def PlayGame():
turn = 0
sequence = GetRandomSequence()
userSequence = [0] * 100
seqlen = 0
playing = True
played = False
while playing == True:
if turn == 0:
# Just started
Win()
turn = turn + 1
if seqlen == 0 and played == False:
# Sequence needs playing
PlaySequence(turn, sequence)
played = True
elif seqlen == turn:
# User has entered the sequence
Win()
played = False
turn = turn + 1
seqlen = 0
else:
# User still entering pattern
for i in range(0, 4):
if button_pins[i].read_digital() == 1:
userSequence[seqlen] = i
if userSequence[seqlen] != sequence[seqlen]:
Loss()
playing = False
else:
seqlen = seqlen + 1
led_pins[i].write_digital(1)
music.pitch(notes[i], 500)
led_pins[i].write_digital(0)
def updown():
for p in range(10, 1000, 10):
pitch(p, wait=False)
sleep(10)
for p in range(1000, 10, -10):
pitch(p, wait=False)
sleep(10)
def run(self):
'''
Eine Runde
- Zufaellige Flugbahn
- Ball hin
- Check, ob getroffen
- Ball zurueck
'''
self.ball.current_trail = randint(0, 4)
# Ball hin
for self.ball.x in range(5):
self.action()
if self.ball.y != self.bat.y:
# nicht getroffen. Game over
return False
else:
music.pitch(880, 12)
# ... und zurueck
for self.ball.x in range(4, -1, -1):
self.action()
self.round += 1
# naechste Runde
return True
def playmusic():
for i in range(0, len(musiclist), 1):
display.show(str(musiclist[i]))
music.pitch(round(round(tonelist[musiclist[i]])), PWM(Pin(27)))
time.sleep_ms(round(500 * rhythmlist[i]))
music.stop(PWM(Pin(27)))
time.sleep_ms(10)
def lav_alarm():
# tilpas med lyd og billed/animation i MicroBit display som I synes det skal være
# Test udskrift - som kan fjernes i endeligt produkt
print("Nu er der alarm - Der er een som er kommet for tæt på")
# Her vises sur smiley og en et lille beep med høj frekvens, som kører i baggrund
display.show(Image.SAD)
music.pitch(1000,500,wait=False)
def draw(self):
"""
Draw the player
"""
display.set_pixel(self.x, self.y, 9)
if self.just_scored:
music.pitch(400, 40)
def playmusic():
for i in range(0, len(musiclist), 1):
display.show(str(musiclist[i]))
music.pitch(round(round(tonelist[musiclist[i]])), PWM(Pin(27)))
time.sleep_ms(round(500 * rhythmlist[i]))
music.stop(PWM(Pin(27)))
time.sleep_ms(10)
def keyer():
buffer = '' #for di or dah sent
started = running_time() #timer
while True:
waited = running_time() - started
key_down_time = None
while button_b.is_pressed() or pin2.is_touched(
): #button B keying or capacitive touch (tip: lick 2 fingers one on gnd one on pin 2)
if not key_down_time: key_down_time = running_time()
music.pitch(tone, -1, pin0, False)
pin1.write_digital(1)
while True:
if not button_b.is_pressed() and not pin2.is_touched():
break
music.stop()
pin1.write_digital(0)
key_up_time = running_time()
if key_down_time:
duration = key_up_time - key_down_time
if duration < dah:
buffer += '0'
display.clear()
display.set_pixel(2, 2, 9)
elif duration:
buffer += '1'
display.show('-')
started = running_time()
elif len(buffer) > 0 and waited > dah: #or DASH_THRESHOLD = di * 5
character = decoder(int("0b1" + buffer, 2))
buffer = ''
display.show(character)
if tx: radio.send(character)
else: menu(character)
if waited > space * 2: return
def Win():
for i in range(0, 4):
for j in range(0, 4):
led_pins[j].write_digital(1)
music.pitch(notes[j], 50)
led_pins[j].write_digital(0)
sleep(1000)
def playSiren(self):
if self.doPlay:
for freq in range(880, 1760, 16):
music.pitch(freq, 6)
for freq in range(1760, 880, -16):
music.pitch(freq, 6)
self.doPlay = False
display.set_pixel(0, 0, 8)
def ding(): # 叮叮响
global touch_stat
if touchPad_T.read() < 300 and touch_stat == 0: # 检测按键按下时,发出‘ding’响,并广播
music.pitch(500, 100, wait=False) # 播放"ding"
radio.send('ding') # radio 广播 "ding"
touch_stat = 1
elif touchPad_T.read() >= 300:
touch_stat = 0
def tick():
global neues_jetzt, jetzt
display.scroll(str(beruehrt) + str(jetzt))
neues_jetzt = running_time() // 1000
if jetzt > 0 and neues_jetzt > jetzt:
jetzt = neues_jetzt
music.pitch(440, 6)
def play(pom, img_1, img_2):
music.stop()
for p in melody:
music.pitch(p)
if pom:
display.show(img_1)
pom = False
else:
display.show(img_2)
pom = True
sleep(200)
def action(self):
'''
Innere Spielschleife: Ball, Schlaeger, kurze Pause
'''
display.clear()
music.pitch(440, 6)
self.ball.run()
self.bat.run()
print("Round:", self.round, "Ball:", self.ball.y, "Bat:", self.bat.y)
sleep(400)
def scroll_walls(init=False):
global scroll
scroll -= 1
if scroll == 0 or init:
scroll = scroll_def
erase_aim()
for y in range(4, 0, -1):
for x in range(5):
buf[y][x] = buf[y - 1][x]
flash_buf[y] = flash_buf[y - 1]
flash_buf[0] = 0
new_wall()
if sound == 1:
music.pitch(440, duration=16, wait=False)
def show_start_msg():
# Count down for start sending morse codes.
COUNT_DOWN = ['3', '2', '1', Image.HAPPY]
START_HINT = 'PRESS BUTTON A TO START'
# show start hint and waiting to start signal
display.scroll(START_HINT, wait=False, loop=True)
while True:
if button_a.was_pressed():
# count down for start sending morse code
display.show(COUNT_DOWN, delay=1000)
# beep for start
music.pitch(880, 300)
break
def alarm(enable):
"""闹钟事件"""
rgb.brightness(0.1)
oled.fill_rect(80,32,128-80,16,0)
if enable:
music.play(music.MO_LI_HUA ,wait=False,loop=True)
rgb.fill((100,0,0))
rgb.write()
oled.DispChar("时间到",80,32,2)
oled.show()
else:
music.pitch(0)
rgb.fill((0,0,0))
rgb.write()
def fx(length_ms, pitch, delta_pitch, steps_count):
"""Produce sound effect shifting pitch by delta_pitch in steps_count steps"""
end_time = round(microbit.running_time() + length_ms)
step_length_ms = round(length_ms / steps_count)
while microbit.running_time() < end_time:
if pitch > 0:
music.pitch(round(pitch))
microbit.sleep(step_length_ms)
pitch += delta_pitch
steps_count -= 1
music.stop()
def Keyer():
buffer = ''
message = ''
started = running_time()
while True:
waited = running_time() - started
key_down_time = None
while button_b.is_pressed(): ## button B keying
if not key_down_time:
key_down_time = running_time()
music.pitch(sidetone, -1, pin0, False)
pin1.write_digital(1)
while True:
if not button_b.is_pressed():
music.stop()
pin1.write_digital(0)
break
while pin2.is_touched(): ## touch keying
if not key_down_time:
key_down_time = running_time()
music.pitch(sidetone, -1, pin0, False)
pin1.write_digital(1)
while True:
if not pin2.is_touched():
music.stop()
pin1.write_digital(0)
break
key_up_time = running_time()
if key_down_time:
duration = key_up_time - key_down_time
if duration < DOT_THRESHOLD:
buffer += '.'
display.show(DOT)
elif duration:
buffer += '-'
display.show(DASH)
started = running_time()
elif len(buffer) > 0 and waited > DASH_THRESHOLD:
display.clear()
character = decodemorse.get(buffer, '?')
buffer = ''
display.show(character)
if txenabled:
radio.send(character)
message += character
if waited > WORD_THRESHOLD * 2:
return
def compassOutput(compassDir, directionDeg, pitch, displayChars):
global compassTotal
global pitchDuration
#North has to be treated differently due to being greater than 0 and less than 360
if directionDeg == 0:
if compassDir > 315:
pitchChange = pitch - (360 - compassDir)
else:
pitchChange = pitch - compassDir
else:
if compassDir > (directionDeg - 45) and compassDir <= directionDeg:
pitchChange = pitch - (directionDeg - compassDir)
else:
pitchChange = pitch - (compassDir - directionDeg)
display.show(displayChars)
music.pitch(pitchChange, 50)
def handle_run_state():
global state, mins, secs, last_tick_time
if button_b.was_pressed():
state = SET
display_mins(mins)
time_now = running_time()
if time_now > last_tick_time + 5000:
last_tick_time = time_now
secs -= 5
if secs < 0:
secs = 55
mins -= 1
display_time(mins, secs)
if mins == 0 and secs == 0:
state = ALARM
music.pitch(440, wait=False)
display.show(Image.HAPPY)
def rest(seconds):
display.show([x / 9 for x in Image.ALL_CLOCKS],
delay=(seconds * 1000) // 12,
wait=False)
for i in range(1, seconds + 1):
if i % 15 == 0:
pitch = 900
elif i % 2 == 0:
pitch = 600
else:
pitch = 800
music.pitch(pitch, 50)
sleep(1000 - 50)
music.play(music.POWER_UP)
def playMorse(*binarycw):
for x in binarycw:
for i in x:
if i == 1: sleep(space)
pattern = bin(i)[3:]
for c in pattern:
if c == "0":
display.set_pixel(2, 2, 9)
pin1.write_digital(1)
music.pitch(tone, di)
elif c == "1":
display.show("-")
pin1.write_digital(1)
music.pitch(tone, dah)
display.clear()
pin1.write_digital(0)
sleep(di)
sleep(dah)
def FlashMorse(pattern):
for c in pattern:
if c == ".":
display.show(DOT)
pin1.write_digital(1)
music.pitch(sidetone, dotlength)
display.clear()
pin1.write_digital(0)
sleep(interelement)
elif c == "-":
display.show(DASH)
pin1.write_digital(1)
music.pitch(sidetone, dashlength)
display.clear()
pin1.write_digital(0)
sleep(interelement)
elif c == " ":
sleep(interletter)
return
def main():
threshold = 1000 * 60 * 6
#threshold = 1000 * 30
start = utime.ticks_ms()
while True:
now = utime.ticks_ms()
seconds = now // 1000
if seconds % 2 == 0: display.show(Image.CLOCK3)
else: display.show(Image.CLOCK9)
beep1 = utime.ticks_ms()
beep2 = beep1 + 200
while utime.ticks_diff(now, start) > threshold:
buzz_start = now
display.show(Image.HEART)
# beep
if utime.ticks_diff(utime.ticks_ms(), beep1) > 0:
music.pitch(1760, 100, wait=False)
beep1 = beep1 + 2000
# beep
if utime.ticks_diff(utime.ticks_ms(), beep2) > 0:
music.pitch(1760, 100, wait=False)
beep2 = beep2 + 2000
# button
if button_a.is_pressed():
action = utime.ticks_ms()
spend = utime.ticks_diff(action, buzz_start)
display.scroll(str(spend))
if spend < 3000: threshold = 1000 * 60 * 6
else: threshold = 1000 * 60 * 3
#if spend < 3000: threshold = 1000 * 30
#else: threshold = 1000 * 10
start = utime.ticks_ms()
break
sleep(1000)
def main():
threshold = 1000 * 60 * 6
#threshold = 1000 * 30
start = utime.ticks_ms()
while True:
now = utime.ticks_ms()
seconds = now // 1000
if seconds % 2 == 0: display.show(Image.CLOCK3)
else: display.show(Image.CLOCK9)
beep1 = utime.ticks_ms()
beep2 = beep1 + 200
while utime.ticks_diff(now, start) > threshold:
buzz_start = now
display.show(Image.HEART)
# beep
if utime.ticks_diff(utime.ticks_ms(), beep1) > 0:
music.pitch(1760, 100, wait=False)
beep1 = beep1 + 2000
# beep
if utime.ticks_diff(utime.ticks_ms(), beep2) > 0:
music.pitch(1760, 100, wait=False)
beep2 = beep2 + 2000
# button
if button_a.is_pressed():
action = utime.ticks_ms()
spend = utime.ticks_diff(action, buzz_start)
display.scroll(str(spend))
if spend < 3000: threshold = 1000 * 60 * 6
else: threshold = 1000 * 60 * 3
#if spend < 3000: threshold = 1000 * 30
#else: threshold = 1000 * 10
start = utime.ticks_ms()
break
sleep(1000)
def sonic(f=3000, fstep=32, fdepth=100, ton=10, toff=0, duration=2000):
# from sonic screwdriver, written by D.J.Whale for BBC Doctor Who.
# first surfaced in "mission sonic' in April 2017.
try:
ft = f
music.pitch(ft)
st = running_time()
while running_time() < st+duration:
sleep(ton)
if toff != 0:
music.stop()
sleep(toff)
fn = ft + fstep
if fn >= f + fdepth:
fstep *= -1
fn = f + fdepth
elif fn <= f - fdepth:
fstep *= -1
fn = f - fdepth
if fn != ft:
ft = fn
music.pitch(int(ft))
finally:
music.stop()
from microbit import *
import music
lives = 3
display.show(str(lives))
while lives > 0:
if pin1.read_digital():
display.show(Image.SAD)
music.pitch(200, 800)
lives -= 1
display.show(str(lives))
SKULL = [
'09990',
'90909',
'99999',
'09990',
'09990',
]
for i in range(5):
display.show(Image(":".join(["00000"] * (4 - i) + SKULL[:i + 1])))
sleep(500)
music.play(music.FUNERAL)
brightness = 9
direction = -1
while True:
if brightness == 1:
direction = +1
while True:
v = pin2.read_analog()
if v < ACTION_VALUE:
l,r = True, True
elif v < VOLUMEUP_VALUE:
l,r = False, True
elif v < VOLUMEDOWN_VALUE:
l,r = True, False
else:
l,r = False, False
if l != prev_l:
prev_l = l
if l:
music.pitch(PITCH, pin=pin0)
display.set_pixel(0,2,9)
else:
display.set_pixel(0,2,0)
music.stop(pin0)
if r != prev_r:
prev_r = r
if r:
display.set_pixel(4,2,9)
music.pitch(PITCH, pin=pin1)
else:
display.set_pixel(4,2,0)
music.stop(pin1)
def __init__ (self, freq, duration):
music.pitch(freq, duration)
sleep(50)
def soundAlarm():
for i in range(0, 4):
music.pitch(freq * i, 100)
display.show(Image.ANGRY)
def accel():
while not button_a.is_pressed():
p = abs(accelerometer.get_z())
pitch(p, wait=False)
sleep(10)
def test_rapid_pitch_switch():
for i in range(20):
for freq in FREQS:
music.pitch(freq, wait=False)
if low_range == True:
frequency = int( (wide_frequency * 0.33) + ( 0 * range_factor ) )
elif high_range == True:
frequency = int( (wide_frequency * 0.33) + ( 2 * range_factor ) )
else:
frequency = int( (wide_frequency * 0.33) + ( 1 * range_factor ) )
# calculate a good duration
acc_y = accelerometer.get_y()
# normalise Y value (duration)
if acc_y >= upper_bound:
acc_y = upper_bound
elif acc_y <= lower_bound:
acc_y = lower_bound
duration = acc_y + upper_bound
div_factor = 2000 / max_duration
duration = math.ceil(duration / div_factor)
music_duration = max(duration, min_duration)
gesture = accelerometer.current_gesture()
if gesture == "face down":
music.pitch(frequency, music_duration)
def beep():
music.pitch(1760, 100)
sleep(200)
music.pitch(1760, 100)
sleep(200)
# =====================
# Save previous ball "x,y" location
oldBallX = ballX
oldBallY = ballY
ballY = ballY + ballDirection
# Case where paddle hit ball
if ballY == 7 and padX == ballX:
npPlot2(oldBallX, oldBallY, black) # Turn-off LED at old ball location
npPlot2(ballX, ballY, colors[1]) # On hit, paint ball green
np.show()
# Use two short beeps at high pitch to indicate a "hit"
music.pitch(880, 100)
sleep(50)
music.pitch(990, 100)
ballDirection *= -1
hitCount += 1 # Increment score
if hitCount >= numScores: # When you have "numScores" hits you win!
gameOn = False
continue
# Case where paddle missed ball
elif ballY == 7 and padX != ballX:
npPlot2(oldBallX, oldBallY, black) # Turn-off LED at old ball location
npPlot2(ballX, ballY, colors[0]) # On miss, paint ball red
np.show()
else:
# off
if value == 0x00:
buildingbit.car_HeadRGB(0, 0, 0)
# up
elif value == 0x80:
buildingbit.car_run(speed, speed, 0)
# light
elif value == 0x40:
buildingbit.car_HeadRGB(255, 255, 255)
# left
elif value == 0x20:
buildingbit.car_left(speed, 0)
# buzzer
elif value == 0xa0:
music.pitch(698)
sleep(400)
music.stop()
# right
elif value == 0x60:
buildingbit.car_right(speed, 0)
# spinleft
elif value == 0x10:
buildingbit.car_spinleft(speed, speed, 0)
# down
elif value == 0x90:
buildingbit.car_back(speed, speed, 0)
# spinright
elif value == 0x50:
buildingbit.car_spinright(speed, speed, 0)
# +
# Holds the translated Morse as normal text.
message = ''
# The time from which the device has been waiting for the next keypress.
started_to_wait = running_time()
# Put the device in a loop to wait for and react to key presses.
while True:
# Work out how long the device has been waiting for a keypress.
waiting = running_time() - started_to_wait
# Reset the timestamp for the key_down_time.
key_down_time = None
# If button_a is held down, then...
while button_a.is_pressed():
# Play a beep - this is Morse code y'know ;-)
music.pitch(880, 10)
# ...and if there's not a key_down_time then set it to now!
if not key_down_time:
key_down_time = running_time()
# Get the current time and call it key_up_time.
key_up_time = running_time()
# If there's a key_down_time (created when button_a was first pressed
# down).
if key_down_time:
# ... then work out for how long it was pressed.
duration = key_up_time - key_down_time
# If the duration is less than the max length for a "dot" press...
if duration < DOT_THRESHOLD:
# ... then add a dot to the BUFFER containing incoming Morse codes
# and display a dot on the display.
buffer += '.'
# 4b - mag felt til lyd.py
# Omsæt magnet felt styrke til lyd (pitch) Version 1.1 0-nov-2020
# Først importeres det generelle microbit bibliotek (for at nå compass() funktionen)
# og music (for at nå music.pitch() funktionen)
from microbit import *
import music
# Da felt styrken ser ud til at kunne nå op til ca. 2.5 mill og altid er positiv
# divideres med 1000 for at ramme indenfor det som pitch kan håndtere.
# MEN skal desuden få det til at være et heltal og ved normal division (/) får vi decimaler.
# - derfor bruges funktionen int() til at konvertere til heltal.
# Adderer 50 til for at vi kan høre det.
while True:
x = compass.get_field_strength()
print(x)
music.pitch(
int(x / 1000) + 50
) # Kan også bruge floor division // - Se python aritmetiske operatorer
sleep(100)
durationlen = len(note_durations)
notelen = len(notes)
duration = 100
play_music = True
while True:
#get accelerometer readings
xreading = abs(accelerometer.get_x())
yreading = abs(accelerometer.get_y())
#use a to toggle music
if button_a.was_pressed():
play_music = not play_music
if not play_music:
continue
#get a note based on tilt
note = xreading*.01
pitch = notes[int(note)%notelen]
#if b is pressed, alter the length based on tilt
if button_b.is_pressed() == 1:
#pitch *= .5
duration = note_durations[int(yreading*0.01)%durationlen]
#play our sound!
music.pitch(int(pitch), duration)
import music
from microbit import accelerometer
buckets = [
262, # C
294, # D
330, # E
392, # G
440, # A
]
while True:
reading = abs(accelerometer.get_x())
bucket = min(4, max(0, reading // 200)) # quantize!
music.pitch(buckets[bucket], 20)
# ... and cycle through them on the display.
pause = 1000
for img in images:
display.show(img)
sleep(pause)
pause -= 50
if pause < 100:
pause = 100
display.clear()
# Aural testing of the accelerometer.
display.scroll("Accelerometer")
display.show("X")
while not button_a.is_pressed():
music.pitch(abs(accelerometer.get_x()), 20)
sleep(500)
display.show("Y")
while not button_a.is_pressed():
music.pitch(abs(accelerometer.get_y()), 20)
sleep(500)
display.show("Z")
while not button_a.is_pressed():
music.pitch(abs(accelerometer.get_z()), 20)
# Aural testing of the compass.
display.scroll("Compass")
compass.calibrate()
while not button_b.is_pressed():
music.pitch(abs(compass.heading()), 20)
