def rad_checkboard(a1, a2):
color_gr = [
round(choice(arange(-1, 1, 0.1)), 2),
round(choice(arange(-1, 1, 0.1)), 2),
round(choice(arange(-1, 1, 0.1)), 2)
]
#color_gr=random.choice([red, green, black, blue])
#color_gr=black
#color_gr=blue
stim_vertical1 = visual.RadialStim(win,
units="pix",
pos=(0.0, 0.0),
ori=90,
size=(cm2pix(r_big) * 2,
cm2pix(r_big) * 2),
radialCycles=12,
angularCycles=11,
visibleWedge=(a1, a2),
color=color_gr,
colorSpace='rgb')
stim_vertical2 = visual.RadialStim(win,
units="pix",
pos=(0.0, 0.0),
ori=90,
size=(cm2pix(r_small) * 2,
cm2pix(r_small) * 2),
radialCycles=12,
angularCycles=11,
visibleWedge=(a1, a2),
color=grey,
colorSpace='rgb')
stim_vertical1.draw()
stim_vertical2.draw()
def __init__(self, window, size, position, n_frame, log_time=False):
"""
Args:
window (psychopy.visual.window): Psychopy window
size (int): Size of the checkerboard stimulation
position (tuple): Position of stimulation on the screen
n_frame (int): Number of frames for the stim to flicker (frequency = monitor_refresh_rate/n_frame)
log_time (bool): Whether to log toggle times
"""
self._window = window
self._fr_rate = n_frame
self._fr_counter = n_frame
pattern = np.ones((4, 4))
pattern[::2, ::2] *= -1
pattern[1::2, 1::2] *= -1
self._stim1 = visual.RadialStim(win=self._window,
tex=pattern,
pos=position,
size=size,
radialCycles=1,
texRes=256,
opacity=1)
self._stim2 = visual.RadialStim(win=self._window,
tex=pattern * -1,
pos=position,
size=size,
radialCycles=1,
texRes=256,
opacity=1)
self._toggle_flag = False
self.log_time = log_time
self.toggle_times = []
def initialize_wedges(self):
self.right_wedge = visual.RadialStim(win=self.mywin,
tex='sqrXsqr',
color=1,
contrast=0.4,
size=self.inner_wedge_size,
visibleWedge=[45, 135],
radialCycles=8,
angularCycles=16,
interpolate=False,
autoLog=False)
self.right_unvisible_wedge = visual.RadialStim(
win=self.mywin,
tex='sqrXsqr',
mask='circle',
color='grey',
contrast=0,
size=self.unvisible_inner_wedge_size,
visibleWedge=[45, 135],
radialCycles=8,
angularCycles=16,
interpolate=False,
autoLog=False)
self.left_wedge = visual.RadialStim(win=self.mywin,
tex='sqrXsqr',
color=1,
contrast=0.4,
size=self.inner_wedge_size,
visibleWedge=[225, 315],
radialCycles=8,
angularCycles=16,
interpolate=False,
autoLog=False)
self.left_unvisible_wedge = visual.RadialStim(
win=self.mywin,
tex='sqrXsqr',
mask='circle',
color='grey',
contrast=0,
size=self.unvisible_inner_wedge_size,
visibleWedge=[225, 315],
radialCycles=8,
angularCycles=16,
interpolate=False,
autoLog=False)
def draw_cal_target(self, x, y):
'''Draw the calibration/validation & drift-check target'''
self.clear_cal_display()
xVis = (x - self.w / 2)
yVis = (self.h / 2 - y)
if self.calTarget is 'default':
self.calibTar.pos = (xVis, yVis)
self.calibTar.draw()
self.display.flip()
else:
if self.calTarget is 'rotatingCheckerboard':
self.calibTar = visual.RadialStim(self.display,
tex='sqrXsqr',
mask='circle',
radialCycles=2,
angularCycles=6,
size=1.0 / 20 * self.w)
if self.calTarget is 'movie':
self.calibTar = visual.MovieStim3(self.display,
self.movieTargetFile,
loop=True)
self.calibTar.pos = (xVis, yVis)
self.animatedTarget = True # turn on target animation
def test_radial(self):
if self.win.winType == 'pygame':
pytest.skip("RadialStim dodgy on pygame")
win = self.win
#using init
wedge = visual.RadialStim(win,
tex='sqrXsqr',
color=1,
size=2 * self.scaleFactor,
visibleWedge=[0, 45],
radialCycles=2,
angularCycles=2,
interpolate=False)
wedge.draw()
thresh = 10
utils.compareScreenshot('wedge1_%s.png' % (self.contextName),
win,
crit=thresh)
win.flip() #AFTER compare screenshot
#using .set()
wedge.mask = 'gauss'
wedge.size = 3 * self.scaleFactor
wedge.angularCycles = 3
wedge.radialCycles = 3
wedge.ori = 180
wedge.contrast = 0.8
wedge.opacity = 0.8
wedge.radialPhase += 0.1
wedge.angularPhase = 0.1
wedge.draw()
str(wedge) #check that str(xxx) is working
utils.compareScreenshot('wedge2_%s.png' % (self.contextName),
win,
crit=10.0)
def test_radial(self):
win = self.win
#using init
wedge = visual.RadialStim(win, tex='sqrXsqr', color=1, size=2* self.scaleFactor,
visibleWedge=[0, 45], radialCycles=2, angularCycles=2, interpolate=False)
wedge.draw()
thresh = 15 # there are often a slight interpolation differences
if win.winType != 'pygame': # pygame definitely gets radialstim wrong!
utils.compareScreenshot('wedge1_%s.png' %(self.contextName),
win, crit=thresh)
win.flip()#AFTER compare screenshot
#using .set()
wedge.mask = 'gauss'
wedge.size = 3 * self.scaleFactor
wedge.angularCycles = 3
wedge.radialCycles = 3
wedge.ori = 180
wedge.contrast = 0.8
wedge.opacity = 0.8
wedge.radialPhase += 0.1
wedge.angularPhase = 0.1
wedge.draw()
"{}".format(wedge) #check that str(xxx) is working
if win.winType != 'pygame': # pygame gets this wrong:
utils.compareScreenshot('wedge2_%s.png' %(self.contextName),
win, crit=thresh)
else:
pytest.skip("Pygame fails to render RadialStim properly :-/")
def generate_radial_stimulus_list(win,
positions_list,
stimulus_size,
radial_cycles=5,
angular_cycles=12):
stimulus_list = []
stimulus_mask_list = []
for stim_position in positions_list:
wedge = visual.RadialStim(win,
tex='sqrXsqr',
color=-1,
size=stimulus_size[0],
pos=stim_position,
units='pix',
visibleWedge=[0, 360],
radialCycles=5,
angularCycles=12,
interpolate=False,
autoLog=False)
stimulus_list.append(wedge)
circle_target = visual.Circle(win,
fillColor=[0.5, 0.5, 0.5],
size=10,
pos=stim_position,
units='pix')
stimulus_mask_list.append(circle_target)
return stimulus_list, stimulus_mask_list
def test_radial(self):
win = self.win
#using init
wedge = visual.RadialStim(win,
tex='sqrXsqr',
color=1,
size=2 * self.scaleFactor,
visibleWedge=[0, 45],
radialCycles=2,
angularCycles=2,
interpolate=False)
wedge.draw()
utils.compareScreenshot('wedge1_%s.png' % (self.contextName),
win,
crit=10.0)
win.flip() #AFTER compare screenshot
#using .set()
wedge.setOri(180)
wedge.setContrast(0.8)
wedge.setOpacity(0.8)
wedge.setRadialPhase(0.1, operation='+')
wedge.setAngularPhase(0.1)
wedge.draw()
utils.compareScreenshot('wedge2_%s.png' % (self.contextName),
win,
crit=10.0)
def __init__(
self,
window,
size,
pos,
dutyCycle=0.125,
nSegs=3,
radialRate=0.05, #phase shift per frame (fraction of a cycle)
changeProb=0.01, #percentage of frames on which dir changes
):
self.segments = []
self.segWidth = dutyCycle * 360.0 / nSegs
self.radialRate = radialRate
self.changeProb = changeProb
phase = 0
for n in range(nSegs):
thisSeg = visual.RadialStim(
window,
pos=pos,
angularRes=360,
radialCycles=6,
angularCycles=0,
visibleWedge=[n * self.segWidth, (n + 1) * self.segWidth],
size=size,
texRes=64,
mask=[0.5])
self.segments.append(thisSeg)
def create_blade(degree, ori):
return visual.RadialStim(win=win,
color=1,
visibleWedge=[0, degree],
radialCycles=0,
angularCycles=90 // degree,
ori=ori,
size=1.5)
def __init__(self, rt_client, pport_addr):
# FieldTrip buffer stuff
self.rt_client = rt_client
self.recent_epochs_obj = biosemi_fieldtrip_recent_epochs(
self.rt_client, n_recent_event=10, event_types=[100, 200])
# where to send triggers
self.pport_addr = pport_addr
self.pport = windll.inpoutx64
# timers
self.timer1 = core.Clock()
self.timer2 = core.Clock()
# stimulus display stuff
self.mywin = visual.Window([800, 600],
monitor="testMonitor",
units="deg") # display window
self.right_cb = visual.RadialStim(self.mywin,
tex='sqrXsqr',
color=1,
size=5,
visibleWedge=[0, 180],
radialCycles=4,
angularCycles=8,
interpolate=False,
autoLog=False) # right checkerboard
self.left_cb = visual.RadialStim(self.mywin,
tex='sqrXsqr',
color=1,
size=5,
visibleWedge=[180, 360],
radialCycles=4,
angularCycles=8,
interpolate=False,
autoLog=False) # left checkerboard
self.fixation = visual.PatchStim(self.mywin,
color=-1,
colorSpace='rgb',
tex=None,
mask='circle',
size=0.2) # fixation
# events
self.ev_list = []
def blade_object(degree, ori):
"""each fan is made up of wedges or "blades"
this function creates a single blade based on its size (degree) and orientation"""
return visual.RadialStim(win=win,
color=1,
visibleWedge=[0, degree],
radialCycles=0,
angularCycles=90 // degree,
ori=ori,
size=1.5)
def __init__(self, win, side_len=8, inverted=False, size=700, **kwargs):
self.win = win
self.side_len = side_len
self.inverted = inverted
self.size = size
self._array = self._get_array()
self._stim = visual.RadialStim(win=self.win,
tex=self._array,
size=(self.size, self.size),
radialCycles=1,
**kwargs)
def make_radial(self):
stimulus = visual.RadialStim(
win=self.mywin,
size=(self.stim_width, self.stim_width),
angularCycles=12,
radialCycles=4
) # i think angular=12, radial=4 looks fairly good/balanced; increase to get more (smaller) squares
numFrames = self.stim_dur * 60 #multiply stim_dur (seconds) by 60 to get number of frames we need to present the stimulus for (assuming 60 Hz monitor)
marker = pdm.PhotodiodeMarker()
for frame in range(numFrames):
stimulus.draw()
marker.draw_marker(self.mywin)
self.mywin.flip()
def __init__(self):
self.circle = visual.Circle(setup.mywin, units='pix', size = var.circle_fullSize,
ori=0, pos=np.array([var.elX[0],var.elY[0]]), fillColor=var.gray2, fillColorSpace='rgb',
opacity =1, interpolate=True)
self.scale = visual.Line(setup.mywin, start=(0,0), end=(0,0))
self.clock = visual.RadialStim(setup.mywin,tex='sqrXsqr', mask='none', units='pix',
pos=(0, 240), size=(148, 148), radialCycles=1, angularCycles=1,
radialPhase=0, angularPhase=0, ori=0.0, texRes=64, angularRes=100,
visibleWedge=(0, 0), rgb=None, color=(1.0, 1.0, 1.0), colorSpace='rgb',
dkl=None, lms=None, contrast=0.0, opacity=1.0, depth=10, rgbPedestal=(1.0, 1.0, 1.0),
interpolate=False, name=None, autoLog=None, maskParams=None)
self.pressCircle = visual.Circle(setup.mywin, units='pix', size = 150,
ori=0, pos=(0, 240), fillColor=None, fillColorSpace='rgb',opacity =1, interpolate=True)
self.instruction = visual.TextStim(setup.mywin, units='pix', ori=0, name='Instructions',text=u'Block Name', font=u'Arial',
pos=[0, 0], height=30, wrapWidth=None,color=u'black', colorSpace='rgb', opacity=1,depth=-12.0,alignVert='center',alignHoriz='center')
self.survey_instr = visual.TextStim(setup.mywin, units='pix', ori=0, name='Instructions',text=u'Block Name', font=u'Arial',
pos=[0, 0], height=20, wrapWidth=None,color=u'black', colorSpace='rgb', opacity=1,depth=-12.0,alignVert='center',alignHoriz='center')
def __init__(self, win=None, params=None, exp_info=None, txt_ins=None, stimulus_list=None):
self.win = win
self.params = params
self.exp_info = exp_info
self.txt_ins = txt_ins
self.stimulus_list = stimulus_list
if self.params["EEG"] :
self.pport = PortParallel()
else :
self.pport = False
self.oddball_trials_structure = []
for i in range(4) :
self.oddball_trials_structure.append(get_oddball_list(self.params["N_deviant"]))
self.stim_trials_list = get_oddball_stim(self.stimulus_list, self.win, params["Stim_list_folder"])
# Either create the target or load an image as the target
if params[u"Oddball_target"] == "Cross" :
self.target = visual.RadialStim(self.win, tex=None, color=(0, 0, 0), colorSpace='rgb255', pos=(0, 0),
units='pix', size=(35, 35), mask=[0, 0, 0, 0, 0, 0, 1, 1], radialCycles=0,
angularCycles=0, opacity=1, contrast=1.0, interpolate=False)
self.fixation_cross_horizontal = visual.Line(win=self.win, units="pix", lineColor=[-1, -1, -1],
lineWidth=4, start=(-15, 0), end=(+15, 0))
self.fixation_cross_vertical = visual.Line(win=self.win, units="pix", lineColor=[-1, -1, -1],
lineWidth=4, start=(0, -15), end=(0, +15))
else :
self.target = visual.ImageStim(self.win, image=params[u"Oddball_target"])
#Create data handler
file_name = exp_info['Exp'] + "_Version" + exp_info['Version'] + "_" + exp_info["Name"] + "_Oddball"
self.oddball_data = data.ExperimentHandler(name='Oddball',
version=exp_info['Version'],
extraInfo=exp_info,
runtimeInfo=None,
savePickle=False,
saveWideText=True,
dataFileName=params["Oddball_saving_path"]+file_name,
autoLog=True)
def __init__(
self,
window,
size,
pos=[0, 0],
dutyCycle=0.25,
nRings=4,
angularRate=1, #phase shift per frame (degs)
changeProb=0.01, #percentage of frames on which dir changes
):
self.rings = []
self.ringWidth = dutyCycle / nRings
self.angularRate = angularRate
self.changeProb = changeProb
self.nRings = nRings
self.pos = pos
self.size = size
self.radialPhase = 0
self._oneCycle = num.arange(0, 1.0, 1 / 128.0)
self._oneCycle = num.where(self._oneCycle <= self.ringWidth, 1, 0)
for n in range(nRings):
thisStart = self.radialPhase + n * self.ringWidth
theseIndices = num.arange(thisStart, thisStart + 1,
1 / 128.0) % 1.0
theseIndices = (theseIndices * 128).astype(num.uint8)
thisMask = self._oneCycle[theseIndices]
thisRing = visual.RadialStim(
window,
pos=self.pos,
angularRes=360,
radialCycles=0,
angularCycles=16,
size=self.size,
texRes=64,
mask=thisMask,
)
self.rings.append(thisRing)
def MakeColorWheel():
global color_wheel, color_select, color_dir
#Color wheel directions
color_dir = visual.TextStim(win,
height=0.7,
wrapWidth=28,
color='black',
pos=(-1, 8),
text='''
Use the mouse to select the color of the screen at the end of the interval.
''')
#Create array of colors in hsv
hsv = numpy.ones([256, 256, 3], dtype=float)
hsv[:, :, 0] = numpy.linspace(0, 360, 256, endpoint=False)
hsv[:, :, 1] = 1
hsv[:, :, 2] = 1
#Create color wheel
color_wheel = visual.RadialStim(win,
tex=misc.hsv2rgb(hsv),
angularCycles=1,
interpolate=True,
texRes=360,
size=(10, 10),
pos=(-8, 0))
#Create color selection box
color_select = visual.Rect(win,
width=10,
height=10,
pos=(5, 0),
lineColor='black',
fillColor='white')
def test_radial(self):
if self.win.winType == 'pygame':
pytest.skip("RadialStim dodgy on pygame")
win = self.win
#using init
wedge = visual.RadialStim(win,
tex='sqrXsqr',
color=1,
size=2 * self.scaleFactor,
visibleWedge=[0, 45],
radialCycles=2,
angularCycles=2,
interpolate=False,
autoLog=False)
wedge.draw()
thresh = 10
utils.compareScreenshot('wedge1_%s.png' % (self.contextName),
win,
crit=thresh)
win.flip() #AFTER compare screenshot
#using .set()
wedge.setMask('gauss', log=False)
wedge.setSize(3 * self.scaleFactor, log=False)
wedge.setAngularCycles(3, log=False)
wedge.setRadialCycles(3, log=False)
wedge.setOri(180, log=False)
wedge.setContrast(0.8, log=False)
wedge.setOpacity(0.8, log=False)
wedge.setRadialPhase(0.1, operation='+', log=False)
wedge.setAngularPhase(0.1, log=False)
wedge.draw()
str(wedge) #check that str(xxx) is working
utils.compareScreenshot('wedge2_%s.png' % (self.contextName),
win,
crit=10.0)
texture2 = ally * allx # only one quarter of the full sinusoid
texture2 = numpy.where(texture2 > 0, 1, -1)
#print('TEST0')
# plot results
#plt.imshow(texture)
#plt.show()
#plt.imshow(texture2)
#plt.show()
# make checkerboard stimuli
check1 = visual.RadialStim(win,
tex=texture,
color=1,
size=params['checkSize'],
visibleWedge=[0, 360],
radialCycles=1,
angularCycles=1,
interpolate=False)
check2 = visual.RadialStim(win,
tex=-texture,
color=1,
size=params['checkSize'],
visibleWedge=[0, 360],
radialCycles=1,
angularCycles=1,
interpolate=False)
# make text messages
message1 = visual.TextStim(win,
pos=[0, 0],
win = visual.Window([screenSize[0], screenSize[0]],
fullscr=False,
allowGUI=False,
monitor='testMonitor',
screen=screen_to_show,
units='pix')
# STIMULI PARAMETERS
#=========================
stimA = visual.RadialStim(win,
tex="sqrXsqr",
ori=0,
color=1,
mask="none",
units='deg',
pos=(0, 0),
texRes=256,
angularRes=200,
size=[100, 100],
visibleWedge=[0, 360],
radialCycles=35,
angularCycles=12,
name='stimA')
stimAInt = visual.RadialStim(win,
tex="sqrXsqr",
ori=0,
color=1,
mask="none",
units='deg',
pos=(0, 0),
texRes=256,
angularRes=200,
def risk_choice(lot_col,lot_m,lot_p,lot_left,sure_m):
event.clearEvents()
print([lot_left,lot_p,lot_m,lot_col,sure_m])
if lot_col=='red':
col_code=[1,0,0]
elif lot_col=='green':
col_code=[0,1,0]
else:
col_code=[0,0,1]
if lot_left:
lot_pos=-300
sure_pos=(300,0)
else:
lot_pos=300
sure_pos=(-300,0)
tmp_div=np.divide(lot_p,100.00)
shade=np.multiply(360.00,tmp_div)+1
print(shade)
Outline= visual.RadialStim( win=win, name='OUTLINE', color=col_code,opacity=1,
angularCycles = 0, radialCycles = 0, radialPhase = 0.5, colorSpace = 'rgb',
ori= 45.0, pos=(lot_pos,0), size=(400,400))
Outline2= visual.RadialStim( win=win, name='OUTLINE_in', color=[0,0,0],opacity=1,
angularCycles = 0, radialCycles = 0, radialPhase = 0.5, colorSpace = 'rgb',
ori= 45.0, pos=(lot_pos,0), size=(380,380))
Outline.draw()
Outline2.draw()
Lot_a_win=visual.RadialStim(win=win,units="pix",name='Lot', color=col_code,opacity=1,
angularCycles = 0, radialCycles = 0, radialPhase = 0.5, colorSpace = 'rgb',
ori= -90.0,pos=(lot_pos,0), size=(300,300),visibleWedge=(0.0, shade))
Lot_a_lose= visual.RadialStim( win=win, name='rad2', color=col_code,opacity=0.5,
angularCycles = 0, radialCycles = 0, radialPhase = 0.5, colorSpace = 'rgb',
ori= 45.0, pos=(lot_pos,0), size=(300,300))
Lot_a_lose.draw()
Lot_a_win.draw()
SureMoney=visual.TextStim(win=win,text="$ %s"%(sure_m),pos=sure_pos,bold=True,units='pix')
SureMoney.draw()
Lot_per=visual.TextStim(win=win,text="%s %%"%(lot_p),pos=(lot_pos,-50),bold=True,units='pix')
Lot_Money=visual.TextStim(win=win,text="$ %s"%(lot_m),pos=(lot_pos,50),bold=True,units='pix')
Lot_per.draw()
Lot_Money.draw()
focus=visual.TextStim(win=win,text='+')
focus.draw()
win.flip()
timer.reset()
core.wait(0.3)
keys=event.waitKeys(keyList=['f', 'j','escape'],maxWait=4.5)
RT=timer.getTime()
if not keys:
keys='No_resp'
RT=10
wait_sec=5-RT
focus.draw()
win.flip()
core.wait(wait_sec)
core.wait(0.3)
return keys,RT
def Amb_choice(lot_left,lot_p,money,lot_col,Amb_level):
event.clearEvents()
print([lot_left,lot_p,money,lot_col,Amb_level])
if lot_col=='red':
col_code=[1,0,0]
elif lot_col=='green':
col_code=[0,1,0]
elif lot_col=='blue':
col_code=[0,0,1]
else:
col_code=[1,1,0]
if lot_left:
lot_pos=-300
amb_pos=300
else:
lot_pos=300
amb_pos=-300
tmp_div=np.divide(lot_p,100.00)
shade=np.multiply(360.00,tmp_div)+1
tmp_div=np.divide(Amb_level,100.00)
amb_shade=np.multiply(360.00,tmp_div)+1
print(shade)
# The risky lottery has 3 parts. The Outline Win ammount. & Lose Amount
R_Outline= visual.RadialStim( win=win, name='OUTLINE', color=[1,1,1],opacity=1,
angularCycles = 0, radialCycles = 0, radialPhase = 0.5, colorSpace = 'rgb',
ori= 45.0, pos=(lot_pos,0), size=(400,400))
R_Outline2= visual.RadialStim( win=win, name='OUTLINE_in', color=[0,0,0],opacity=1,
angularCycles = 0, radialCycles = 0, radialPhase = 0.5, colorSpace = 'rgb',
ori= 45.0, pos=(lot_pos,0), size=(380,380))
R_Outline.draw()
R_Outline2.draw()
Lot_a_win=visual.RadialStim(win=win,units="pix",name='Lot', color=[-1,-1,-1],opacity=1,
angularCycles = 0, radialCycles = 0, radialPhase = 0.5, colorSpace = 'rgb',
ori= -90.0,pos=(lot_pos,0), size=(300,300),visibleWedge=(0.0, shade))
Lot_a_lose= visual.RadialStim( win=win, name='rad2', color=[1,1,1],opacity=0.5,
angularCycles = 0, radialCycles = 0, radialPhase = 0.5, colorSpace = 'rgb',
ori= 45.0, pos=(lot_pos,0), size=(300,300))
Lot_a_lose.draw()
Lot_a_win.draw()
#The Ambiguous Lottery has 4 parts the Outline, Win shade, Lose Shade, & ambiguity shade
if Amb_level==75:
orn=45
else:
orn=90
A_Outline= visual.RadialStim( win=win, name='OUTLINE', color=col_code,opacity=1,
angularCycles = 0, radialCycles = 0, radialPhase = 0.5, colorSpace = 'rgb',
ori= 0, pos=(amb_pos,0), size=(400,400))
A_Outline2= visual.RadialStim( win=win, name='OUTLINE_in', color=[0,0,0],opacity=1,
angularCycles = 0, radialCycles = 0, radialPhase = 0.5, colorSpace = 'rgb',
ori= 0, pos=(amb_pos,0), size=(380,380))
A_Outline.draw()
A_Outline2.draw()
A_win=visual.RadialStim(win=win,units="pix",name='Lot', color=col_code,opacity=1,
angularCycles = 0, radialCycles = 0, radialPhase = 0.5, colorSpace = 'rgb',
ori= 0,pos=(amb_pos,0), size=(300,300),visibleWedge=(0.0,180))
A_lose = visual.RadialStim( win=win, name='rad2', color=col_code,opacity=0.3,
angularCycles = 0, radialCycles = 0, radialPhase = 0.5, colorSpace = 'rgb',
ori= 0, pos=(amb_pos,0), size=(300,300))
cover= visual.RadialStim( win=win, name='rad2', color=[0.2,0.2,0.2],opacity=1,
angularCycles = 0, radialCycles = 0, radialPhase = 0.5, colorSpace = 'rgb',
ori=orn, pos=(amb_pos,0), size=(300,300),visibleWedge=(0.0,amb_shade))
A_lose.draw()
A_win.draw()
cover.draw()
#AmbMoney=visual.TextStim(win=win,text="$ %s"%(money),pos=(amb_pos,50),bold=True)
#AmbMoney.draw()
am_per_text="%s %% - %s %%"%(50-np.divide(Amb_level,2),50+np.divide(Amb_level,2))
AmbPer=visual.TextStim(win=win,text=am_per_text,pos=(amb_pos,-50),bold=True)
AmbPer.draw()
Lot_per=visual.TextStim(win=win,text="%s %%"%(lot_p),pos=(lot_pos,-50),bold=True)
Lot_per.draw()
focus=visual.TextStim(win=win,text='+')
focus.draw()
Lot_Money=visual.TextStim(win=win,text="$ %s"%(money),pos=(0,50),bold=True)
Lot_Money.draw()
win.flip()
timer.reset()
maxwait=4
core.wait(0.3)
keys=event.waitKeys(keyList=['f', 'j','escape'],maxWait=maxwait)
RT=timer.getTime()
print(RT)
if lot_col==lot_color[0]:
dist='wide'
elif lot_col==lot_color[1]:
dist='narrow'
elif lot_col==lot_color[2]:
dist='skew'
elif lot_col=='yellow':
dist='True_unkown'
if not keys:
keys='No_resp'
RT=maxwait
wait_sec=4.5-RT
focus.draw()
win.flip()
core.wait(wait_sec)
core.wait(0.3)
return keys,RT,dist
# Create a window to draw in
win = visual.Window((600, 600),
allowGUI=False,
monitor='testMonitor',
units='deg',
blendMode='avg',
allowStencil=True)
nTrials = 10
# Initialize some stimuli
# create the mask we will draw the stimulus through - can only use one so draw one annulus and we will rotate it
mask = visual.RadialStim(
win,
tex='none',
color=1,
size=1,
visibleWedge=[2, 178],
radialCycles=4,
angularCycles=8,
interpolate=False,
autoLog=False) # this stim changes too much for autologging to be useful
# gratings for plaid stimulus
grating1 = visual.GratingStim(win,
tex="sin",
mask="circle",
texRes=512,
color='white',
size=10,
sf=2,
ori=45,
depth=0.5,
opacity=0.5,
#!/usr/bin/env python2
#rotate flashing wedge
from psychopy import visual, event, core
globalClock = core.Clock()
win = visual.Window([800, 800])
#make two wedges (in opposite contrast) and alternate them for flashing
wedge1 = visual.RadialStim(
win,
tex='sqrXsqr',
color=1,
size=1,
visibleWedge=[0, 45],
radialCycles=4,
angularCycles=8,
interpolate=False,
autoLog=False) #this stim changes too much for autologging to be useful
wedge2 = visual.RadialStim(
win,
tex='sqrXsqr',
color=-1,
size=1,
visibleWedge=[0, 45],
radialCycles=4,
angularCycles=8,
interpolate=False,
autoLog=False) #this stim changes too much for autologging to be useful
t = 0
rotationRate = 0.01 #revs per sec
flashPeriod = 0.1 #seconds for one B-W cycle (ie 1/Hz)
while t < 5: #for 5 secs
def constructThickThinWedgeRingsTargetAndCue(
myWin, initialAngle, radius, radialMask, radialMaskTarget,
cueRadialMask, visibleWedge, numObjects, patchAngleThick,
patchAngleThin, bgColor, thickWedgeColor, thinWedgeColor,
targetAngleOffset, targetRadialOffset, gratingTexPix, cueColor,
objToCue, ppLog):
#Construct a grating formed of the colors in order of stimColorIdxsOrder
#Also construct a similar cueRing grating with same colors, but one blob potentially highlighted.
#cueRing Has different spacing than ringRadial, not sure why, I think because calculations tend to be off as it's
#always one cycle.
#radialMask doesn't seem to eliminate very-central part, bizarre
antialiasGrating = False #Don't set this to true because in present context, it's like imposing a radial Gaussian ramp on each object
autoLogging = False
numCycles = numObjects
segmentAngle = 360. / numCycles
#create texture for red-green-blue-red-green-blue etc. radial grating
#2-D texture which will draw the ring of objects via openGL texture on grating
ringTex = np.zeros([
gratingTexPix, gratingTexPix, 3
]) + bgColor[0] #start with all channels in all locs = bgColor
cueTex = np.zeros([
gratingTexPix, gratingTexPix, 3
]) + bgColor[0] #start with all channels in all locs = bgColor
decoyTex = np.zeros([
gratingTexPix, gratingTexPix, 3
]) + bgColor[0] #start with all channels in all locs = bgColor
oneCycleAngle = 360. / numCycles
def patchSizeForTexture(segmentAngle, patchAngle, oneCycleAngle,
gratingTexPix):
segmentSizeTexture = segmentAngle / oneCycleAngle * gratingTexPix #I call it segment because includes spaces between objects, that I'll write over subsequently
if patchAngle > segmentAngle:
msg = 'Error: patchAngle requested (' + str(
patchAngle) + ') bigger than maximum possible (' + str(
segmentAngle) + ') numCycles=' + str(numCycles)
print(msg)
ppLog.error(msg)
patchSizeTexture = patchAngle * 1.0 / oneCycleAngle * gratingTexPix
patchSizeTexture = round(
patchSizeTexture) #best is odd number, even space on either size
patchFlankSize = int((segmentSizeTexture - patchSizeTexture) /
2.) #this area will be drawn in bgColor
patchAngleActual = patchSizeTexture * 1.0 / gratingTexPix * oneCycleAngle
if abs(patchAngleActual - patchAngle) > .03:
msg = 'Desired patchAngle = ' + str(
patchAngle) + ' but closest can get with ' + str(
gratingTexPix) + ' gratingTexPix is ' + str(
patchAngleActual)
ppLog.warn(msg)
return segmentSizeTexture, patchSizeTexture, patchFlankSize
#thick wedges. Create texture for visual.radialStim
segmentSizeTexture, patchSizeTexture, patchFlankSize = patchSizeForTexture(
segmentAngle, patchAngleThick, oneCycleAngle, gratingTexPix)
start = 0 #identify starting texture position for this segment
end = int(round(start + segmentSizeTexture)
) #don't round until after do addition, otherwise can fall short
angRes = 200 #100 is default. I have not seen an artifact at present when set to 100, two things drawn don't overlap exactly
#First draw the entire segment in patchColr, then erase sides (flankers) leaving only the patchAngle
ringTex[:, start:end, :] = thickWedgeColor[:]
#spaces in between objects are termed the flanks, should be bgColor,
ringTex[:, start:start + patchFlankSize, :] = bgColor[:] #one flank
ringTex[:, end - 1 - patchFlankSize:end, :] = bgColor[:] #other flank
#thin wedges. Create texture for visual.radialStim
segmentSizeTexture, thinWedgeSizeTexture, patchFlankSizeThinWedge = patchSizeForTexture(
segmentAngle, patchAngleThin, oneCycleAngle, gratingTexPix)
#Instead of drawing the red and undisplaced blue with the same call to radialStim,
#We will draw the red with one call to radialStim, then the thinner blue sliver on top, using radialMask so it's only the sliver and leaves the
#remainder of the red showing.
#First draw the thick red contexts thickWedges
ringRadialThickWedges = visual.RadialStim(
myWin,
tex=ringTex,
color=[1, 1, 1],
size=
radius, #ringTex is the actual colored pattern. radial grating used to make it an annulus
visibleWedge=visibleWedge,
ori=initialAngle, #essentially the phase of the grating
mask=
radialMask, # this is a 1-D mask masking the centre, to create an annulus
radialCycles=0,
angularCycles=numObjects,
angularRes=angRes,
interpolate=antialiasGrating,
autoLog=autoLogging)
#thinWedge, the usually-blue target
#First draw the entire segment in thinWedgeColor, then erase sides (flankers) leaving only the patchAngle (wedge angle)
thinRingTex = np.zeros([
gratingTexPix, gratingTexPix, 3
]) + bgColor[0] #start with all channels in all locs = bgColor
thinRingTex[:, start:end, :] = thinWedgeColor[:]
#spaces in between objects are termed the flanks, should be bgColor,
thinRingTex[:, start:start + patchFlankSize, :] = bgColor[:] #one flank
thinRingTex[:, end - 1 - patchFlankSize:end, :] = bgColor[:] #other flank
ringRadialThinWedges = visual.RadialStim(
myWin,
tex=thinRingTex,
color=[1, 1, 1],
size=
radius, #ringTex is the actual colored pattern. radial grating used to make it an annulus
visibleWedge=visibleWedge,
ori=initialAngle, #essentially the phase of the grating
mask=
radialMaskTarget, # this is a 1-D mask masking the centre, to create an annulus
radialCycles=0,
angularCycles=numObjects,
angularRes=angRes,
interpolate=antialiasGrating,
autoLog=autoLogging)
#Draw target (task is to judge offset of thin wedge relative to thick wedge, or brightness of target)
#So, overdraw a single segment of the grating by using visibleWedge
#angularPhase =
#I need to not show the part of the thick wedge that will be displaced, while showing enough of thick wedge to overdraw previous location of thin wedge
targetCorrectedForRingReversal = objToCue #numObjects-1 - objToCue #grating seems to be laid out in opposite direction than blobs, this fixes postCueNumBlobsAway so positive is in direction of motion
kludgeWiden = 5
visibleAngleStart = targetCorrectedForRingReversal * segmentAngle + (
segmentAngle - patchAngleThick) / 2 - kludgeWiden
visibleAngleEnd = (visibleAngleStart +
kludgeWiden) + patchAngleThick + kludgeWiden
#print('targetCorrectedForRingReversal = ',targetCorrectedForRingReversal,'targetRing initialAngle=', initialAngle, ' visibleAngleStart=',visibleAngleStart,' visibleAngleEnd=',visibleAngleEnd)
if targetAngleOffset >= 0:
visibleAngleEnd -= targetAngleOffset #don't show the part of the thick wedge that would be displaced
else: #shifted the other way, towards the start, so spillover on that side needs to be avoided by not drawing it
visibleAngleStart -= targetAngleOffset
#DRAW THE TARGET RING, like the above ringRadial except displaced
#Below call is identical to ringRadial except ori
#set visibleWedge so it only highlights a single thick wedge
targetRadial = visual.RadialStim(
myWin,
tex=thinRingTex,
color=[1, 1, 1],
size=radius +
targetRadialOffset, #ringTex is the actual colored pattern. radial grating used to make it an annulus
visibleWedge=[visibleAngleStart, visibleAngleEnd],
ori=initialAngle +
targetAngleOffset, #Always zero in the new version where the task is to judge the radial offset of the blue thin wedge
mask=
radialMaskTarget, # this is a 1-D mask masking the centre, to create an annulus
radialCycles=0,
angularCycles=numObjects,
angularRes=angRes,
interpolate=antialiasGrating,
autoLog=autoLogging)
#MAKE A COPY of the thick red ring to draw over undisplaced blue
ringRadialThickWedgesCopy = visual.RadialStim(
myWin,
tex=ringTex,
color=[1, 1, 1],
size=
radius, #ringTex is the actual colored pattern. radial grating used to make it an annulus
visibleWedge=(visibleAngleStart, visibleAngleEnd),
ori=initialAngle,
mask=
radialMask, # this is a 1-D mask masking the centre, to create an annulus
radialCycles=0,
angularCycles=numObjects,
angularRes=angRes,
interpolate=antialiasGrating,
autoLog=autoLogging)
#Draw lines (alternative target)
lines = []
#calculate estimated eccentricity that grating target would be at, if were using grating targets
#Find the center of the ones in radialMaskTarget, multiply by grating radius
oneIndices = np.where(radialMaskTarget == 1)[0]
oneIndexMean = np.mean(oneIndices)
proportnOfRadius = oneIndexMean / len(radialMaskTarget)
proportnOfRadius += 0.5 * 1 / len(
radialMaskTarget
) #Because grating mask doesn't work with centering, rather it's the beginning or something so need to add to get to center of wedge
eccentricity = proportnOfRadius * radius
eccentricity = eccentricity / 1.97 #Don't know why need to divide by almost 2
#print("oneIndexMean = ", oneIndexMean, "proportnOfRadius = ", proportnOfRadius, "eccentricity = ", eccentricity)
#Calculate appropriate line width in deg
wedgeThicknessFraction = len(
np.where(radialMask)[0]) * 1.0 / len(radialMask)
wedgeThickness = wedgeThicknessFraction * radius / 2
targeti = targetCorrectedForRingReversal % numObjects # (targetCorrectedForRingReversal-1) % numObjects #dont know why have to subtract 1. Then have to mod numObjects so negative number gets turned into positive
targetFillColors = np.array([[.9, .9, .9], [-.8, -.8,
-.8]]) # [-.3,-.3,-.3]
if sys.version_info[0] == 3: #python3
rangeOverObjects = range(0, numObjects)
else: #python2
rangeOverObjects = xrange(0, numObjects)
for i in rangeOverObjects:
lineHeight = wedgeThickness * 1.0 # *1.0
lineWidth = lineHeight / 4 #divided by 10 makes it really small alex size, with div 4 being same as E2
angleDeg = initialAngle
angleDeg += (
visibleAngleStart + visibleAngleEnd
) / 2 #because when gratings are drawn, there's this additional offset for which bit of the grating is visible
angleDeg += i / numObjects * 360
tangentialOrientation = i / numObjects * 360
if __name__ != "__main__": #not self-test
halfAngle = 360 / numObjects / 2 #For some reason target is offset by half the distance between two objects, even though that doesn't happen in helpersAOH self-test
tangentialOrientation += halfAngle
x = cos(gratingAngleToEuclidean(angleDeg) * pi / 180) * eccentricity
y = sin(gratingAngleToEuclidean(angleDeg) * pi / 180) * eccentricity
lineColor = targetFillColors[0]
if i == targeti:
#print("line targeti=", targeti, " angleDeg=",angleDeg, "Euclidean angle=",gratingAngleToEuclidean(angleDeg) )
orientation = tangentialOrientation
if targetRadialOffset < 0: #it's always one of two values, a negative one and a positive one
#orientation = tangentialOrientation + 90
lineColor = targetFillColors[1] #opposite color
else:
#orientation = tangentialOrientation + random.randint(0,1)*90
lineColor = targetFillColors[random.randint(0, 1)]
#if orientation==tangentialOrientation: #make bigger because harder to see
# lineHeight *= 1.4 #for tangential, make longer
#else: lineHeight *=.8
#print("Drawing line ",i," at x=",x, " y=", y, "targetCorrectedForRingReversal=", targetCorrectedForRingReversal )
#thisLine = visual.Rect(myWin, width=lineWidth, height=lineHeight, pos=(x,y), ori=orientation, fillColor=lineColor, lineColor=None, autoLog=autoLogging)
thisLine = visual.Circle(myWin,
radius=lineWidth,
pos=(x, y),
fillColor=lineColor,
lineColor=None,
autoLog=autoLogging)
lines.append(thisLine)
#CREATING CUE TEXTURE
#Both inner and outer cue arcs can be drawn in one go via a radial mask
#use visibleWedge so it only highlights a single thick wedge
start = 0 #identify starting texture position for this segment
#start:end is meant to be entire segment, but the flanks, patchFlank, are drawn in bgColor
#But remember this is a texture so maybe the first patchFlankSize portion is meant to be bg
start = patchFlankSize
end = start + segmentSizeTexture - 2 * patchFlankSize
start = int(round(start))
end = int(round(end))
decoyTex[:, start:end, :] = cueColor[:]
#Because I'm only showing a tiny sliver via visibleAngle, can color the whole thing
cueTex[:, :, :] = cueColor[:]
# start = 0 #identify starting texture position for this segment
# start = int( round( start+patchFlankSize ) )
# end = int( round(start + segmentSizeTexture - patchFlankSize) )#don't round until after do addition, otherwise can fall short
# cueTex[:, start:end, :] = cueColor[:]
# cueTex[:, :, :] = cueColor[:]
#draw cue
visibleAngleStart = 0
visibleAngleEnd = 360
if objToCue >= 0:
objToCueCorrectdForRingReversal = objToCue #numObjects-1 - objToCue #grating seems to be laid out in opposite direction than blobs, this fixes postCueNumBlobsAway so positive is in direction of motion
kludgeCueThickenToMatchDecoy = 3
visibleAngleStart = objToCueCorrectdForRingReversal * segmentAngle + (
segmentAngle - patchAngleThick) / 2 - kludgeCueThickenToMatchDecoy
visibleAngleEnd = visibleAngleStart + patchAngleThick + kludgeCueThickenToMatchDecoy + 2
#print('objToCueCorrectdForRingReversal = ',objToCueCorrectdForRingReversal,' visibleAngleStart=',visibleAngleStart,' visibleAngleEnd=',visibleAngleEnd)
#decoyRing is optional ring to show a precue around all object positions, to eventually be replaced by a ring around only the target object
decoyRing = visual.RadialStim(
myWin,
tex=decoyTex,
color=[1, 1, 1],
size=radius, #cueTexInner is white. Only one sector of it shown by mask
ori=initialAngle,
mask=cueRadialMask,
radialCycles=0,
angularCycles=numObjects,
angularRes=angRes,
interpolate=antialiasGrating,
autoLog=autoLogging)
cueRing = visual.RadialStim(
myWin,
tex=cueTex,
color=[1, 1, 1],
size=radius, #cueTexInner is white. Only one sector of it shown by mask
visibleWedge=[visibleAngleStart, visibleAngleEnd],
ori=initialAngle,
mask=cueRadialMask,
radialCycles=0,
angularCycles=
1, #only one cycle because no pattern actually repeats- trying to highlight only one sector
angularRes=angRes,
interpolate=antialiasGrating,
autoLog=autoLogging)
return ringRadialThickWedges, ringRadialThickWedgesCopy, ringRadialThinWedges, targetRadial, cueRing, lines, decoyRing
def constructRingsAsGratings(myWin, numRings, radii, ringRadialMaskEachRing,
numObjects, patchAngle, colors,
stimColorIdxsOrder, gratingTexPix,
blobToCueEachRing, ppLog):
#Originally to construct a grating formed of the colors in order of stimColorIdxsOrder
antialiasGrating = True
autoLogging = False
texEachRing = list(
) #texture which will draw the ring of objects via openGL texture on grating
cueTexEachRing = list(
) #making a separate grating for the cue, wherein everything background color except the location of the cue
ringsRadial = list()
#after making the rings of object, put them in this list
cueRings = list() #after making grating for each cue, put it in this cue
stimColorIdxsOrder = stimColorIdxsOrder[::
-1] #reverse order of indices, because grating texture is rendered in reverse order than is blobs version
radialMaskEachRing = [[
0,
0,
0,
1,
1,
], [
0,
0,
0,
0,
0,
0,
1,
1,
], [
0,
0,
0,
0,
0,
0,
0,
0,
0,
0,
1,
1,
]]
numUniquePatches = len(max(stimColorIdxsOrder, key=len))
numCycles = (1.0 * numObjects) / numUniquePatches
angleSegment = 360. / (numUniquePatches * numCycles)
if gratingTexPix % numUniquePatches > 0: #gratingTexPix contains numUniquePatches. numCycles will control how many total objects there are around circle
ppLog.warn('Warning: could not exactly render a ' +
str(numUniquePatches) +
'-segment pattern radially, will be off by ' +
str((gratingTexPix % numUniquePatches) * 1.0 /
gratingTexPix))
if numObjects % numUniquePatches > 0:
msg = 'Warning: numUniquePatches (' + str(
numUniquePatches) + ') not go evenly into numObjects'
ppLog.warn(msg)
#create texture for red-green-blue-red-green-blue etc. radial grating
for i in range(numRings):
#myTex.append(np.zeros([gratingTexPix,gratingTexPix,3])+[1,-1,1])
texEachRing.append(
np.zeros([gratingTexPix, gratingTexPix, 3]) +
bgColor[0]) #start with all channels in all locs = bgColor
cueTexEachRing.append(
np.ones([gratingTexPix, gratingTexPix, 3]) * bgColor[0])
if patchAngle > angleSegment:
msg = 'Error: patchAngle requested (' + str(
patchAngle) + ') bigger than maximum possible (' + str(
angleSegment) + ') numUniquePatches=' + str(
numUniquePatches) + ' numCycles=' + str(numCycles)
print(msg)
ppLog.error(msg)
oneCycleAngle = 360. / numCycles
segmentSizeTexture = angleSegment / oneCycleAngle * gratingTexPix #I call it segment because includes spaces in between, that I'll write over subsequently
patchSizeTexture = patchAngle / oneCycleAngle * gratingTexPix
patchSizeTexture = round(
patchSizeTexture) #best is odd number, even space on either size
patchFlankSize = (segmentSizeTexture - patchSizeTexture) / 2.
patchAngleActual = patchSizeTexture / gratingTexPix * oneCycleAngle
if abs(patchAngleActual - patchAngle) > .03: #.01
msg = 'Desired patchAngle = ' + str(
patchAngle) + ' but closest can get with ' + str(
gratingTexPix) + ' gratingTexPix is ' + str(patchAngleActual)
ppLog.warn(msg)
for colrI in range(
numUniquePatches): #for that portion of texture, set color
start = colrI * segmentSizeTexture
end = start + segmentSizeTexture
start = round(
start
) #don't round until after do addition, otherwise can fall short
end = round(end)
ringColr = list()
for i in range(numRings):
ringColr.append(colors[stimColorIdxsOrder[i][colrI]])
for colorChannel in range(3):
for i in range(numRings):
texEachRing[i][:, start:end,
colorChannel] = ringColr[i][colorChannel]
for cycle in range(int(round(numCycles))):
base = cycle * gratingTexPix / numCycles
for i in range(numRings):
cueTexEachRing[i][:, base + start / numCycles:base +
end / numCycles,
colorChannel] = ringColr[1][colorChannel]
#draw bgColor area (emptySizeEitherSideOfPatch) by overwriting first and last entries of segment
for i in range(numRings):
texEachRing[i][:, start:start + patchFlankSize, :] = bgColor[0]
#one flank
texEachRing[i][:, end - 1 - patchFlankSize:end, :] = bgColor[0]
#other flank
for cycle in range(int(round(numCycles))):
base = cycle * gratingTexPix / numCycles
for i in range(numRings):
cueTexEachRing[i][:, base + start / numCycles:base +
(start + patchFlankSize) /
numCycles, :] = bgColor[0]
cueTexEachRing[i][:, base +
(end - 1 - patchFlankSize) / numCycles:base +
end / numCycles, :] = bgColor[0]
#color the segment to be cued white. First, figure out cue segment len
segmentLen = gratingTexPix / numCycles * 1 / numUniquePatches
WhiteCueSizeAdj = 0 # adust the white cue marker wingAdd 20110923
if numObjects == 3: WhiteCueSizeAdj = 110
elif numObjects == 6: WhiteCueSizeAdj = 25
elif numObjects == 12: WhiteCueSizeAdj = -15
elif numObjects == 2: WhiteCueSizeAdj = 200
for i in range(numRings): #color cue position white
if blobToCueEachRing[i] >= 0: #-999 means dont cue anything
blobToCueCorrectForRingReversal = numObjects - 1 - blobToCueEachRing[
i] #grating seems to be laid out in opposite direction than blobs, this fixes postCueNumBlobsAway so positive is in direction of motion
if blobToCueCorrectForRingReversal == 0 and numObjects == 12:
WhiteCueSizeAdj = 0
cueStartEntry = blobToCueCorrectForRingReversal * segmentLen + WhiteCueSizeAdj
cueEndEntry = cueStartEntry + segmentLen - 2 * WhiteCueSizeAdj
cueTexEachRing[i][:, cueStartEntry:cueEndEntry, :] = -1 * bgColor[
0] #-1*bgColor is that what makes it white?
blackGrains = round(
.25 * (cueEndEntry - cueStartEntry)
) #number of "pixels" of texture at either end of cue sector to make black. Need to update this to reflect patchAngle
cueTexEachRing[i][:, cueStartEntry:cueStartEntry +
blackGrains, :] = bgColor[0]
#this one doesn't seem to do anything?
cueTexEachRing[i][:, cueEndEntry - 1 -
blackGrains:cueEndEntry, :] = bgColor[0]
angRes = 100 #100 is default. I have not seen any effect. This is currently not printed to log file!
for i in range(numRings):
ringsRadial.append(
visual.RadialStim(
myWin,
tex=texEachRing[i],
color=[1, 1, 1],
size=radii[
i], #myTexInner is the actual colored pattern. radial grating used to make it an annulus
mask=ringRadialMaskEachRing[
i], # this is a 1-D mask dictating the behaviour from the centre of the stimulus to the surround.
radialCycles=0,
angularCycles=numObjects * 1.0 / numUniquePatches,
angularRes=angRes,
interpolate=antialiasGrating,
autoLog=autoLogging))
#the mask is radial and indicates that should show only .3-.4 as one moves radially, creating an annulus
#end preparation of colored rings
#draw cueing grating for tracking task. Have entire grating be empty except for one white sector
cueRings.append(
visual.RadialStim(
myWin,
tex=cueTexEachRing[i],
color=[1, 1, 1],
size=radii[
i], #cueTexInner is white. Only one sector of it shown by mask
mask=radialMaskEachRing[i],
radialCycles=0,
angularCycles=
1, #only one cycle because no pattern actually repeats- trying to highlight only one sector
angularRes=angRes,
interpolate=antialiasGrating,
autoLog=autoLogging)
) #depth doesn't seem to work, just always makes it invisible?
currentlyCuedBlobEachRing = blobToCueEachRing #this will mean that don't have to redraw
return ringsRadial, cueRings, currentlyCuedBlobEachRing
useFBO=True,
)
# store frame rate of monitor if we can measure it successfully
expInfo['frameRate'] = win.getActualFrameRate()
if expInfo['frameRate'] != None:
frameDur = 1.0 / round(expInfo['frameRate'])
else:
frameDur = 1.0 / 60.0 # couldn't get a reliable measure so guess
#make two wedges (in opposite contrast) and alternate them for flashing
wedgeRonC1 = visual.RadialStim(
win,
tex='sqrXsqr',
color=1,
size=2,
visibleWedge=[15, 165],
radialCycles=6,
angularCycles=10,
interpolate=False,
ori=0,
opacity=1,
autoLog=False) #this stim changes too much for autologging to be useful
wedgeRoffC1 = visual.RadialStim(
win,
tex='sqrXsqr',
color=-1,
size=2,
visibleWedge=[15, 165],
radialCycles=6,
angularCycles=10,
interpolate=False,
ori=0,
# Instantiating stimulation client
# Port number must match port number used to instantiate
# StimServer. Any port number above 1000 should be fine
# because they do not require root permission.
stim_client = StimClient('localhost', port=4218)
# create a window
mywin = visual.Window([800, 600], monitor="testMonitor", units="deg")
# create the stimuli
# right checkerboard stimuli
right_cb = visual.RadialStim(mywin, tex='sqrXsqr', color=1, size=5,
visibleWedge=[0, 180], radialCycles=4,
angularCycles=8, interpolate=False,
autoLog=False)
# left checkerboard stimuli
left_cb = visual.RadialStim(mywin, tex='sqrXsqr', color=1, size=5,
visibleWedge=[180, 360], radialCycles=4,
angularCycles=8, interpolate=False,
autoLog=False)
# fixation dot
fixation = visual.PatchStim(mywin, color=-1, colorSpace='rgb', tex=None,
mask='circle', size=0.2)
# the most accurate method is using frame refresh periods
# however, since the actual refresh rate is not known
# we use the Clock
from psychopy import visual, core, event
import time
mywin = visual.Window([1200,1200],monitor="testMonitor", units="deg", winType = 'glfw',)
wedge = visual.RadialStim(win = mywin, size =(30, 30),
radialCycles = 0,
angularCycles = 4)
counter_win = visual.Window([300,300],monitor="testMonitor", units="cm", winType = 'glfw',)
counter = visual.TextStim(counter_win, text = str(0), height = 8)
counter.autoDraw = True
start_time = time.time()
direction = 1
dir_time = 2
dir_change_number = 0
while True:
time.sleep(0.0001)
if time.time() - (start_time + ((dir_change_number + 1) * dir_time)) > 0:
dir_change_number += 1
direction *= -1
counter.setText(str(dir_change_number))
wedge.angularPhase += direction *.005
wedge.draw()