class HeartMonitor:
def __init__(self):
self.p = Pulsesensor()
def startbeat(self):
self.p.startAsyncBPM()
def getheartrate(self):
return self.p.BPM
def stopbeat(self):
self.p.stopAsyncBPM()
def heartBeat(): # Pulse Sensor로 심박수를 측정하는 함수.
global fileName
global deviceID
p = Pulsesensor()
p.startAsyncBPM()
count = 0
bpmSum = 0
tryNum = 0
Done = False
startTime = time.time()
while not Done: # 측정이 정확하게 될 때까지 반복.
nowTime = time.time()
while int(nowTime - startTime) <= 12: # 12초 동안 측정.
bpm = p.BPM
if bpm >= 50 and bpm <= 85: # Pulse Sensor가 비정상적인 값을 인식할 때, 평균 계산에 적용하지 않기 위함.
bpmSum += bpm
count += 1 # 정확한 측정이 몇 번 수행되었는지 확인.
nowTime = time.time()
continue
if count is not 0: # 정확한 측정이 한 번이라도 수행되었을 때.
p.stopAsyncBPM() # 측정 중단.
value = bpmSum / count # 평균 값 계산.
Done = True # 측정 완료를 알림.
intvalue = str(round(
value, 1)).split('.')[0] # 소수점 첫째 자리에서 반올림 하여 int형으로 변환.
else:
fileName = "PulseAgain.mp3" # 측정이 정확하지 않을 때 다시 측정하겠다는 알림 출력.
playMP3File()
tryNum += 1
startTime = time.time()
Send('pulse', intvalue) # 측정 값을 서버에 전송.
global msg_flag
while not msg_flag:
continue
def sensors():
final_ret = dict()
###########DHT-11#############################DATA-PIN = 20
humidity, temperature = Adafruit_DHT.read_retry(11,20)
print("DHT done")
#print("H = "+str(humidity)+" T = "+str(temperature))
##############################################
##############DS18b20##########################DATA-PIN = 04
body_temperature = probetemp.read_temp()
print("DS18B20 done")
##########################################
#############MQ-135##########################DATA-PIN = 1(analog)
mq = MQ()
perc = mq.MQPercentage()
print("MQ135 done")
'''sys.stdout.write("\r")
sys.stdout.write("\033[K")
sys.stdout.write("LPG: %g ppm, CO: %g ppm, Smoke: %g ppm" % (perc["GAS_LPG"], perc["CO"], perc["SMOKE"]))
sys.stdout.write("\n")
sys.stdout.flush()'''
####################################################
##############Pulse Sensor#######################DATA-PIN = 0(analog)
p = Pulsesensor()
p.startAsyncBPM()
while True:
#bpm = p.BPM
bpm = random.randint(50,70)
if bpm > 0:
#print("BPM: %d" % bpm)
p.stopAsyncBPM()
break
else:
#print("No Heartbeat found")
time.sleep(1)
print("Pulse done")
######################################
###################GPS####################
gps = GPSget()
#########################################
final_ret["ambient_temp"] = temperature
final_ret["humidity"] = humidity
final_ret["body_temp"] = body_temperature
final_ret["LPG"] = perc["GAS_LPG"]
final_ret["CO"] = perc["CO"]
final_ret["Smoke"] = perc["SMOKE"]
final_ret["Pulse"] = int(bpm)
final_ret["loc_lat"] = gps[0]
final_ret["loc_lng"] = gps[1]
return final_ret
def pulse_sensor():
p = Pulsesensor()
p.startAsyncBPM()
try:
while True:
bpm = p.BPM
if bpm > 0:
print("BPM: %d" % bpm)
else:
print("No Heartbeat found")
time.sleep(1)
except:
p.stopAsyncBPM()
return data
def pulse():
global BPM
global exit
p = Pulsesensor()
p.startAsyncBPM()
while exit:
BPM = p.BPM
if BPM > 0:
print("BPM: %d" % BPM)
else:
print("No Heartbeat found")
time.sleep(1)
p.stopAsyncBPM()
print("pulse finished")
def readHeartBeat():
p = Pulsesensor()
p.startAsyncBPM()
try:
while True:
# print(p.channel);
# print(p.adc);
bpm = p.BPM
if bpm > 0:
print(bpm)
else:
print("-1")
time.sleep(1)
except:
p.stopAsyncBPM()
def updateBPM(self):
self.bpmText.set_text("Test")
p = Pulsesensor()
p.startAsyncBPM()
try:
while True:
bpm = p.BPM
self.bpmText.set_text(str(int(bpm)) + " bpm")
if bpm > 0:
if bpm > 150:
self.bpmText.modify_fg(Gtk.StateType.NORMAL, Gdk.Color(65535, 13535, 15535))
self.messages.set_text("HIGH HEARTRATE")
elif bpm > 90:
self.bpmText.modify_fg(Gtk.StateType.NORMAL, Gdk.Color(65535, 33535, 15535))
else:
self.bpmText.modify_fg(Gtk.StateType.NORMAL, Gdk.Color(0, 0, 0))
else:
self.bpmText.set_text("-")
time.sleep(1)
except:
p.stopAsyncBPM()
from pulsesensor import Pulsesensor
import time
p = Pulsesensor()
p.startAsyncBPM()
try:
while True:
bpm = p.BPM
if bpm > 0:
print("BPM: %d" % bpm)
else:
print("BPM: %d" %bpm)
print("No Heartbeat found")
time.sleep(1)
except:
p.stopAsyncBPM()
def read_word_2c(adr):
val = read_word(adr)
if (val >= 0x8000):
return -((65535 - val) + 1)
else:
return val
def dist(a,b):
return math.sqrt((a*a)+(b*b))
def get_y_rotation(x,y,z):
radians = math.atan2(x, dist(y,z))
return -math.degrees(radians)
def get_x_rotation(x,y,z):
radians = math.atan2(y, dist(x,z))
return math.degrees(radians)
bus = smbus.SMBus(1)
address = 0x68 #MPU6050 I2C adresi
#MPU6050 ilk calistiginda uyku modunda oldugundan, calistirmak icin asagidaki komutu veriyoruz:
bus.write_byte_data(address, power_mgmt_1, 0)
while True:
time.sleep(0.1)
#Jiroskop register'larini oku
gyro_xout = read_word_2c(0x43)
gyro_yout = read_word_2c(0x45)
gyro_zout = read_word_2c(0x47)
print "Jiroskop X : ", gyro_xout, " olcekli: ", (gyro_xout / 131)
print "Jiroskop Y : ", gyro_yout, " olcekli: ", (gyro_yout / 131)
print "Jiroskop Z: ", gyro_zout, " olcekli: ", (gyro_zout / 131)
#Ivmeolcer register'larini oku
accel_xout = read_word_2c(0x3b)
accel_yout = read_word_2c(0x3d)
accel_zout = read_word_2c(0x3f)
accel_xout_scaled = accel_xout / 16384.0
accel_yout_scaled = accel_yout / 16384.0
accel_zout_scaled = accel_zout / 16384.0
print "Ivmeolcer X: ", accel_xout, " olcekli: ", accel_xout_scaled
print "Ivmeolcer Y: ", accel_yout, " olcekli: ", accel_yout_scaled
print "Ivmeolcer Z: ", accel_zout, " olcekli: ", accel_zout_scaled
print "X dondurme: " , get_x_rotation(accel_xout_scaled, accel_yout_scaled, accel_zout_scaled)
print "Y dondurme: " , get_y_rotation(accel_xout_scaled, accel_yout_scaled, accel_zout_scaled)
time.sleep(0.5)
# ****************************************************************************************
# MCP3008 ADC KODU NABIZ ÖLÇER İÇİN (MCP3008.PY)
# ***************************************************************************************
from spidev import SpiDev
class MCP3008:
def __init__(self, bus = 0, device = 0):
self.bus, self.device = bus, device
self.spi = SpiDev()
self.open()
def open(self):
self.spi.open(self.bus, self.device)
def read(self, channel = 0):
self.spi.max_speed_hz = 1000000
adc = self.spi.xfer2([1, (8 + channel) << 4, 0])
data = ((adc[1] & 3) << 8) + adc[2]
return data
def close(self):
self.spi.close()
# *****************************************************************************
# NABIZ ÖLÇERİ DİJİTALE DÖNÜŞTÜREN ALGORİTMA (PULSESENSOR.PY)
# ******************************************************************************
import time
import threading
from MCP3008 import MCP3008
class Pulsesensor:
def __init__(self, channel = 0, bus = 0, device = 0):
self.channel = channel
self.BPM = 0
self.adc = MCP3008(bus, device)
def getBPMLoop(self):
# init variables
rate = [0] * 10 # array to hold last 10 IBI values
sampleCounter = 0 # used to determine pulse timing
lastBeatTime = 0 # used to find IBI
P = 512 # used to find peak in pulse wave, seeded
T = 512 # used to find trough in pulse wave, seeded
thresh = 525 # used to find instant moment of heart beat, seeded
amp = 100 # used to hold amplitude of pulse waveform, seeded
firstBeat = True # used to seed rate array so we startup with reasonable BPM
secondBeat = False # used to seed rate array so we startup with reasonable BPM
IBI = 600 # int that holds the time interval between beats! Must be seeded!
Pulse = False # "True" when User's live heartbeat is detected. "False" when not a "live beat".
lastTime = int(time.time()*1000)
while not self.thread.stopped:
Signal = self.adc.read(self.channel)
currentTime = int(time.time()*1000)
sampleCounter += currentTime - lastTime
lastTime = currentTime
N = sampleCounter - lastBeatTime
# find the peak and trough of the pulse wave
if Signal < thresh and N > (IBI/5.0)*3: # avoid dichrotic noise by waiting 3/5 of last IBI
if Signal < T: # T is the trough
T = Signal # keep track of lowest point in pulse wave
if Signal > thresh and Signal > P:
P = Signal
# signal surges up in value every time there is a pulse
if N > 250: # avoid high frequency noise
if Signal > thresh and Pulse == False and N > (IBI/5.0)*3:
Pulse = True # set the Pulse flag when we think there is a pulse
IBI = sampleCounter - lastBeatTime # measure time between beats in mS
lastBeatTime = sampleCounter # keep track of time for next pulse
if secondBeat: # if this is the second beat, if secondBeat == TRUE
secondBeat = False; # clear secondBeat flag
for i in range(len(rate)): # seed the running total to get a realisitic BPM at startup
rate[i] = IBI
if firstBeat: # if it's the first time we found a beat, if firstBeat == TRUE
firstBeat = False; # clear firstBeat flag
secondBeat = True; # set the second beat flag
continue
# keep a running total of the last 10 IBI values
rate[:-1] = rate[1:] # shift data in the rate array
rate[-1] = IBI # add the latest IBI to the rate array
runningTotal = sum(rate) # add upp oldest IBI values
runningTotal /= len(rate) # average the IBI values
self.BPM = 60000/runningTotal # how many beats can fit into a minute? that's BPM!
if Signal < thresh and Pulse == True: # when the values are going down, the beat is over
Pulse = False # reset the Pulse flag so we can do it again
amp = P - T # get amplitude of the pulse wave
thresh = amp/2 + T # set thresh at 50% of the amplitude
P = thresh # reset these for next time
T = thresh
if N > 2500: # if 2.5 seconds go by without a beat
thresh = 512 # set thresh default
P = 512 # set P default
T = 512 # set T default
lastBeatTime = sampleCounter # bring the lastBeatTime up to date
firstBeat = True # set these to avoid noise
secondBeat = False # when we get the heartbeat back
self.BPM = 0
time.sleep(0.005)
# Start getBPMLoop routine which saves the BPM in its variable
def startAsyncBPM(self):
self.thread = threading.Thread(target=self.getBPMLoop)
self.thread.stopped = False
self.thread.start()
return
# Stop the routine
def stopAsyncBPM(self):
self.thread.stopped = True
self.BPM = 0
return
# ***************************************************************************************************
# NABIZ SENSÖRÜNDEKİ BİLGİYİ TERMİNALDE GÖSTEREN KOD (EXAMPLE.PY)
# ********************************************************************************************
from pulsesensor import Pulsesensor
import time
import subprocess
p = Pulsesensor()
p.startAsyncBPM()
try:
while True:
bpm = p.BPM
if bpm > 0:
print("BPM: %d" % bpm)
else:
print("No Heartbeat found")
time.sleep(1)
except:
p.stopAsyncBPM()
help="The port the OSC server is listening on")
args = parser.parse_args()
# client = udp_client.SimpleUDPClient(args.ip, args.port)
client = udp_client.UDPClient(args.ip, args.port)
# msg.add_arg(4.0)
# # Add 4 messages in the bundle, each with more arguments.
# bundle.add_content(msg.build())
# print("\n\nargs\n", bundle.add_content)
# print("\n\n")
# bundle = bundle.build()
# You can now send it via a client as described in other examples.
## set up pulse sensor
p = Pulsesensor()
p.startAsyncBPM()
p2 = Pulsesensor(channel=1)
p2.startAsyncBPM()
## setup neo pixels
pixels = neopixel.NeoPixel(board.D18, 8)
## Regular led
led_pin = 21 # Initializing the GPIO pin 21 for LED
hrm_pin = 26
GPIO.setmode(GPIO.BCM) # We are using the BCM pin numbering
GPIO.setup(led_pin, GPIO.OUT) # Declaring pin 21 as output pin
GPIO.setup(hrm_pin, GPIO.IN)
ts = generateTimestamp()
basePath = '/home/pi/bluetooth_pi_2-master/little_blue_pi/files'
pathName = basePath + '/' + ts
os.mkdir(pathName)
baseFileName = ts
fileName = baseFileName
fullPath = pathName + '/' + fileName + '.csv'
writeFile(fullPath)
lines = ''
p = Pulsesensor()
# p.startAsyncBPM()
threading.Thread(target=signal_user_input).start()
try:
while True:
p.getBPMLoop()
bpm = p.BPM
dataTS = generateTimestamp()
if os.path.getsize(fullPath) > 39990000:
fileName = generateTimestamp()
fullPath = pathName + '/' + fileName + '.csv'
writeFile(fullPath)
appendToFile(fullPath, dataTS, bpm, annotation)
annotation = ''
from pulsesensor import Pulsesensor
import time
p = Pulsesensor()
p.startAsyncBPM()
try:
while True:
bpm = p.BPM
if bpm > 0:
print("BPM: %d" % bpm)
else:
print("No Heartbeat found")
time.sleep(1)
except:
p.stopAsyncBPM()
def __init__(self):
self.p = Pulsesensor()
print ("CONNECTED")
'''
BLUETOOTH CONNECTION ESTABLISHED
'''
'''
Setup
'''
threshold = 1015 # Threshold value for pressure to count for step.
step = 0 # Global step count
state = "STANDING" # Global User State
cap = MPR121.MPR121() # Initiating Capacitive Touch
cap.begin()
p = Pulsesensor() # Initiating Heart Rate Sensor
p.startAsyncBPM()
'''
LOOP
'''
while True:
# Flag for Developer
print("Loop Begins")
adc = MCP3008(0, 0)
# Channel 1 for velostat reading.
velostat = adc.read(1)
# Count the number of steps and the find the state.
from pulsesensor import Pulsesensor
import time
import threading
import RPi.GPIO as GPIO
GPIO.setmode(GPIO.BCM)
GPIO.setwarnings(False)
GPIO.setup(13, GPIO.OUT)
GPIO.setup(12, GPIO.OUT)
GPIO.setup(26, GPIO.OUT)
p = Pulsesensor()
class ThreadPulse:
def __init__(self):
self.Raw = 0
self.PulseRate = 0
def pulse_loop(self):
p.startAsyncBPM()
while not self.thread.stopped:
self.PulseRate = p.BPM
self.Raw = p.RAW_DATA
#print(self.Raw)
time.sleep(1)
p.stopAsyncBPM()
def start_thread(self):
self.thread = threading.Thread(target=self.pulse_loop)
self.thread.stopped = False
GPIO.output(13, 1)
from pulsesensor import Pulsesensor #import pulse sensor library
import time #import time library
p = Pulsesensor() #store pulse sensor in variable p (tidies code up)
p.startAsyncBPM() #starts the BPM (beats per minute) monitoring
try: #allows you to cancel with Ctrl-C
while True: #loops forever
bpm = p.BPM #stores BPM in bpm variable
if bpm > 0: #checks for pulse
print("BPM: " + str(bpm)) #this prints the BPM to screen
else: #this happens if no beats per minute register
print("No Heartbeat found")
time.sleep(1) #waits for 1 second
except:
p.stopAsyncBPM() #stops BPM monitoring if Ctrl-C is pressed
import os
from math import fabs
#sys.path.append('/home/pi/Adafruit_Python_MCP3008/examples/')
from pulsesensor import Pulsesensor
from imutils.video import VideoStream
from imutils import face_utils
import numpy as np
import argparse
import imutils
import time
import dlib
import cv2
import RPi.GPIO as GPIO
from time import sleep
#---------------------------CONFIGURATION FOR HEARTBEAT SENSOR--------------------
p = Pulsesensor() #The class that reads the value from ADC
p.startAsyncBPM() #Start reading the value periodically in a different thread
buzzer_pin = 18 #Pin number to which the buzzer is connected [BCM,Raspberry Pi Model B]
led_pin = 14 #Pin number to which the LED light is connected. It remains on when the eyes are closed
min_bpm = 50 #Minimum BPM threshold below which the buzzer will sound
max_bpm = 200 #mum BPM threshold above which the buzzer will sound
#This parameters filter noise value by accepting fixed number of BPM values
#which exists within a valid range
last_bpm = 0 #The Last BPM read from the Sensor class
bpm_in_range = 0 #Number of BPM value detected which is within the range
bpm_max_val = 3 #Number of consecutive BPM values that must exist within a valid range
#Maximum difference between last value read and current value read
range_val = 20 #Maximum difference between last and current BPM value that validates range
processing = False #The detected BPM value was obtained while calculating BPM or from the sensor
#---------------------------CONFIGURATION FOR HEARTBEAT SENSOR--------------------
GPIO.setmode(GPIO.BCM)