from smile.state import Parallel, Wait, Serial, Meanwhile, Loop, Debug
from smile.audio import Beep, SoundFile, init_audio_server
import os
init_audio_server(sr=44100,
nchnls=1,
buffersize=256,
duplex=1,
audio='portaudio',
jackname='pyo',
input_device=None,
output_device=None)
exp = Experiment(debug=True)
Wait(1.0)
with Loop([440, 500, 600, 880]) as l:
Beep(freq=l.current, volume=0.4, duration=1.0)
Debug(freq=l.current)
Beep(freq=[440, 500, 600], volume=0.1, duration=1.0)
Debug(freq=[440, 500, 600])
Beep(freq=880, volume=0.1, duration=1.0)
Debug(freq=880)
with Parallel():
Beep(freq=440, volume=0.1, duration=2.0)
Debug(freq=440)
with Serial():
Wait(1.0)
from smile.mouse import MouseRecord, MouseCursor, MousePress, MouseWithin
from smile.video import Label
def print_dt(state, *args):
print(args)
exp = Experiment(show_splash=True)
with Parallel():
MouseRecord()
MouseCursor()
with UntilDone():
Wait(2.0)
MouseCursor("smile/face-smile.png", (125, 125), duration=5.0)
with Parallel():
lbl1 = Label(text="Click me", blocking=False)
with Loop(10):
Debug(mw=MouseWithin(lbl1))
Wait(1.0)
Debug(name='Mouse Press Test')
exp.last_pressed = ''
with Loop(conditional=(exp.last_pressed != 'RIGHT')):
kp = MousePress(buttons=['LEFT', 'RIGHT'], correct_resp='RIGHT')
Debug(pressed=kp.pressed, rt=kp.rt, correct=kp.correct)
envelope='Circular',
std_dev=7.5,
contrast=0.75,
color_one='green',
color_two='orange')
lbl = Label(text='Grating!', bottom=g.top)
with UntilDone():
# kp = KeyPress()
with Parallel():
g.slide(phase=-8 * math.pi,
frequency=10.,
bottom=exp.screen.bottom,
duration=6.)
g.slide(rotate=90, duration=2.0)
with Serial():
Wait(2.0)
lbl.slide(top=g.bottom, duration=4.)
with Parallel():
g = Grating(width=1000,
height=1000,
frequency=10,
envelope='Linear',
std_dev=20,
contrast=0.4,
color_one='blue',
color_two='red')
lbl = Label(text='Grating!', bottom=g.top)
with UntilDone():
kp = KeyPress()
with Parallel():
from smile.experiment import Experiment from smile.state import Wait, Debug from smile.video import Label from smile.freekey import FreeKey exp = Experiment() Wait(.5) fk = FreeKey(Label(text='XXXXXX', font_size=40), max_resp=1) Debug(responses=fk.responses) Label(text='Done', font_size=32, duration=2.0) fk2 = FreeKey(Label(text='??????', font_size=30)) Debug(responses=fk2.responses) Wait(1.0) exp.run()
Debug(width=exp.screen.width, height=exp.screen.height)
with Loop(5) as loop:
Log(a=1, b=2, c=loop.i, name="aaa")
Log({"q": loop.i, "w": loop.i}, x=4, y=2, z=1, name="bbb")
Log([{"q": loop.i, "w": n} for n in range(5)], x=4, y=2, z=1, name="ccc")
exp.for_the_thing = 3
dtt = DoTheThing(3, 4, name="first")
Debug(foo=dtt.foo, name="outside DoTheThing")
dtt = DoTheThing(3, 4, d="bbbbbbb", c=exp.for_the_thing)
Debug(foo=dtt.foo, name="outside DoTheThing")
with DoTheOtherThing():
PrintTraceback(name="top of body")
Wait(2.0)
PrintTraceback(name="bottom of body")
Wait(1.0)
dvt = _DelayedValueTest(1.0, 42)
Done(dvt)
Debug(dvt_out=dvt.value_out)
exp.bar = False
with Parallel():
with Serial():
Wait(2.0)
# force variable assignment
# to wait until correct time
Func(lambda: None)
exp.bar = True
def DoTheThing(self, a, b, c=7, d="ssdfsd"):
PrintTraceback(name="inside DoTheThing")
self.foo = c * 2
Wait(1.0)
Debug(a=a, b=b, c=c, d=d, foo=self.foo,
screen_size=self.exp.screen.size, name="inside DoTheThing")
from smile.experiment import Experiment
from smile.state import Debug, Wait, Log, Loop
from smile.pulse import Pulse
# set up default experiment
exp = Experiment()
with Loop(15):
pulse = Pulse(code='S1')
Wait(duration=1.0, jitter=1.0)
Log(name='pulse',
pulse_on=pulse.pulse_on,
pulse_code=pulse.code,
pulse_off=pulse.pulse_off)
# print something
Debug(width=exp.screen.width, height=exp.screen.height)
# run the exp
exp.run(trace=False)
chan_path='Dev1/ao1',
chan_des="mychan2")
NIPulse(
task1,
push_vals=[1.0],
width=0.10,
)
NIPulse(
task2,
push_vals=[.5],
width=0.10,
)
# Wait for the experiment to start!
Wait(2.)
with Parallel():
Label(text="We will now push 10 markers.", blocking=False)
with Loop(10, blocking=False):
ni1 = NIPulse(
task1,
push_vals=[1.0],
width=0.10,
)
Wait(1.0)
ni2 = NIPulse(
task2,
push_vals=[.5],
from smile.experiment import Experiment
from smile.state import Wait, Debug, Loop, UntilDone, Log, Meanwhile
from smile.keyboard import Key, KeyRecord, KeyPress
exp = Experiment()
with Meanwhile():
KeyRecord(name="record_all_key_presses")
Debug(name='Press T+G+D or SHIFT+Q+R')
Wait(until=((Key("T") & Key("G") & Key("D")) |
(Key("SHIFT") & Key("Q") & Key("R"))))
Debug(name='Key Press Test')
exp.last_pressed = ''
with Loop(conditional=(exp.last_pressed != 'K')):
kp = KeyPress(keys=['J', 'K'], correct_resp='K')
Debug(pressed=kp.pressed, rt=kp.rt, correct=kp.correct)
exp.last_pressed = kp.pressed
Log(pressed=kp.pressed, rt=kp.rt)
KeyRecord()
with UntilDone():
kp = KeyPress(keys=['J', 'K'], correct_resp='K')
Debug(pressed=kp.pressed, rt=kp.rt, correct=kp.correct)
Wait(1.0)
kp = KeyPress()
Debug(pressed=kp.pressed, rt=kp.rt, correct=kp.correct)
from smile.experiment import Experiment
from smile.state import Wait, Parallel, Loop
from smile.video import Label
from smile.socket_interface import init_socket_outlet, SocketPush
# Initialize the outlet
OUTLET = init_socket_outlet(uniq_ID='SocketMarket',
server='localhost',
port=1234)
exp = Experiment()
# Signal the beginning of the experiment.
SocketPush(socket=OUTLET, msg="<TRIGGER>300</TRIGGER>")
# Wait for the experiment to start!
Wait(2.)
with Parallel():
Label(text="We will now push 10 markers.", blocking=False)
with Loop(10, blocking=False):
# Create the push state
push_out = SocketPush(socket=OUTLET, msg="<TRIGGER>55</TRIGGER>")
# Log send_time if you want easy access
# Log(name="MARKERS",
# push_time=push_out.send_time)
Wait(1.)
"coherence": 0.5,
"direction": 0,
"direction_variance": 0,
"speed": 50,
"lifespan": .6,
"lifespan_variance": .5
}, {
"coherence": 0.1,
"direction": 180,
"direction_variance": 10,
"speed": 400,
"speed_variance": 200
}]]
exp = Experiment(background_color=("purple", .3))
Wait(.5)
g = MovingDots(radius=300,
scale=10,
num_dots=4,
motion_props=[{
"coherence": 0.25,
"direction": 0,
"direction_variance": 0
}, {
"coherence": 0.25,
"direction": 90,
"direction_variance": 0
}, {
"coherence": 0.25,
"direction": 180,