def sound_flushing_sound_wont_stop_bugfix():
note = Note('A')
start = time.time()
note.play(2)
time.sleep(1)
note.stop()
return verify_duration(start, 1)
def sound_play_test_sound_and_note_mixed():
n = Note('A')
s = Sound(TEST_SOUND)
n.play(duration=None)
s.play()
s.wait()
n.stop()
return True
def sound_manual_play_test_sound_and_note_mixed():
'''The sound match1.wav will play TWO TIMES on the speaker, mixed with an
'A' note.
'''
n = Note('A')
s = Sound(TEST_SOUND)
n.play(duration=None)
s.play()
s.wait()
s.play()
s.wait()
n.stop()
def note_volume_check(note, expected):
s = Note(note)
actual = s.volume
print("Note: ", note)
print("Expected: ", expected)
print("Actual: ", actual)
return actual == expected
def sound_play_play():
'''Tests race condition case where a very short sound playing could cause a
followup wait() to never complete. The curious call to Note() is there
because it caused the race codition to occur more reliably frequently.
'''
import signal
class TimeoutException(Exception):
pass
def handler(signum, frame):
raise TimeoutException()
signal.signal(signal.SIGALRM, handler)
signal.alarm(5)
timeout = False
try:
Note('A').play().play()
Sound(TEST_SOUND).play().wait().play(duration=0.001).wait()
except TimeoutException:
timeout = True
signal.alarm(0)
return not timeout
def _note_freq(note, expected_freq):
# Frequencies from: http://www.phy.mtu.edu/~suits/notefreqs.html
n = Note(note)
actual_freq = n.frequency
n = None
print('Note: {}, expected frequency: {}'.format(note, expected_freq))
print('Acutal frequency: {}'.format(actual_freq))
return abs(expected_freq - actual_freq) < 0.1
def note_playing_before_end_of_duration_play():
s = Note('A')
s.play(duration=1.0)
time.sleep(0.5)
playing = s.is_playing()
s.stop()
return playing
def note_playing_before_end_of_duration_play():
s = Note('A')
s.play(duration=1.0)
time.sleep(0.5)
playing = s.is_playing()
s.stop()
return playing
def sound_flushing_sound_wont_stop_bugfix():
note = Note('A')
start = time.time()
note.play(2)
time.sleep(1)
note.stop()
return verify_duration(start, 1)
def sound_play_test_sound_and_note_mixed():
n = Note('A')
s = Sound(TEST_SOUND)
n.play(duration=None)
s.play()
s.wait()
n.stop()
return True
def sound_manual_play_test_sound_and_note_mixed():
'''The sound match1.wav will play TWO TIMES on the speaker, mixed with an
'A' note.
'''
n = Note('A')
s = Sound(TEST_SOUND)
n.play(duration=None)
s.play()
s.wait()
s.play()
s.wait()
n.stop()
# ##################################
# Import Modules and Initialize Game
# ##################################
from rstem.button import Button
from rstem.gpio import Output
from rstem.sound import Note
from random import randrange
import time
from itertools import cycle
buttons = [Button(14), Button(15), Button(23), Button(17)]
lights = [Output(4), Output(18), Output(24), Output(27)]
notes = [Note('C5'), Note('D5'), Note('E5'), Note('F5')]
you_failed_note = Note('E4')
light_cycle = cycle(lights)
while True:
for b in buttons:
b.presses()
pressed = False
prev_light = next(light_cycle)
cur_light = next(light_cycle)
while not pressed:
prev_light.off()
cur_light.on()
prev_light = cur_light
cur_light = next(light_cycle)
for b in buttons:
#!/usr/bin/env python3
import rstem
from rstem.button import Button
from rstem.gpio import Output
from rstem.sound import Note
from random import randrange
import time
buttons = [Button(27), Button(23), Button(24), Button(22)]
lights = [Output(4), Output(18), Output(14), Output(15)]
notes = [Note('A'), Note('B'), Note('C'), Note('D')]
you_failed_note = Note('E2')
you_failed_note.volume = 1000
for note in notes:
note.volume = 400
for light in lights:
light.off()
play_order = []
failed = False
while not failed:
play_order += [randrange(4)]
# Play sequence
for i in play_order:
lights[i].on()
notes[i].play(0.4).wait()
lights[i].off()
time.sleep(0.2)
from rstem.mcpi import minecraft, control, block
from rstem.sound import Note
import time
from random import randint
from math import log
control.show(hide_at_exit=True)
mc = minecraft.Minecraft.create()
beep = Note('A5')
BEEP_DURATION = 0.05
ARENA_WIDTH = 10
GOLD_DEPTH = 2
gold_pos = mc.player.getTilePos()
gold_pos.x += randint(-ARENA_WIDTH, ARENA_WIDTH)
gold_pos.z += randint(-ARENA_WIDTH, ARENA_WIDTH)
gold_pos.y = mc.getHeight(gold_pos.x, gold_pos.z) - GOLD_DEPTH
mc.setBlock(gold_pos, block.GOLD_BLOCK)
next_beep_time = time.time()
while block.Block(mc.getBlock(gold_pos)) == block.GOLD_BLOCK:
player_pos = mc.player.getTilePos()
vector_to_gold = gold_pos - player_pos
vector_to_gold.y = 0
distance_to_gold = vector_to_gold.length()
if time.time() > next_beep_time:
if distance_to_gold <= 1:
if not beep.is_playing():
beep.play(duration=None)
# ##################################
# Import Modules and Initialize Game
# ##################################
from rstem.button import Button
from rstem.gpio import Output
from rstem.sound import Note
from random import randrange
import time
buttons = [Button(14), Button(15), Button(23), Button(17)]
lights = [Output(4, active_low=False), Output(18, active_low=False), Output(24, active_low=False), Output(27, active_low=False)]
notes = [Note('C'), Note('D'), Note('E'), Note('F')]
you_failed_note = Note('E3')
while True:
button_pressed = 0
count = 0
while not button_pressed:
for light in lights:
if count % 15:
light.off()
else:
light.on()
for button in buttons:
button_pressed += button.presses()
count += 1
time.sleep(0.2)
for light in lights:
def note_play_chainable():
Note('A').play().play()
return True
#!/usr/bin/env python3
from rstem.button import Button
from rstem.sound import Note
buttons = [Button(22), Button(23), Button(24), Button(27)]
notes = [Note('A'), Note('B'), Note('C'), Note('D')]
while True:
for button, note in zip(buttons, notes):
if button.is_pressed():
if not note.is_playing():
note.play(duration=None)
else:
note.stop()
def note_stop_chainable():
Note('A').stop().stop()
return True
def note_play():
n = Note('A')
n.play()
n.wait()
return True
def note_wait_chainable():
Note('A').wait().wait()
return True
def note_play():
n = Note('A')
n.play()
n.wait()
return True
''')
TILT_FORCE = 0.1
SPACESHIP_STEP = 0.1
# Initialize aliens
ALIENS_STEP_TIME = .8
# Initialize missiles
fire_button = Button(7)
MISSILE_COLOR = 10
MISSILE_STEP_TIME = 0.1
# Initialize sounds
fire_sound = Sound("fire.wav")
hit_sound = Sound("hit.wav")
notes = [Note('B5'), Note('G5'), Note('E5'), Note('C5')]
notes_cycle = cycle(notes)
while True:
fire_button.presses()
while True:
if scroll(start_text, cancel=fire_button.presses):
break
spaceship_middle = 1
spaceship_position = fb.width / 2
alien_columns = [0, 1, 2, 3]
alien_row = fb.height - 1
alien_start_time = time.time()
alien_direction = 1
alien_speed = 2
missile_x, missile_y = -1, -1
from rstem.button import Button
from rstem.sound import Note
import time
buttons_and_notes = [
[Button(10), Note('G3')],
[Button(3), Note('A3')],
[Button(2), Note('B3')],
[Button(15), Note('C')],
[Button(17), Note('D')],
[Button(23), Note('E')],
[Button(11), Note('F')],
[Button(7), Note('G')],
[Button(19), Note('A')],
[Button(20), Note('B')],
[Button(26), Note('C5')],
[Button(21), Note('D5')],
]
while True:
for button, note in buttons_and_notes:
if button.is_pressed():
if not note.is_playing():
note.play(duration=None)
else:
note.stop()
time.sleep(0.01)
def note_bad_note():
try:
Note('cnasdj')
except ValueError:
return True
return False
from rstem.mcpi import minecraft, control, block
from rstem.sound import Note
import time
from random import randint
from math import log
control.show(hide_at_exit=True)
mc = minecraft.Minecraft.create()
beep = Note('A5')
BEEP_DURATION = 0.05
ARENA_WIDTH = 10
GOLD_DEPTH = 2
gold_pos = mc.player.getTilePos()
gold_pos.x += randint(-ARENA_WIDTH, ARENA_WIDTH)
gold_pos.z += randint(-ARENA_WIDTH, ARENA_WIDTH)
gold_pos.y = mc.getHeight(gold_pos.x, gold_pos.z) - GOLD_DEPTH
mc.setBlock(gold_pos, block.GOLD_BLOCK)
next_beep_time = time.time()
while block.Block(mc.getBlock(gold_pos)) == block.GOLD_BLOCK:
player_pos = mc.player.getTilePos()
vector_to_gold = gold_pos - player_pos
vector_to_gold.y = 0
distance_to_gold = vector_to_gold.length()
if time.time() > next_beep_time:
if distance_to_gold <= 1:
if not beep.is_playing():
beep.play(duration=None)
def note_not_playing_after_end_of_duration_play():
s = Note('A')
s.play(duration=1.0)
time.sleep(1.5)
return not s.is_playing()
from rstem.sound import Note
import time
accel = Accel()
# Calibrate
z_rest = 0
SAMPLES = 100
for i in range(SAMPLES):
x, y, z = accel.forces()
z_rest += z
time.sleep(0.01)
z_rest /= SAMPLES
# Beep to tell user we're starting recording
beep = Note('A6')
beep.play(0.2).wait()
# Record taps
TOTAL_TICKS = 2000
raw_tap_ticks = []
for i in range(TOTAL_TICKS):
x, y, z = accel.forces()
if abs(z_rest - z) > 0.1:
raw_tap_ticks.append(i)
time.sleep(0.001)
# Beep to tell user we've stopped recording
beep.play(0.2).wait()
# Convert raw ticks to absolute ticks
def note_not_playing_after_end_of_duration_play():
s = Note('A')
s.play(duration=1.0)
time.sleep(1.5)
return not s.is_playing()
from rstem.sound import Note
import time
accel = Accel()
# Calibrate
z_rest = 0
SAMPLES = 100
for i in range(SAMPLES):
x, y, z = accel.forces()
z_rest += z
time.sleep(0.01)
z_rest /= SAMPLES
# Beep to tell user we're starting recording
beep = Note('A6')
beep.play(0.2).wait()
# Record taps
TOTAL_TICKS = 2000
raw_tap_ticks = []
for i in range(TOTAL_TICKS):
x, y, z = accel.forces()
if abs(z_rest-z) > 0.1:
raw_tap_ticks.append(i)
time.sleep(0.001)
# Beep to tell user we've stopped recording
beep.play(0.2).wait()
# Convert raw ticks to absolute ticks
from rstem.accel import Accel
from rstem.button import Button
from rstem.led_matrix import FrameBuffer, Sprite
from rstem.sound import Sound, Note
import time
from itertools import cycle
fire_button = Button(25)
fire_sound = Sound("fire.wav")
hit_sound = Sound("hit.wav")
notes = cycle([Note('B3'), Note('G3'), Note('E3'), Note('C3')])
fb = FrameBuffer([(0,0,90)])
accel = Accel()
spaceship = Sprite('''
-F-
FAF
''')
spaceship_middle = 1
spaceship_position = fb.width / 2
alien_columns = [0, 1, 2, 3]
alien_row = fb.height - 1
alien_start_time = time.time()
alien_direction = 1
alien_speed = 1
ALIENS_STEP_TIME = 0.8
missile_x, missile_y = -1, -1
