_y':
self.session.info.text = 'y: {:0.2f}'.format(self.position[1])
elif self.current_topic == 'size':
self.session.info.text = 'size: {:0.2f}'.format(self.size)
if self.current_topic.startswith('position'):
self.session.info.pos = self.position
self.session.flicker_stimulus.pos = self.position
self.session.fixation_stimulus.pos = self.position
elif self.current_topic == 'size':
self.session.flicker_stimulus.size = self.size
self.session.fixation_stimulus.size = self.size * self.session.settings['flicker_experiment']['fixation_size_prop']
self.session.info.height = self.size / 15.
def get_ttl():
allKeys = event.getKeys([MR_settings["sync"]])
for key in allKeys:
if key.lower() == MR_settings["sync"]:
return True
return False
flipHoriz=False, flipVert=False,
interpolate=True, depth=-1.0)
# Create some handy timers
globalClock = core.Clock() # to track the time since experiment started
routineTimer = core.CountdownTimer() # to track time remaining of each (non-slip) routine
logging.setDefaultClock(globalClock)
#------Prepare to start Routine "inst"-------
trials = data.TrialHandler(nReps=1, method='sequential',
extraInfo=expInfo, originPath=None,
trialList=data.importConditions(CONFIGURATION_FILE % expInfo['participant']),
name='trials')
thisExp.addLoop(trials) # add the loop to the experiment
# set up handler to look after randomisation of conditions etc
text.setAutoDraw(True)
win.flip()
keys = event.getKeys(keyList=['T','t','escape'])
event.waitKeys(['return'])
globalClock.reset()
routineTimer.reset()
routineTimer.add(BEGIN_TRIAL_DELAY)
text.setAutoDraw(False)
win.flip()
if('escape' in keys):
core.quit()
while routineTimer.getTime() > 0:
continue
for thisTrial in trials:
trialComponents = []
trialComponents.append(image)
trialComponents.append(image_2)
trialComponents.append(image_3)
if t >= 0.0 and Instr.status == NOT_STARTED:
# keep track of start time/frame for later
Instr.tStart = t
Instr.frameNStart = frameN # exact frame index
Instr.setAutoDraw(True)
# *key_resp_3* updates
if t >= 0.0 and key_resp_3.status == NOT_STARTED:
# keep track of start time/frame for later
key_resp_3.tStart = t
key_resp_3.frameNStart = frameN # exact frame index
key_resp_3.status = STARTED
# keyboard checking is just starting
event.clearEvents(eventType='keyboard')
if key_resp_3.status == STARTED:
theseKeys = event.getKeys()
# check for quit:
if "escape" in theseKeys:
endExpNow = True
if len(theseKeys) > 0: # at least one key was pressed
# a response ends the routine
continueRoutine = False
# check if all components have finished
if not continueRoutine: # a component has requested a forced-end of Routine
break
continueRoutine = False # will revert to True if at least one component still running
for thisComponent in InstComponents:
if hasattr(thisComponent,
"status") and thisComponent.status != FINISHED:
def event(self):
for ev in event.getKeys():
if len(ev) > 0:
if ev in ['esc', 'escape', 'q']:
self.events.append(
[-99,
self.session.clock.getTime() - self.start_time])
self.stopped = True
self.session.stopped = True
print 'run canceled by user'
# it handles both numeric and lettering modes
elif ev == ' ':
self.events.append(
[0, self.session.clock.getTime() - self.start_time])
if self.phase == 0:
self.phase_forward()
else:
self.events.append([
-99,
self.session.clock.getTime() - self.start_time
])
self.stopped = True
print 'trial canceled by user'
elif ev == 't': # TR pulse
self.events.append(
[99,
self.session.clock.getTime() - self.start_time])
if (self.phase == 0) + (self.phase == 1):
self.phase_forward()
elif ev in self.session.response_button_signs.keys():
if self.last_sampled_staircase is not None: #hasattr(self,'last_sampled_staircase'):
# what value were we presenting at?
test_value = self.session.staircases[
self.last_sampled_staircase].quantile()
response = self.session.response_button_signs[
ev] * self.present_fix_task_sign
# update the staircase
self.session.staircases[
self.last_sampled_staircase].update(
test_value, (response + 1) / 2)
# now block the possibility of further updates
self.last_sampled_staircase = None
log_msg = 'staircase updated from %f after response %s at %f' % (
test_value, str((response + 1) / 2),
self.session.clock.getTime())
self.events.append(log_msg)
print log_msg
if self.session.tracker:
self.session.tracker.log(log_msg)
# add answers based on stimulus changes, and interact with the staircases at hand
# elif ev == 'b' or ev == 'right': # answer pulse
event_msg = 'trial ' + str(
self.ID) + ' key: ' + str(ev) + ' at time: ' + str(
self.session.clock.getTime())
self.events.append(event_msg)
super(MapperTrial, self).key_event(ev)
nDots = 500
maxSpeed = 0.02
dotSize = .0075
dotsTheta = numpy.random.rand(nDots) * 360
dotsRadius = (numpy.random.rand(nDots)**0.5) * 2
speed = numpy.random.rand(nDots) * maxSpeed
win = visual.Window([800, 600], color=[-1, -1, -1])
dots = visual.ElementArrayStim(win,
elementTex=None,
elementMask='circle',
nElements=nDots,
sizes=dotSize)
while not event.getKeys():
# update radius
dotsRadius = (dotsRadius + speed)
# random radius where radius too large
outFieldDots = (dotsRadius >= 2.0)
dotsRadius[outFieldDots] = numpy.random.rand(sum(outFieldDots)) * 2.0
dotsX, dotsY = pol2cart(dotsTheta, dotsRadius)
dotsX *= 0.75 # to account for wider aspect ratio
dots.xys = numpy.array([dotsX, dotsY]).transpose()
dots.draw()
win.flip()
win.close()
core.quit()
if circle.radius < 10:
circle.radius = (circle.radius + (9 / FRAMES))
circle.draw()
win.flip()
for f in range(HOLD_FRAMES):
circle.radius = 10
circle.draw()
win.flip()
for f in range(ISI_FRAMES):
win.flip()
print(circle.radius)
circle.radius = 1
EPOCH -= 1
# Get keys to quit.
if len(event.getKeys()) > 0:
event.clearEvents()
win.close()
'''
# For recording dropped frames
win.recordFrameIntervals=True
# By default, the threshold is set to 120% of the estimated refresh
# duration, but arbitrary values can be set.
#
# I've got 85Hz monitor and want to allow 4 ms tolerance; any refresh that
# takes longer than the specified period will be considered a "dropped"
# frame and increase the count of win.nDroppedFrames.
win.refreshThreshold = 1/85 + 0.004
def check_exit():
#abort if esc was pressed
if event.getKeys('escape'):
win.close()
core.quit()
def Social(self, MotherPacket):
'''
Pariticpant plays a trial of the social game in any of the
four conditions.
'''
event.Mouse(visible=False)
# balloon instances
b1 = balloon(self.window, 1,
os.getcwd() + '/Resources', self.eventRecorder)
b2 = balloon(self.window, 2,
os.getcwd() + '/Resources', self.eventRecorder)
self.eventRecorder.p1 = b1
self.eventRecorder.p2 = b2
# Use subject ID's to generate valid port numbers for subject TCP sockets
Port = int(1100 + MotherPacket['SubjectID'])
P2port = int(1100 + MotherPacket['P2_ID'])
# Establish TCP connection with other player
if Port > P2port: # If player's SubjectID is larger than P2, act as server.
core.wait(
np.random.uniform(1, 3)
) # pause for a moment to ensure P2 is ready to establish connection
# Begin connnection protocol
Server = socket(AF_INET, SOCK_STREAM)
Server.setsockopt(SOL_SOCKET, SO_REUSEADDR, 1)
Server.bind((gethostbyname(gethostname()), Port))
Server.settimeout(10) # Set timeout for 10 seconds
Server.listen(1)
try:
GameSock, clientaddr = Server.accept()
except timeout: # If no connection is established within 10sec. return restart = True
self.restart = True
return True
elif Port < P2port: # If player's SubjectID is smaller than P2, act as client.
start = time.time()
end = start + 10
while 1: # For 10 seconds try to establish connection with server
GameSock = socket(AF_INET, SOCK_STREAM)
GameSock.setsockopt(SOL_SOCKET, SO_REUSEADDR, 1)
try:
GameSock.connect((MotherPacket['P2_IP'], P2port))
break
except error: # If no connection is established within 10sec. return restart = True
if time.time() >= end:
self.restart = True
return True
self.fixation.draw()
self.window.flip()
# Trial handshake ensures that both computers start trial at exact same time
GameSock.setblocking(1)
GameSock.settimeout(180)
if Port > P2port:
GameSock.send('n')
GameSock.recv(1)
else:
GameSock.recv(1)
GameSock.send('n')
GameSock.setblocking(0)
core.wait(1)
# Get Trial ready
BothFinished = False
b1.reset()
b2.reset()
b1.update()
b2.update()
b1.Ex.setAutoDraw(True)
b2.Ex.setAutoDraw(True)
self.PreTrialSetup(MotherPacket)
while not BothFinished:
# Only update screen is something happens
Action = False
b2Action = False
# Check if players have timed out
Action = b1.timeOut(world=self.TrialTimer)
b2Action = b2.timeOut(world=self.TrialTimer)
# Check whether P2 sent a message
# 1 = pump, 0 = popped, 2 = cashed
Message = self.checkMessage(GameSock)
if Message == '1':
b2.pump()
b2Action = True
elif Message == '0':
b2.pump()
b2.pumps = 0
self.eventRecorder.RecordEvent('P2_Pop')
b2.popped = True
b2.earned.setText('0')
b2.outcome.setText('Popped!')
b2.outcome.setColor(u'red')
b2.done = True
b2Action = True
elif Message == '2':
b2Action = b2.cash()
if self.Competitive == '0':
b2.outcome.setColor(u'green')
# Make Actions
if b1.pumpAction(): # Pump and send message
Action = True
if b1.popped:
if self.sendMessage(GameSock, '0'):
self.rstart()
break # if something went wrong, end trial
else:
if self.sendMessage(GameSock, '1'):
print 'pump'
self.rstart()
break # if something went wrong, end trial
# if np.random.randint(0,1000000) < 10: # FOR AUTO PUMP
if event.getKeys(['return']): # cash in and send messaged
if b1.cash():
Action = True
if self.Competitive == '0':
b1.outcome.setColor(u'green')
if self.sendMessage(GameSock, '2'):
self.rstart()
break # if something went wrong, end trial
# Determine winner of trial
if b1.done and b2.done:
if self.Competitive == '1':
if b1.pumps > b2.pumps:
b1.box.opacity = 1
b1.outcome.setColor(u'green')
if b1.cashed and b2.cashed:
b2.Ex.setText('X')
elif b1.pumps < b2.pumps:
b2.box.opacity = 1
b2.outcome.setColor(u'green')
if b1.cashed and b2.cashed:
b1.Ex.setText('X')
elif b1.pumps == b2.pumps:
if b1.cashed and b2.cashed:
b1.Ex.setText('X')
b2.Ex.setText('X')
self.eventRecorder.RecordEvent('OutcomeScreen')
Action = True
BothFinished = True
# Update the screen
if Action or b2Action:
b1.update()
b2.update()
self.window.flip()
GameSock.close() # close game TCP socket
core.wait(np.random.uniform(2, 3))
b1.Ex.setAutoDraw(False)
b2.Ex.setAutoDraw(False)
return self.restart
aperture = visual.Aperture(win, size=.5, pos=[0.16, 0.16], shape='square')
select = "gabor1"
while True:
if select == "gabor1":
aperture.enable() #actually is enabled by default when created
gabor1.draw()
select = "gabor2"
elif select == "gabor2":
aperture.disable() #drawing from here ignores aperture
gabor2.draw()
select = "gabor1"
text.draw()
win.flip()
core.wait(0.1)
if "q" in event.getKeys():
break
# make the psychopy window empty and show mouse again
mouse.setVisible(True)
win.flip()
win.flip() # on some graphics cards win.flip must be called twice to get an
# empty screen
## Present html trials with psytml
for trial_num, item in enumerate(items):
data_trial = psytml.show_form(item, (900, 700), None)
data_trial.update(
{
"id": id_,
"condition": condition,
ori=45,
autoLog=False) #this stim changes too much for autologging to be useful
grating2 = visual.PatchStim(
myWin,
mask="gauss",
color=[1.0, 1.0, 1.0],
opacity=0.5,
size=(1.0, 1.0),
sf=(4, 0),
ori=135,
autoLog=False) #this stim changes too much for autologging to be useful
trialClock = core.Clock()
t = 0
while t < 20: #quits after 20 secs
t = trialClock.getTime()
grating1.setPhase(1 * t) #drift at 1Hz
grating1.draw() #redraw it
grating2.setPhase(2 * t) #drift at 2Hz
grating2.draw() #redraw it
myWin.flip() #update the screen
#handle key presses each frame
for keys in event.getKeys():
if keys in ['escape', 'q']:
core.quit()
envsf=4,
size=1,
contrast=0.5,
moddepth=1.0,
envori=0,
pos=[0.5, 0.5],
beat=True,
interpolate=0)
while True:
#contMod.phase += 0.01
env1.ori += 0.1
env2.envori += 0.1
env2.envphase += 0.01
env3.envori += 0.1
env3.ori -= 0.1
env4.envphase += 0.01
#env4.phase+=0.01
#env1.phase+=0.01
#env1.ori+=0.1
env1.draw()
env2.draw()
env3.draw()
env4.draw()
win.flip()
if 'q' in event.getKeys():
core.quit()
# *Inst_text* updates
if t >= 0.0 and Inst_text.status == NOT_STARTED:
# keep track of start time/frame for later
Inst_text.tStart = t
Inst_text.frameNStart = frameN # exact frame index
Inst_text.setAutoDraw(True)
# *key_resp_1* updates
if t >= 0.0 and key_resp_1.status == NOT_STARTED:
# keep track of start time/frame for later
key_resp_1.tStart = t
key_resp_1.frameNStart = frameN # exact frame index
key_resp_1.status = STARTED
# keyboard checking is just starting
if key_resp_1.status == STARTED:
theseKeys = event.getKeys(keyList=['space'])
# check for quit:
if "escape" in theseKeys:
endExpNow = True
if len(theseKeys) > 0: # at least one key was pressed
# a response ends the routine
continueRoutine = False
# check if all components have finished
if not continueRoutine: # a component has requested a forced-end of Routine
break
continueRoutine = False # will revert to True if at least one component still running
for thisComponent in InstructionComponents:
if hasattr(thisComponent,
"status") and thisComponent.status != FINISHED:
def run_trial(pos_lists, speed_lists, trial_index):
"""
a function to run trials.
:param pos_lists: 小方块的初始位置
:param speed_lists: 小方块的速度
:param trial_index: 试次数
:return:
"""
# get a reference to the currently active EyeLink connection
el_tracker = pylink.getEYELINK()
# put the tracker in the offline mode first
el_tracker.setOfflineMode()
# send a 'TRIALID' message to mark the start of a trial
el_tracker.sendMessage('TRIALID %d' % trial_index)
# record_status_message : show some info on the Host PC
# here we show how many trial has been tested
status_msg = 'TRIAL number %d ' % (trial_index)
el_tracker.sendCommand("record_status_message '%s'" % status_msg)
# draw a reference grid on the Host PC screen
# For details, See section 25.6 'Drawing Commands' in the
# EyeLink Programmers Guide manual
# line_hor = (scnWidth / 2.0 - start_x, scnHeight / 2.0,
# scnWidth / 2.0 + start_x, scnHeight / 2.0)
# line_ver = (scnWidth / 2.0, scnHeight / 2.0 - start_y,
# scnWidth / 2.0, scnHeight / 2.0 + start_y)
# el_tracker.sendCommand('clear_screen 0') # clear the host Display
# el_tracker.sendCommand('draw_line %d %d %d %d 15' % line_hor)
# el_tracker.sendCommand('draw_line %d %d %d %d 15' % line_ver)
red_box = (rv_red[0][0] + scn_width / 2, scn_height / 2 - rv_red[0][1],
rv_red[2][0] + scn_width / 2, scn_height / 2 - rv_red[2][1])
blue_box = (rv_blue[0][0] + scn_width / 2, scn_height / 2 - rv_blue[0][1],
rv_blue[2][0] + scn_width / 2, scn_height / 2 - rv_blue[2][1])
green_box = (rv_green[0][0] + scn_width / 2,
scn_height / 2 - rv_green[0][1],
rv_green[2][0] + scn_width / 2,
scn_height / 2 - rv_green[2][1])
yellow_box = (rv_yellow[0][0] + scn_width / 2,
scn_height / 2 - rv_yellow[0][1],
rv_yellow[2][0] + scn_width / 2,
scn_height / 2 - rv_yellow[2][1])
el_tracker.sendCommand('clear_screen 0') # clear the host Display
el_tracker.sendCommand('draw_box %d %d %d %d 15' % red_box)
el_tracker.sendCommand('draw_box %d %d %d %d 15' % blue_box)
el_tracker.sendCommand('draw_box %d %d %d %d 15' % green_box)
el_tracker.sendCommand('draw_box %d %d %d %d 15' % yellow_box)
# put tracker in idle/offline mode before recording
el_tracker.setOfflineMode()
# Start recording
# arguments: sample_to_file, events_to_file, sample_over_link,
# event_over_link (1-yes, 0-no)
try:
el_tracker.startRecording(1, 1, 1, 1)
except RuntimeError as error:
print("ERROR:", error)
abort_trial()
return pylink.TRIAL_ERROR
# Allocate some time for the tracker to cache some samples
pylink.pumpDelay(100)
# Send a message to clear the Data Viewer screen, get it ready for
# drawing the pictures during visualization
bgcolor_RGB = (116, 116, 116)
el_tracker.sendMessage('!V CLEAR %d %d %d' % bgcolor_RGB)
# open a INTEREAT AREA SET file to make a dynamic IA for the target
ias = 'IA_%d.ias' % trial_index
ias_file = open(os.path.join(aoi_folder, ias), 'w')
frame_num = 0 # keep track of the frames displayed
# 在每个试次开始时，更改小球位置属性
s_rect_red = visual.ShapeStim(win,
vertices=pos_lists[0],
fillColor='red',
lineColor=None)
s_rect_green = visual.ShapeStim(win,
vertices=pos_lists[1],
fillColor='green',
lineColor=None)
s_rect_blue = visual.ShapeStim(win,
vertices=pos_lists[2],
fillColor='blue',
lineColor=None)
s_rect_yellow = visual.ShapeStim(win,
vertices=pos_lists[3],
fillColor='yellow',
lineColor=None)
# 大方块是否选中
red_selected, green_selected, blue_selected, yellow_selected = False, False, False, False
# 小方块是否选中
s_red_selected, s_green_selected = False, False
s_blue_selected, s_yellow_selected = False, False
# 小方块是否超出屏幕边缘
s_red_out, s_green_out, s_blue_out, s_yellow_out = False, False, False, False
# 小方块是否选择错误
red_wrong, green_wrong, blue_wrong, yellow_wrong = False, False, False, False
# set a timer
t = core.getTime()
# draw a cross FIXATION
el_tracker.sendMessage('FIXATION_SCREEN')
while core.getTime() - t <= 1:
msg.setText('+')
msg.height = 50
msg.draw()
win.flip()
# draw rect
while True:
# abort the current trial if the tracker is no longer recording
error = el_tracker.isRecording()
if error is not pylink.TRIAL_OK:
el_tracker.sendMessage("tracker_disconnected")
abort_trial()
return error
# check keyboard events
for keycode, modifier in event.getKeys(modifiers=True):
# abort a trial if 'ESCAPE' is pressed
if keycode == 'escape':
el_tracker.sendMessage('trial_skipped_by_user')
# clear the screen
clear_screen(win)
# abort trial
abort_trial()
return pylink.SKIP_TRIAL
# terminate the task if Ctrl-c
if keycode == 'c' and (modifier['ctrl'] is True):
el_tracker.sendMessage('terminated_by_user')
terminate_task()
return pylink.ABORT_EXPT
# 获取鼠标或眼睛实时位置
get_mouse_eye_pos()
# draw mouse zone
mouse_zone.draw()
# draw 大方块
rect_red.draw()
rect_green.draw()
rect_blue.draw()
rect_yellow.draw()
# draw 小方块
s_rect_red.draw()
s_rect_green.draw()
s_rect_blue.draw()
s_rect_yellow.draw()
frame_num += 1
if frame_num == 1:
el_tracker.sendMessage('TARGET_ONSET')
# record a message to let Data Viewer know where to find
# the IA file for the current trial.
ias_path = os.path.join('aoi', ias)
el_tracker.sendMessage('!V IAREA FILE %s' % ias_path)
else:
# 对四个大方块设置兴趣区
# RECTANGLE id left top right bottom [label]
# el_tracker.sendMessage('!V IAREA RECTANGLE %s %d %d %d %d %s' %
# (1, rv_red[0][0], rv_red[0][1],
# rv_red[2][0], rv_red[2][1], 'red'))
# el_tracker.sendMessage('!V IAREA RECTANGLE %s %d %d %d %d %s' %
# (2, rv_blue[0][0], rv_blue[0][1],
# rv_blue[2][0], rv_blue[2][1], 'blue'))
# el_tracker.sendMessage('!V IAREA RECTANGLE %s %d %d %d %d %s' %
# (3, rv_green[0][0], rv_green[0][1],
# rv_green[2][0], rv_green[2][1], 'red'))
# el_tracker.sendMessage('!V IAREA RECTANGLE %s %d %d %d %d %s' %
# (4, rv_yellow[0][0], rv_yellow[0][1],
# rv_yellow[2][0], rv_yellow[2][1], 'red'))
# el_tracker.sendMessage('!V IAREA RECTANGLE %s %d %d %d %d %s' %
# (5, rv_red[1][0], rv_red[1][1],
# rv_green[3][0], rv_green[3][1], 'center'))
ias_file.write('RECTANGLE %s %d %d %d %d %s\n' %
(1, rv_red[0][0] + scn_width / 2, scn_height / 2 -
rv_red[0][1], rv_red[2][0] + scn_width / 2,
scn_height / 2 - rv_red[2][1], 'red'))
ias_file.write('RECTANGLE %s %d %d %d %d %s\n' %
(2, rv_blue[0][0] + scn_width / 2, scn_height / 2 -
rv_blue[0][1], rv_blue[2][0] + scn_width / 2,
scn_height / 2 - rv_blue[2][1], 'blue'))
ias_file.write('RECTANGLE %s %d %d %d %d %s\n' %
(3, rv_green[0][0] + scn_width / 2, scn_height / 2 -
rv_green[0][1], rv_green[2][0] + scn_width / 2,
scn_height / 2 - rv_green[2][1], 'green'))
ias_file.write(
'RECTANGLE %s %d %d %d %d %s\n' %
(4, rv_yellow[0][0] + scn_width / 2, scn_height / 2 -
rv_yellow[0][1], rv_yellow[2][0] + scn_width / 2,
scn_height / 2 - rv_yellow[2][1], 'yellow'))
ias_file.write('RECTANGLE %s %d %d %d %d %s\n' %
(5, rv_red[1][0] + scn_width / 2, scn_height / 2 -
rv_red[1][1], rv_green[3][0] + scn_width / 2,
scn_height / 2 - rv_green[3][1], 'center'))
# 定义小方块下落的速度
s_rect_red.pos -= (0, speed_lists[0])
s_rect_green.pos -= (0, speed_lists[1])
s_rect_blue.pos -= (0, speed_lists[2])
s_rect_yellow.pos -= (0, speed_lists[3])
win.flip()
# 如果鼠标或眼睛移入大方块，则改变大方块颜色和透明度
# 如果移出，则恢复原来的属性
# 落在红色大方块区域
if rect_red.contains(mouse):
rect_red.fillColor = 'black'
red_time = core.getTime() - t
while True:
s_rect_red.pos -= (0, speed_lists[0])
s_rect_green.pos -= (0, speed_lists[1])
s_rect_blue.pos -= (0, speed_lists[2])
s_rect_yellow.pos -= (0, speed_lists[3])
# mouse_zone.pos = mouse.getPos()
get_mouse_eye_pos()
if rect_red.opacity >= 0.5:
rect_red.opacity -= 0.02
mouse_zone.draw()
rect_red.draw()
rect_green.draw()
rect_blue.draw()
rect_yellow.draw()
s_rect_red.draw()
s_rect_green.draw()
s_rect_blue.draw()
s_rect_yellow.draw()
win.flip()
red_stay = core.getTime() - t
if red_stay - red_time > stay_time:
logging.info('red_stay: ' + str(red_stay - red_time))
logging.info('red_select')
red_selected = True
logging.info('red_break_1')
break
elif not rect_red.contains(mouse):
logging.info('red_break_2')
break
else:
rect_red.fillColor = 'grey'
rect_red.opacity = 1
# 落在绿色大方块区域
if rect_green.contains(mouse):
rect_green.fillColor = 'black'
green_time = core.getTime() - t
while True:
s_rect_red.pos -= (0, speed_lists[0])
s_rect_green.pos -= (0, speed_lists[1])
s_rect_blue.pos -= (0, speed_lists[2])
s_rect_yellow.pos -= (0, speed_lists[3])
# mouse_zone.pos = mouse.getPos()
get_mouse_eye_pos()
if rect_green.opacity >= 0.5:
rect_green.opacity -= 0.02
mouse_zone.draw()
rect_red.draw()
rect_green.draw()
rect_blue.draw()
rect_yellow.draw()
s_rect_red.draw()
s_rect_green.draw()
s_rect_blue.draw()
s_rect_yellow.draw()
win.flip()
green_stay = core.getTime() - t
if green_stay - green_time > stay_time:
logging.info('green_z: ' + str(green_stay - green_time))
logging.info('green_select')
green_selected = True
logging.info('green_break_1')
break
if not rect_green.contains(mouse):
logging.info('green_break_2')
break
else:
rect_green.fillColor = 'grey'
rect_green.opacity = 1
# 落在蓝色大方块区域
if rect_blue.contains(mouse):
rect_blue.fillColor = 'black'
blue_time = core.getTime() - t
while True:
s_rect_red.pos -= (0, speed_lists[0])
s_rect_green.pos -= (0, speed_lists[1])
s_rect_blue.pos -= (0, speed_lists[2])
s_rect_yellow.pos -= (0, speed_lists[3])
# mouse_zone.pos = mouse.getPos()
get_mouse_eye_pos()
if rect_blue.opacity >= 0.5:
rect_blue.opacity -= 0.02
mouse_zone.draw()
rect_red.draw()
rect_green.draw()
rect_blue.draw()
rect_yellow.draw()
s_rect_red.draw()
s_rect_green.draw()
s_rect_blue.draw()
s_rect_yellow.draw()
win.flip()
blue_stay = core.getTime() - t
if blue_stay - blue_time > stay_time:
logging.info('blue_z: ' + str(blue_stay - blue_time))
logging.info('blue_select')
blue_selected = True
logging.info('blue_break_1')
break
if not rect_blue.contains(mouse):
logging.info('blue_break_2')
break
else:
rect_blue.fillColor = 'grey'
rect_blue.opacity = 1
# 落在黄色大方块区域
if rect_yellow.contains(mouse):
rect_yellow.fillColor = 'black'
yellow_time = core.getTime() - t
while True:
s_rect_red.pos -= (0, speed_lists[0])
s_rect_green.pos -= (0, speed_lists[1])
s_rect_blue.pos -= (0, speed_lists[2])
s_rect_yellow.pos -= (0, speed_lists[3])
# mouse_zone.pos = mouse.getPos()
get_mouse_eye_pos()
if rect_yellow.opacity >= 0.5:
rect_yellow.opacity -= 0.02
mouse_zone.draw()
rect_red.draw()
rect_green.draw()
rect_blue.draw()
rect_yellow.draw()
s_rect_red.draw()
s_rect_green.draw()
s_rect_blue.draw()
s_rect_yellow.draw()
win.flip()
yellow_stay = core.getTime() - t
if yellow_stay - yellow_time > stay_time:
logging.info('yellow_z: ' + str(yellow_stay - yellow_time))
logging.info('yellow_select')
yellow_selected = True
logging.info('yellow_break_1')
break
if not rect_yellow.contains(mouse):
logging.info('yellow_break_2')
break
else:
rect_yellow.fillColor = 'grey'
rect_yellow.opacity = 1
# 判断红色和绿色小方块的正确和错误选择
if not (s_red_selected and s_green_selected):
# 正确选择
# 选中红色和绿色大方块，代表红色和绿色小方块被选中
# 通过大方块选中的先后顺序，判断哪个小方块被选中
if red_selected and green_selected:
# 红色小方块被选中
if red_time - green_time < 0:
s_rect_red.opacity = 0
s_red_selected = True
# 反应时
RT_red = abs(red_time - green_time)
logging.info('r: ' + str(RT_red))
else:
# 绿色小方块被选中
s_rect_green.opacity = 0
s_green_selected = True
RT_green = abs(red_time - green_time)
logging.info('g: ' + str(RT_green))
green_selected = False
red_selected = False
# 由红色大方块而产生的错误选择
if red_selected:
if blue_selected: # red --> blue --> green
if not s_blue_selected:
red_wrong = True
logging.info('r1: ' + str(red_wrong))
blue_selected = False
red_selected = False
if yellow_selected: # red --> yellow --> green
if not s_yellow_selected:
red_wrong = True
logging.info('r2: ' + str(red_wrong))
yellow_selected = False
red_selected = False
# 由绿色大方块而产生的错误选择
if green_selected:
if blue_selected: # green --> blue --> red
if not s_blue_selected:
green_wrong = True
logging.info('g1: ' + str(green_wrong))
blue_selected = False
green_selected = False
if yellow_selected: # green --> yellow --> red
if not s_yellow_selected:
green_wrong = True
logging.info('g2: ' + str(green_wrong))
yellow_selected = False
green_selected = False
# 判断蓝色和黄色小方块的正确和错误选择
if not (s_blue_selected and s_yellow_selected):
# 正确选择
if blue_selected and yellow_selected:
# 蓝色小方块被选中
if blue_time - yellow_time < 0:
s_rect_blue.opacity = 0
s_blue_selected = True
RT_blue = abs(blue_time - yellow_time)
logging.info('b: ' + str(RT_blue))
else:
# 绿色小方块被选中
s_rect_yellow.opacity = 0
s_yellow_selected = True
RT_yellow = abs(blue_time - yellow_time)
logging.info('y: ' + str(RT_yellow))
yellow_selected = False
blue_selected = False
# 由蓝色大方块产生的错误选择
if blue_selected:
if red_selected: # blue --> red --> yellow
if not s_red_selected:
blue_wrong = True
logging.info('b1: ' + str(blue_wrong))
red_selected = False
blue_selected = False
if green_selected: # blue --> green --> yellow
if not s_green_selected:
blue_wrong = True
logging.info('b2: ' + str(blue_wrong))
green_selected = False
blue_selected = False
# 由黄色大方块产生的错误选择
if yellow_selected:
if red_selected: # yellow --> red --> blue
if not s_red_selected:
yellow_wrong = True
logging.info('y1: ' + str(yellow_wrong))
red_selected = False
yellow_selected = False
if green_selected: # yellow --> green --> blue
if not s_green_selected:
yellow_wrong = True
logging.info('y2: ' + str(yellow_wrong))
green_selected = False
yellow_selected = False
# 如果小方块没有被选择，判断其是否移动出屏幕之外
# 如果是，则标记True，并返回相应的反应时为None值
if s_rect_red.pos[1] < -1080 and not s_red_selected:
s_red_out = True
RT_red = 'NA'
if s_rect_green.pos[1] < -1080 and not s_green_selected:
s_green_out = True
RT_green = 'NA'
if s_rect_blue.pos[1] < -1080 and not s_blue_selected:
s_blue_out = True
RT_blue = 'NA'
if s_rect_yellow.pos[1] < -1080 and not s_yellow_selected:
s_yellow_out = True
RT_yellow = 'NA'
# 定义试次结束的条件
# 以选中和未选中（错过）小方块的数量，作“组合”计算
# 选中0，错过1，C(4, 0) = 1种可能
if s_red_out and s_green_out and s_blue_out and s_yellow_out: # 0 selected, miss 4
break
# 选中4，错过0，C(4, 4) = 1种可能
elif s_red_selected and s_green_selected and s_blue_selected and s_yellow_selected: # 4 selected, miss 0
break
# 选中1，错过3，C(4, 1) = 4种可能
elif s_red_selected and s_green_out and s_blue_out and s_yellow_out: # 1 red selected, miss 3
break
elif s_green_selected and s_red_out and s_blue_out and s_yellow_out: # 1 green selected, miss 3
break
elif s_blue_selected and s_red_out and s_green_out and s_yellow_out: # 1 blue selected, miss 3
break
elif s_yellow_selected and s_red_out and s_green_out and s_blue_out: # 1 yellow selected, miss 3
break
# 选中2，错过2，C(4, 2) = 6种可能
elif s_red_selected and s_green_selected and s_blue_out and s_yellow_out: # 2 red, green selected, miss 2
break
elif s_red_selected and s_blue_selected and s_green_out and s_yellow_out: # 2 red, blue selected, miss 2
break
elif s_red_selected and s_yellow_selected and s_green_out and s_blue_out: # 2 red, yellow selected, miss 2
break
elif s_green_selected and s_blue_selected and s_red_out and s_yellow_out: # 2 green, blue selected, miss 2
break
elif s_green_selected and s_yellow_selected and s_red_out and s_blue_out: # 2 green, yellow selected, miss 2
break
elif s_blue_selected and s_yellow_selected and s_red_out and s_green_out: # 2 blue, yellow selected, miss 2
break
# 选中3，错过1，C(4, 3) = 4种可能
elif s_red_selected and s_green_selected and s_blue_selected and s_yellow_out: # 3 r, g, b selected, miss 1
break
elif s_red_selected and s_green_selected and s_yellow_selected and s_blue_out: # 3 r, g, y selected, miss 1
break
elif s_red_selected and s_blue_selected and s_yellow_selected and s_green_out: # 3 r, b, y selected, miss 1
break
elif s_green_selected and s_blue_selected and s_yellow_selected and s_red_out: # 3 g, b, y selected, miss 1
break
# 结束While循环时，计算试次所需要的时间
trial_time = core.getTime() - t
el_tracker.sendMessage('BLANK_SCREEN')
clear_screen(win)
core.wait(0.5)
# send a message to clear the Data Viewer
el_tracker.sendMessage('!V CLEAR 128 128 128')
# close the IAS file
ias_file.close()
# record trial variables to the EDF data file
el_tracker.sendMessage('!V TRIAL_VAR s_red_selected %s' % s_red_selected)
el_tracker.sendMessage('!V TRIAL_VAR s_blue_selected %s' % s_blue_selected)
el_tracker.sendMessage('!V TRIAL_VAR s_green_selected %s' %
s_green_selected)
el_tracker.sendMessage('!V TRIAL_VAR s_yellow_selected %s' %
s_yellow_selected)
pylink.msecDelay(4) # take a break of 4 millisecond
el_tracker.sendMessage('!V TRIAL_VAR s_red_out %s' % s_red_out)
el_tracker.sendMessage('!V TRIAL_VAR s_blue_out %s' % s_blue_out)
el_tracker.sendMessage('!V TRIAL_VAR s_green_out %s' % s_green_out)
el_tracker.sendMessage('!V TRIAL_VAR s_yellow_out %s' % s_yellow_out)
pylink.msecDelay(4) # take a break of 4 millisecond
el_tracker.sendMessage('!V TRIAL_VAR red_wrong %s' % red_wrong)
el_tracker.sendMessage('!V TRIAL_VAR blue_wrong %s' % blue_wrong)
el_tracker.sendMessage('!V TRIAL_VAR green_wrong %s' % green_wrong)
el_tracker.sendMessage('!V TRIAL_VAR yellow_wrong %s' % yellow_wrong)
pylink.msecDelay(4) # take a break of 4 millisecond
# send a 'TRIAL_RESULT' message to mark the end of trial
el_tracker.sendMessage('TRIAL_RESULT %d' % pylink.TRIAL_OK)
# write trial info to CSV
red_data = [
trial_index, 'red', s_red_selected, red_wrong, s_red_out, RT_red,
trial_time
]
sub_data.write(','.join(map(str, red_data)) + '\n')
green_data = [
trial_index, 'green', s_green_selected, green_wrong, s_green_out,
RT_green, trial_time
]
sub_data.write(','.join(map(str, green_data)) + '\n')
blue_data = [
trial_index, 'blue', s_blue_selected, blue_wrong, s_blue_out, RT_blue,
trial_time
]
sub_data.write(','.join(map(str, blue_data)) + '\n')
yellow_data = [
trial_index, 'yellow', s_yellow_selected, yellow_wrong, s_yellow_out,
RT_yellow, trial_time
]
sub_data.write(','.join(map(str, yellow_data)) + '\n')
if t >= 0.0 and instr1.status == NOT_STARTED:
# keep track of start time/frame for later
instr1.tStart = t
instr1.frameNStart = frameN # exact frame index
instr1.setAutoDraw(True)
# *ready1* updates
if t >= 0.0 and ready1.status == NOT_STARTED:
# keep track of start time/frame for later
ready1.tStart = t
ready1.frameNStart = frameN # exact frame index
ready1.status = STARTED
# keyboard checking is just starting
event.clearEvents(eventType='keyboard')
if ready1.status == STARTED:
theseKeys = event.getKeys()
# check for quit:
if "escape" in theseKeys:
endExpNow = True
if len(theseKeys) > 0: # at least one key was pressed
# a response ends the routine
continueRoutine = False
# check if all components have finished
if not continueRoutine: # a component has requested a forced-end of Routine
break
continueRoutine = False # will revert to True if at least one component still running
for thisComponent in instructPracticeComponents:
if hasattr(thisComponent,
"status") and thisComponent.status != FINISHED:
text.setText("Ready?");text.draw();win.flip()
ISI.start(1);ISI.complete()
text.setText("Go!");text.draw();win.flip()
ISI.start(0.3);ISI.complete()
for i in range(len(numlist)):
ISI.start(0.3); #0.3
text.setText(str(numlist[i]));
text.draw();win.flip()
ISI.complete()
ISI.start(0.9) #0.9
img.draw();win.flip()#ここの処理速度より早く押してしまうと空判定される
rsp = event.getKeys(keyList=["space"])
ISI.complete()
if cond !="Control" and i>=2:
trial.append(tri);
stm = numlist[i] if cond == "Moderate" else numlist[i-1]
cnd.append(cond);
if rsp == ["space"] and stm != 3:
btn.append(1);stimli.append(0);
elif rsp == ["space"] and stm == 3:
btn.append(1);stimli.append(1);
elif rsp == [] and stm != 3:
btn.append(0);stimli.append(0);
return visual.ImageStim(win=mywin, image=filename)
mywin = visual.Window([1920, 1080],
monitor="testMonitor",
units="deg",
fullscr=True)
targets = map(loadImage, glob('stim/target-*.jpg'))
nontargets = map(loadImage, glob('stim/nontarget-*.jpg'))
for ii, trial in trials.iterrows():
# inter trial interval
core.wait(iti + np.random.rand() * jitter)
# onset
pos = trials['position'].iloc[ii]
image = choice(targets if pos == 1 else nontargets)
image.draw()
timestamp = local_clock()
outlet.push_sample([markernames[pos]], timestamp)
mywin.flip()
# offset
core.wait(soa)
mywin.flip()
if len(event.getKeys()) > 0 or (time() - start) > record_duration:
break
event.clearEvents()
# Cleanup
mywin.close()
