我正在撰写一份“灰色”文字,其中将显示我在 t子上运行时掌握的数据,因为显示板被打破。 它将在Raspberry Pi上使用GPIO的皮条皮,这样,每当 t子的沥青环绕过面时,它就能够有一只金属片,短片(y子)。 计算速度取决于带的快速度。
This means time is very important here. I ve set up a loop in rev_counter() that gets the time and then when the "button" is pressed, it records the time again. Just to test it while I m writing this program, I ve simulated a button press with sleep(). I set it to 1.27841272276 seconds because this would be the time the belt would go around for a 7:30-minute mile pace. I ve been trying to get it as close to that pace as possible.
我不得不这样做。 在工作过程中显示胎儿时,它正确或可能是二分之一。 问题在于,在我结束工作时,采用了<代码>CTRL+C。 因此,平均微笑速度越快越快。 它应为7:30-7:31,但最终为7:34-7:36。 在我停止<代码>rev_counter ( loop)和在计算<代码>成果(之间,时间会相抵消。 出于某种原因,当我操作<代码>update_display()功能时,在rev_counter(<>/code> 和>上,似乎有所帮助。 能否在这个中间阻止造成问题? 为什么只有<条码>指示/代码>,而不是两个编号<>rev_counter()和results()都得不到时间问题?
这里是我的圣迹:
import math
import os
import time
# from gpiozero import Button
from threading import Thread
from time import sleep
# belt_button = Button(2)
def display(original_time=None, total_distance=None, current_speed=None, prev_rev_time=None):
os.system( clear )
print( Current Workout Information )
print( )
if original_time is None:
print(f Time elapsed: --:--:-- )
print( )
print( Distance )
print(f Miles: -- )
print(f Kilometers: -- )
print( )
print( Current Speed )
print(f M/H: -- )
print(f KM/H: -- )
print( )
print( Pace )
print(f Mile: -- )
print(f Kilometer: -- )
else:
seconds_elapsed = prev_rev_time - original_time
time_elapsed = increment(seconds_elapsed)
mi = total_distance / 5280
km = total_distance / 3280.84
mph = current_speed / 1.46667
kmph = current_speed * 1.09728
min_mi = 60 / mph
min_km = 60 / kmph
mi_pace_min = math.floor(min_mi)
mi_pace_sec = round((min_mi * 60) % 60)
if mi_pace_sec < 10:
mi_pace_sec = f 0{mi_pace_sec}
km_pace_min = math.floor(min_km)
km_pace_sec = round((min_km * 60) % 60)
if km_pace_sec < 10:
km_pace_sec = f 0{km_pace_sec}
print(f Time elapsed: {time_elapsed} )
print( )
print( Distance )
print(f Miles: {round(mi, 2)} )
print(f Kilometers: {round(km, 2)} )
print( )
print( Current Speed )
print(f M/H: {round(mph, 2)} )
print(f KM/H: {round(kmph, 2)} )
print( )
print( Pace )
if current_speed == 0:
print(f Mile: 0 )
print(f Kilometer: 0 )
else:
print(f Mile: {mi_pace_min}:{mi_pace_sec} )
print(f Kilometer: {km_pace_min}:{km_pace_sec} )
def increment(seconds_elapsed):
seconds_elapsed = math.floor(seconds_elapsed)
h = seconds_elapsed // 3600
m = (seconds_elapsed // 60) % 60
s = seconds_elapsed % 60
if h < 10:
h = f 0{h}
if m < 10:
m = f 0{m}
if s < 10:
s = f 0{s}
return f {h}:{m}:{s}
def rev_counter():
revolutions = 0
prev_rev_time = 0
original_time = time.time()
try:
while True:
prev_rev_time = time.time()
# GPIO stuff
# sleep(0.25)
# belt_button.wait_for_press()
sleep(1.27841272276)
rev_time = time.time()
revolutions += 1
update_display(original_time, prev_rev_time, rev_time, revolutions)
# Alternate code
# thread = Thread(target=update_display, args=(original_time, prev_rev_time, rev_time, revolutions))
# thread.start()
except KeyboardInterrupt:
os.system( clear )
total_distance = 15 * revolutions
results(original_time, prev_rev_time, total_distance)
def update_display(original_time, prev_rev_time, rev_time, revolutions):
# feet * rev count
# 15 = Length of my treadmill in feet
total_distance = 15 * revolutions
# feet / second
rev_seconds = rev_time - prev_rev_time
current_speed = 15 / rev_seconds
display(original_time, total_distance, current_speed, prev_rev_time)
def results(original_time, prev_rev_time, total_distance):
try:
os.system( clear )
seconds_elapsed = prev_rev_time - original_time
time_elapsed = increment(seconds_elapsed)
print( Workout Results )
print( )
if total_distance == 0:
print(f Total time: {time_elapsed} )
print( )
print( Distance )
print(f Miles: 0 )
print(f Kilometers: 0 )
print( )
print( Average Speed )
print(f M/H: 0 )
print(f KM/H: 0 )
print( )
print( Average Pace )
print(f Mile: 00:00 )
print(f Kilometer: 00:00 )
else:
average_speed = total_distance / seconds_elapsed
mi = total_distance / 5280
km = total_distance / 3280.84
mph = average_speed / 1.46667
kmph = average_speed * 1.09728
min_mi = 60 / mph
min_km = 60 / kmph
mi_pace_min = math.floor(min_mi)
mi_pace_sec = round((min_mi * 60) % 60)
if mi_pace_sec < 10:
mi_pace_sec = f 0{mi_pace_sec}
km_pace_min = math.floor(min_km)
km_pace_sec = round((min_km * 60) % 60)
if km_pace_sec < 10:
km_pace_sec = f 0{km_pace_sec}
print(f Total time: {time_elapsed} )
print( )
print( Distance )
print(f Miles: {round(mi, 2)} )
print(f Kilometers: {round(km, 2)} )
print( )
print( Average Speed )
print(f M/H: {round(mph, 2)} )
print(f KM/H: {round(kmph, 2)} )
print( )
print( Average Pace )
print(f Mile: {mi_pace_min}:{mi_pace_sec} )
print(f Kilometer: {km_pace_min}:{km_pace_sec} )
print( )
input( Exit )
os.system( clear )
except KeyboardInterrupt:
os.system( clear )
def main():
os.system( clear )
while True:
try:
print( AC Treadmill Workout Program )
print( )
input( Start Workout )
display()
rev_counter()
except KeyboardInterrupt:
print(
)
print( Quitting... )
break
if __name__ == __main__ :
main()
在没有任何问题的情况下实施这一方案,如果你改变所有<代码>os.system(明确) Line to os.system(cls )。 还确保把它放在终点站,因为我的电梯(PyCharm)确实允许它甚至在我确定原子辐射环境变数时加以清除。