def __init__(self, actuator):
self.servo = None
self.stepper = None
self.pin = actuator['pin']
self.idle = 0
self.active = 1
self.speed = 0
self.time = 0
self.delay = 0
self.actuator = None
self.sensor = None
self.trigger = 40000
self.triggered = False
if "idle_state" in actuator: self.idle = actuator['idle_state']
if "active_state" in actuator: self.active = actuator['active_state']
if "speed" in actuator: self.speed = actuator['speed']
if "time" in actuator: self.time = actuator['time']
if "delay" in actuator: self.delay = actuator['delay']
if 'trigger' in actuator: self.trigger = actuator['trigger']
if "sensor" in actuator: self.sensor = machine.ADC(actuator['sensor'])
if not isinstance(self.pin, dict):
if self.speed: # Assume servo
x = int(self.pin[1:]) + 1
self.servo = Servo(x)
else:
self.actuator = machine.Pin(self.pin, machine.Pin.OUT)
else:
#TODO Handle Stepper motor
pass
self.current_state = self.idle
def __init__(self, left_servo, right_servo):
# This motor requires a timer @ 500 Hz so modify the timer(5) used by Servo from 50 HZ to 500 Hz
self._left = Servo(left_servo)
#self.left.calibration(500, 2500, 1500, 2500, 2500)
self._right = Servo(right_servo)
#self.right.calibration(500, 2500, 1500, 2500, 2500)
self._moving = False
self.stop()
def __init__(self, p=0, i=0, d=0, imax=0):
self.pan = Servo(1) # P7
self.tilt = Servo(2) # P8
self._kp = float(p)
self._ki = float(i)
self._kd = float(d)
self._imax = abs(imax)
self._last_derivative = float('nan')
self.corresponding_angle = 0.5 # per pixel
self.scan_speed = 240
self._mode_angle_map = {
1: 0,
2: 0,
}
def __init__(self):
self.vd = ADC(Pin(Pin.cpu.A2))
self.servo = Servo(4)
self.curr_angle = self.center_angle = 48
self.f2b = 0
self.r1 = Pin(Pin.cpu.C4, Pin.OUT)
self.r2 = Pin(Pin.cpu.A4, Pin.OUT)
self.t2 = Timer(2, freq=1000)
self.l = self.t2.channel(2, Timer.PWM, pin=Pin(Pin.cpu.B3))
self.l1 = Pin(Pin.cpu.B9, Pin.OUT)
self.l2 = Pin(Pin.cpu.B0, Pin.OUT)
self.t8 = Timer(8, freq=1000)
self.r = self.t8.channel(3, Timer.PWM_INVERTED, pin=Pin(Pin.cpu.B15))
self.lv = 0
self.rv = 0
self.v = 25
self.countR = self.countL = 0
self.turn(self.center_angle)
self.dinit_encoder()
self.init_encoder()
def pins_test():
i2c = I2C(1, I2C.MASTER)
spi = SPI(2, SPI.MASTER)
uart = UART(3, 9600)
servo = Servo(1)
adc = ADC(Pin.board.X3)
dac = DAC(1)
pin = Pin('X4', mode=Pin.AF_PP, af=Pin.AF3_TIM9)
pin = Pin('Y1', mode=Pin.AF_OD, af=3)
pin = Pin('Y2', mode=Pin.OUT_PP)
pin = Pin('Y3', mode=Pin.OUT_OD, pull=Pin.PULL_UP)
pin.high()
pin = Pin('Y4', mode=Pin.OUT_OD, pull=Pin.PULL_DOWN)
pin.high()
pin = Pin('X18', mode=Pin.IN, pull=Pin.PULL_NONE)
pin = Pin('X19', mode=Pin.IN, pull=Pin.PULL_UP)
pin = Pin('X20', mode=Pin.IN, pull=Pin.PULL_DOWN)
print('===== output of pins() =====')
pins()
print('===== output of af() =====')
af()
# Servo Control Example
#
# This example shows how to use your OpenMV Cam to control servos.
import time
from pyb import Servo
s1 = Servo(1) # P7
s2 = Servo(2) # P8
while(True):
for i in range(1000):
s1.pulse_width(1000 + i)
s2.pulse_width(1999 - i)
time.sleep(10)
for i in range(1000):
s1.pulse_width(1999 - i)
s2.pulse_width(1000 + i)
time.sleep(10)
# Servo Control Example
# This example shows how to use your OpenMV Cam to control servos.
# Hardware : Servo, OpenMV
# connect:
# Servo OpenMV
# VCC 5V
# GND GND
# data1 P7
# data2 P8
import time
from pyb import Servo, Pin
s1 = Servo(1) # P7
s2 = Servo(2) # P8
while (True):
s1.angle(0)
s2.angle(0)
time.sleep(1000)
s1.angle(90)
s2.angle(90)
time.sleep(1000)
s1.angle(0)
s2.angle(0)
time.sleep(1000)
s1.angle(-90)
s2.angle(-90)
time.sleep(1000)
from pyb import Servo servo = Servo(1) print(servo) servo.angle(0) servo.angle(10, 100) servo.speed(-10) servo.speed(10, 100) servo.pulse_width(1500) print(servo.pulse_width()) servo.calibration(630, 2410, 1490, 2460, 2190) print(servo.calibration())
import sensor, image, time import time from pyb import UART from pyb import Servo from pyb import Pin laser_disable=0 laser_enable=1 uart = UART(3, 921600, timeout=50) #串口初始化定义 p4 p5 # red_threshold =(0, 100, 17, 127, -128, 127) # 以前 red_threshold = (20, 68, 41, 127, -13, 54) yellow_threshold = red_threshold #白天 室外 (0, 100, 24, 127, -128, 127) 曝光值 0.6 #室内 灯光 (0, 100, 17, 127, -128, 127) 曝光值 1.5 up_servo=Servo(1) #p7 p8 down_servo=Servo(2) up_servo_zero_position = 1500 down_servo_zero_position = 1440 #up_servo_zero_position = 1800 #向下正 #down_servo_zero_position = 1100 #向左正 up_servo.pulse_width(up_servo_zero_position) down_servo.pulse_width(down_servo_zero_position) kp_up = -2.6 ki_up = -0.42 kd_up = -0.43 kp_down = 3.19 ki_down = 0.46 kd_down = 0.43
# In this example we are going use Servo and Slider by reading using the ADC
# Make sure you have the Servo checkbox marked!
# Make sure you have the ADC checkbox marked!
# use the reset button to stop example
from machine import Pin
from pyb import ADC, Servo
from time import sleep_ms
# The slider is connected to pin Y4, try adjusting it
slider = ADC(Pin('Y4'))
# The pyboard has four simple servo connections
servo = Servo(1)
# calculate the basic step
STEP = 255 / 180
last = -1
print("Servo and Slider demo started..")
while True:
pos = slider.read()
if (pos != last):
angle = int((pos / STEP) - 90) # get the angle
print("Slider position: ", pos, " Servo angle: ", angle)
servo.angle(angle, 100) # set servo angle
last = pos
sleep_ms(10)
#颜色识别内容
import sensor, image, time, math, pyb
from pyb import UART
from pyb import Servo
s1 = Servo(1) #P7 舵机1
s1.pulse_width(1900) #舵机1初始化到中间位置
#设置颜色识别阈值
green_threshold = (8, 20, -22, -9, -4, 19)#(22, 46, -49, -20, -33, 24)(11, 83, -43, -25, -2, 26)
white_threshold = (38, 47, -7, 7, -5, 5)
GRAYSCALE_THRESHOLD = [(13, 69)]
#发送的数据种类选择·
X_Size = 200
H_Size = 210
#找到最大的那块
def find_max(blobs):
max_size=0
for blob in blobs:
if blob[2]*blob[3]>max_size:
max_blob = blob
max_size = blob[2]*blob[3]
return max_blob
#限幅函数
def XianFu(Data1,Data2):
biggest = 1500
if(Data1>biggest):
import time
from pyb import (USB_VCP, Servo)
SLEEP = 0.1
UP = -90
DOWN = 0
SPEED = 1000
servo = Servo(1)
servo.angle(30)
p = USB_VCP()
while True:
if p.any():
command = p.readline().strip()
if command == b'up':
servo.angle(UP, SPEED)
p.write(b'up-ok\n')
elif command == b'down':
servo.angle(DOWN, SPEED)
p.write(b'down-ok\n')
else:
p.write(command + b'\n')
p.write(b'err\n')
time.sleep(SLEEP)
版本：v1.0
日期：2019.9
作者：01Studio
说明：通过USER按键让让舵机旋转不同角度。
'''
#导入相关模块
from pyb import Servo, ExtInt
from machine import Pin, I2C
from ssd1306x import SSD1306_I2C
#初始化相关模块
i2c = I2C(sda=Pin("P0"), scl=Pin("P2"), freq=80000)
oled = SSD1306_I2C(128, 64, i2c, addr=0x3c)
s1 = Servo(1) #构建舵机对象s1，输出引脚为X1
#定义5组角度：-90、-45、0、45、90
angle = [-90, -45, 0, 45, 90]
key_node = 0 #按键标志位
i = 0 #用于选择角度
##############################################
# 按键和其回调函数
##############################################
def key(ext):
global key_node
key_node = 1
# Autonomous rover code by Chris Anderson, 3DR, DIY Robocars # Copyrigbt 2017 # Released under a BSD 2.0 Open Source Licence import sensor, image, pyb, math, time from pyb import Servo from pyb import LED s1 = Servo(1) # P7 Motor s2 = Servo(2) # P8 Steering print (s1.calibration()) # show throttle servo calibration cruise_speed = 0 # how fast should the car drive, range from 1000 to 2000 steering_gain = 500 kp = 0.8 # P term of the PID ki = 0 # I term of the PID kd = 0 # D term of the PID red_led = LED(1) green_led = LED(2) blue_led = LED(3) ir_led = LED(4) old_error = 0 measured_angle = 0 set_angle = 90 # this is the desired steering angle (straight ahead) p_term = 0 i_term = 0 d_term = 0 old_time = pyb.millis() def led_control(x):
from pyb import Servo servo = Servo(1) print(servo) servo.angle(0) servo.angle(10, 100) servo.speed(-10) servo.speed(10, 100) servo.pulse_width(1500) print(servo.pulse_width()) servo.calibration(630, 2410, 1490, 2460, 2190) print(servo.calibration())
Create date: 3/15/2016 Last modified date: 3/30/2016 from pyb import Servo ''' import pyb from pyb import Pin from pyb import Servo from pyb import LED l1=LED(1) l2=LED(2) l3=LED(3) l4=LED(4) # creat servo projects. s1 = Servo(1) s2 = Servo(2) s3 = Servo(3) #s4 = Servo(4) # go to straight line ''' s1.angle(0,2000) pyb.delay(1000) s2.angle(0,2000) pyb.delay(1000) s3.angle(0,2000) pyb.delay(1000) # Movement 1 s1.angle(-50,2000)
import sensor, image, time, math import pyb, ustruct import time from pyb import Servo #P4 -> 21 #P5->20 s1 = Servo(1) # P7 s2 = Servo(2) # P8 sensor.reset() sensor.set_pixformat(sensor.RGB565) sensor.set_framesize(sensor.QQVGA) sensor.skip_frames(time=2000) sensor.set_brightness(0) sensor.set_contrast(0) sensor.set_auto_gain(False) sensor.set_auto_whitebal(False) clock = time.clock() tag_families = 0 tag_families |= image.TAG16H5 s1.pulse_width(1450) s2.pulse_width(1200) def family_name(tag):
# AprilTags Example
#
# This example shows the power of the OpenMV Cam to detect April Tags
# on the OpenMV Cam M7. The M4 versions cannot detect April Tags.
#库导入
import sensor, image, time, math
import json
from pyb import Servo
from pyb import UART
uart = UART(3, 9600) #串口输出设置
#相机初始化
s1 = Servo(1) # P7 Servo
s2 = Servo(2) # P8 Servo
ss1=90
ss2=90
sensor.reset()
sensor.set_pixformat(sensor.GRAYSCALE)
sensor.set_framesize(sensor.HQVGA) # we run out of memory if the resolution is much bigger...
sensor.skip_frames(30)
sensor.set_auto_gain(True) # must turn this off to prevent image washout...
sensor.set_auto_whitebal(False) # must turn this off to prevent image washout...
clock = time.clock()
#相机分辨率矫正
f_x = (2.8 / 3.984) * 160 # 默认值
f_y = (2.8 / 2.952) * 120 # 默认值
c_x = 240 * 0.5 # 默认值(image.w * 0.5)
c_y = 160 * 0.5 # 默认值(image.h * 0.5)
def degrees(radians):
return (180 * radians) / math.pi
while(True): #主循环
# 设计：沈阳航空航天大学 berry
# 博客：https://blog.csdn.net/qq_45037925/article/details/105901893
# 交流方式：私信我的博客即可
import time
from pyb import Servo
import sensor, image, time
from pyb import UART
#导入需要的模块
s1 = Servo(1) # P7
s2 = Servo(2) # P8
s3 = Servo(3) # P9 Only for OpenMV3 M7
#实例化3个舵机
uart = UART(3, 115200) #初始化串口
s2_now = -90
s3_now = 0
red_threshold = (21, 100, 36, 127, -9, 34
) #颜色阈值1 0001(14, 100, 8, 127, 9, 116)
blue_threshold = ((20, 67, -52, -13, -36, -1)) #颜色阈值2 0010
yellow_threshold = (14, 100, 22, 127, 42, 113) #颜色阈值4 0100
from pyb import Servo
from objects import RCmotors
print("tests:")
print("- (s)ervo")
print("- (m)otor")
servo = Servo(1)
motors = RCmotors(0)
motors.speed(0)
test_name = input("test to run: ")
if test_name == "s":
while True:
value = input("> ")
if value == 'r':
servo.angle(-12)
elif value == 'l':
servo.angle(14)
elif value == 'f':
servo.angle(2)
else:
try:
servo.angle(int(value))
except ValueError:
pass
elif test_name == "m":
while True:
版本：v1.0
日期：2019.9
作者：01Studio
说明：通过USER按键让舵机实现不同速度旋转。
'''
#导入相关模块
from pyb import Servo, ExtInt
from machine import Pin, I2C
from ssd1306x import SSD1306_I2C
#初始化相关模块
i2c = I2C(sda=Pin("P0"), scl=Pin("P2"), freq=80000)
oled = SSD1306_I2C(128, 64, i2c, addr=0x3c)
s1 = Servo(1) #构建舵机对象s1，输出引脚为X1
#定义5组速度值
speed = [-100, -50, 0, 50, 100]
key_node = 0 #按键标志位
i = 0 #用于选择角度
##############################################
# 按键和其回调函数
##############################################
def key(ext):
global key_node
key_node = 1
class MyServo:
_kp = _ki = _kd = _integrator = _imax = 0
_last_error = _last_derivative = _last_t = 0
_RC = 1 / (2 * pi * 20)
def __init__(self, p=0, i=0, d=0, imax=0):
self.pan = Servo(1) # P7
self.tilt = Servo(2) # P8
self._kp = float(p)
self._ki = float(i)
self._kd = float(d)
self._imax = abs(imax)
self._last_derivative = float('nan')
self.corresponding_angle = 0.5 # per pixel
self.scan_speed = 240
self._mode_angle_map = {
1: 0,
2: 0,
}
def init(self, mode=1, tilt_angle=0):
# self.pan.angle(self._mode_angle_map[mode])
self.tilt.angle(tilt_angle)
def get_pid(self, error, scaler):
tnow = millis()
dt = tnow - self._last_t
output = 0
if self._last_t == 0 or dt > 1000:
dt = 0
self.pid_clear()
self._last_t = tnow
delta_time = float(dt) / float(1000)
output += error * self._kp
if abs(self._kd) > 0 and dt > 0:
if isnan(self._last_derivative):
derivative = 0
self._last_derivative = 0
else:
derivative = (error - self._last_error) / delta_time
derivative = self._last_derivative + (
(delta_time / (self._RC + delta_time)) *
(derivative - self._last_derivative))
self._last_error = error
self._last_derivative = derivative
output += self._kd * derivative
output *= scaler
if abs(self._ki) > 0 and dt > 0:
self._integrator += (error * self._ki) * scaler * delta_time
if self._integrator < -self._imax:
self._integrator = -self._imax
elif self._integrator > self._imax:
self._integrator = self._imax
output += self._integrator
return output
def pid_clear(self):
self._integrator = 0
self._last_derivative = float('nan')
def rotate_steering_gear(self, delta_pixel):
delta_pixel = -delta_pixel
pan_output = self.get_pid(delta_pixel, 1) / 2
self.pan.angle(self.pan.angle() + pan_output)
return self.pan.angle()
def scan(self, count):
parity = 0
if count % 2 == 0:
if parity == 1:
self.pid_clear()
parity = 0
self.rotate_steering_gear(self.scan_speed)
elif count % 2 == 1:
if parity == 0:
self.pid_clear()
parity = 1
self.rotate_steering_gear(-self.scan_speed)
return self.pan.angle()
import sensor, image, time
from pid import PID
from pyb import Servo
pan_servo=Servo(1)
tilt_servo=Servo(2)
pan_servo.calibration(500,2500,500)
tilt_servo.calibration(500,2500,500)
red_threshold = (13, 49, 18, 61, 6, 47)
pan_pid = PID(p=0.07, i=0, imax=90) #脱机运行或者禁用图像传输，使用这个PID
tilt_pid = PID(p=0.05, i=0, imax=90) #脱机运行或者禁用图像传输，使用这个PID
#pan_pid = PID(p=0.1, i=0, imax=90)#在线调试使用这个PID
#tilt_pid = PID(p=0.1, i=0, imax=90)#在线调试使用这个PID
sensor.reset() # Initialize the camera sensor.
sensor.set_pixformat(sensor.GRAYSCALE) # use RGB565.
sensor.set_framesize(sensor.QVGA) # use QQVGA for speed.
sensor.set_vflip(True)
sensor.skip_frames(10) # Let new settings take affect.
sensor.set_auto_whitebal(False) # turn this off.
clock = time.clock() # Tracks FPS.
face_cascade = image.HaarCascade("frontalface", stages=25)
def find_max(blobs):
max_size=0
for blob in blobs:
if blob[2]*blob[3] > max_size:
sleep(1)
led.fill(blue)
led.write()
sleep(1)
led.fill((255, 0, 255)) # Magenta
led.write()
sleep(1)
led.fill((0, 0, 0)) # Black
led.write()
lcd.println('ok')
lcd.print("Servo:")
servo1 = Servo(1) # from -90 to +90 angle. At 0 degree at initialisation
servo2 = Servo(2)
servo3 = Servo(3)
servo4 = Servo(4)
# Create a list of sevo for convenience
servo_list = [servo1, servo2, servo3, servo4]
print("All servos at -90")
for servo in servo_list:
servo.angle(-90)
sleep(0.5)
print("All servos at +90")
for servo in servo_list:
servo.angle(+90)
import sensor, image, time
import network, usocket, sys
#import utils
from pyb import UART
from pyb import LED
from pyb import Servo
from pyb import Pin, Timer
blue_led = LED(3)
green_led = LED(2)
red_led = LED(1)
sx = Servo(1) # P7
sy = Servo(2) # P8
gainx = -5
gainy = -5
uart = UART(3, 9600)
uart.init(9600, bits=8, parity=None, stop=1)
EXPOSURE_TIME_SCALE = 0.05
thresholds = (65, 255)
roi1 = (0,0,320,240)
tim = Timer(4, freq=1)
def find_max(blobs):
max_size=0
for blob in blobs:
if blob.pixels() > max_size:
max_blob=blob
sensor.reset()
sensor.set_pixformat(sensor.RGB565)
sensor.set_framesize(sensor.QVGA)
sensor.skip_frames(time=2000)
sensor.set_auto_gain(False) # Must be turned off for color tracking
sensor.set_auto_whitebal(False) # Must be turned off for color tracking
clock = time.clock()
# Only blobs that with more pixels than "pixel_threshold" and more area than "area_threshold" are
# returned by "find_blobs" below. Change "pixels_threshold" and "area_threshold" if you change the
# camera resolution. Don't set "merge=True" becuase that will merge blobs which we don't want here.
####################################################################
# Servo initialization and calibration here
pan = Servo(1) # use PWM on P7, s2 on shield
pan.calibration(540, 2400, 540, 1400, 1500)
pan.angle(90)
tilt = Servo(2) # use PWM on P8, s1 on shield
tilt.calibration(540, 2400, 1200, 1800, 1500)
tilt.angle(90)
delay(1000) # delay to give servos time to get to 90 & 90
#####################################################################
#####################################################################
# DC Motor pin setup
LEFT_MOTOR1 = Pin('P0', Pin.OUT_PP, Pin.PULL_NONE)
LEFT_MOTOR2 = Pin('P1', Pin.OUT_PP, Pin.PULL_NONE)
p_in = Pin('X2', Pin.IN, Pin.PULL_UP)
p_in.value() # get value, 0 or 1
# pin PWM control
from pyb import Pin, Timer
p = Pin('X1') # X1 has TIM2, CH1
tim = Timer(2, freq=1000)
ch = tim.channel(1, Timer.PWM, pin=p)
ch.pulse_width_percent(50)
# servo control
from pyb import Servo
s1 = Servo(1) # servo on position 1 (X1, VIN, GND)
s1.angle(45) # move to 45 degrees
s1.angle(-60, 1500) # move to -60 degrees in 1500ms
s1.speed(50) # for continuous rotation servos
# ADC/DAC
from pyb import Pin, ADC
adc = ADC(Pin('X19'))
adc.read() # read value, 0-4095
from pyb import Pin, DAC
dac = DAC(Pin('X5'))
dac.write(120) # output between 0 and 255
from pyb import Accel, Servo
servo = Servo(1)
accel = Accel()
while 1:
servo.angle(accel.x(), 100)
pyb.delay(200)
class Actuator:
def __init__(self, actuator):
self.servo = None
self.stepper = None
self.pin = actuator['pin']
self.idle = 0
self.active = 1
self.speed = 0
self.time = 0
self.delay = 0
self.actuator = None
self.sensor = None
self.trigger = 40000
self.triggered = False
if "idle_state" in actuator: self.idle = actuator['idle_state']
if "active_state" in actuator: self.active = actuator['active_state']
if "speed" in actuator: self.speed = actuator['speed']
if "time" in actuator: self.time = actuator['time']
if "delay" in actuator: self.delay = actuator['delay']
if 'trigger' in actuator: self.trigger = actuator['trigger']
if "sensor" in actuator: self.sensor = machine.ADC(actuator['sensor'])
if not isinstance(self.pin, dict):
if self.speed: # Assume servo
x = int(self.pin[1:]) + 1
self.servo = Servo(x)
else:
self.actuator = machine.Pin(self.pin, machine.Pin.OUT)
else:
#TODO Handle Stepper motor
pass
self.current_state = self.idle
def isActivated(self):
return self.current_state == self.active
def triggerActuator(self, value):
try:
if isinstance(self.pin, dict):
print("TODO: triggerActuator handle stepper motors")
pass
else:
if self.servo:
self.servo.angle(value, self.speed)
else:
self.actuator.value(value)
except Exception as e:
sys.print_exception(e)
def activate(self):
print("Activating %s: %s" % (self.pin, self.active))
self.triggerActuator(self.active)
self.current_state = self.active
if not isinstance(self.pin, dict) and not self.sensor:
print("time: %i" % self.time)
time.sleep_ms(self.time)
if not self.sensor:
self.deactivate()
print("delay: %i" % self.delay)
time.sleep_ms(self.delay)
else:
pass
def deactivate(self):
print("Deativating %s: %s" % (self.pin, self.idle))
self.triggerActuator(self.idle)
self.current_state = self.idle
def readSensor(self):
if self.isActivated():
sensor_value = self.sensor.read_u16()
self.triggered = sensor_value >= self.trigger
print(self.sensor, self.triggered, sensor_value)
return self.triggered
# Servo Control Example
#
# This example shows how to use your OpenMV Cam to control servos.
import time
from pyb import Servo
s1 = Servo(1) # P7
s2 = Servo(2) # P8
while (True):
for i in range(1000):
s1.pulse_width(1000 + i)
s2.pulse_width(1999 - i)
time.sleep(10)
for i in range(1000):
s1.pulse_width(1999 - i)
s2.pulse_width(1000 + i)
time.sleep(10)
# main.py -- put your code here!
import pyb # importing the board
# move servo based on the movement of the board
from pyb import Servo
accel = pyb.Accel() # assigning the sensor to act as movement detector…
ss = Servo(1) # servo on position 1 (X1, VIN, GND)
while True: # while loop
if accel.x() > 5:
ss.angle(90)
elif accel.x() < -5:
ss.angle(-90)
elif accel.x() == 0:
ss.angle(0)
import sensor, image, time
from pid import PID
from pyb import Servo
pan_servo = Servo(1)
tilt_servo = Servo(2)
red_threshold = (13, 49, 18, 61, 6, 47)
pan_pid = PID(p=0.07, i=0, imax=90) #脱机运行或者禁用图像传输，使用这个PID
tilt_pid = PID(p=0.05, i=0, imax=90) #脱机运行或者禁用图像传输，使用这个PID
#pan_pid = PID(p=0.1, i=0, imax=90)#在线调试使用这个PID
#tilt_pid = PID(p=0.1, i=0, imax=90)#在线调试使用这个PID
sensor.reset() # Initialize the camera sensor.
sensor.set_pixformat(sensor.GRAYSCALE) # use RGB565.
sensor.set_framesize(sensor.QVGA) # use QQVGA for speed.
sensor.set_vflip(True) #图像镜像 垂直翻转
sensor.skip_frames(10) # Let new settings take affect.
sensor.set_auto_whitebal(False) # turn this off.
clock = time.clock() # Tracks FPS.
face_cascade = image.HaarCascade("frontalface", stages=25)
def find_max(blobs):
max_size = 0
for blob in blobs:
if blob[2] * blob[3] > max_size:
max_blob = blob
max_size = blob[2] * blob[3]
# Test the 4 servo ouputs labelled SERVO1, SERVO2, SERVO3 & SERVO4 from pyb import Servo from time import sleep servo1 = Servo(1) # from -90 to +90 angle. At 0 degree at initialisation servo2 = Servo(2) servo3 = Servo(3) servo4 = Servo(4) # Create a list of sevo for convenience servo_list = [ servo1,servo2, servo3, servo4 ] print( "All servos at -90" ) for servo in servo_list: servo.angle( -90 ) sleep( 0.5 ) print( "All servos at +90" ) for servo in servo_list: servo.angle( +90 ) sleep( 0.5 ) print( "All servos at 0 degree (at once)" ) for servo in servo_list: servo.angle( 0 ) print( "Wait 2 seconds") sleep( 2 ) print( "coordinate servo movement" ) # Coordonate move to -90° for servo1 & servo2 during 2 seconds # while coordinate move to +90° for servo3 & servo4 during the same 2 seconds.
import sensor, image, time
from pyb import Pin
from pyb import Servo
tile_servo = Servo(1) #上
pan_servo = Servo(2) #下
pan_servo.angle(-2)
pan_servo.angle(0)
s = Pin('P5', Pin.IN, Pin.PULL_DOWN)
s_8 = Pin('P1', Pin.OUT_PP)
s_4 = Pin('P2', Pin.OUT_PP)
s_2 = Pin('P3', Pin.OUT_PP)
s_1 = Pin('P4', Pin.OUT_PP)
red_threshold = (18, 55, 23, 90, -3, 80)
k = 2479
list_num = []
data = 0
i = 0
fire = 0
num = 0
sensor.reset() # Initialize the camera sensor.
sensor.set_pixformat(sensor.RGB565) # use RGB565.
sensor.set_framesize(sensor.QQVGA) # use QQVGA for speed.
sensor.skip_frames(10) # Let new settings take affect.
sensor.set_auto_whitebal(False) # turn this off.
clock = time.clock() # Tracks FPS.
s.low()
s_8.low()
s_4.low()
