RVC  1.15.0
a product by RVBUST.
adjust capture parameters
# Copyright (c) RVBUST, Inc - All rights reserved.
import PyRVC as RVC
import numpy as np
import os
# Make sure you install the opencv-python.
import cv2
from Utils.Tools import *
def App():
# Initialize RVC system.
# Choose RVC Camera type (USB, GigE or All)
opt = RVC.SystemListDeviceTypeEnum.All
# Scan all RVC Camera devices.
ret, devices = RVC.SystemListDevices(opt)
print("RVC Camera devices number:%d" % len(devices))
# Find whether any RVC Camera is connected or not.
if len(devices) == 0:
print("Can not find any RVC Camera!")
return 1
print("devices size =%d" % len(devices))
if devices[0].IsFirmwareMatch() == False:
print("device firmware mismatch, Please use RVCManager to upgrade the firmware")
exit(1)
# Create a RVC Camera and choose use left side camera.
x = RVC.X1.Create(devices[0], RVC.CameraID_Left)
# Test RVC Camera is valid or not.
if x.IsValid() == True:
print("RVC Camera is valid!")
else:
print("RVC Camera is not valid!")
return 1
# Print Supported Capture_Mode
#PrintCaptureMode(devices[0])
# Open RVC Camera.
ret1 = x.Open()
# Test RVC Camera is opened or not.
if x.IsOpen() == True:
print("RVC Camera is opened!")
else:
print("Failed to open camera! Please check whether the camera is connected and make sure it is not occupied and supports X1.")
return 1
# Print ExposureTime Range
_, exp_range_min, exp_range_max = x.GetExposureTimeRange()
print("ExposureTime Range:[{}, {}]".format(exp_range_min, exp_range_max))
# Set capture parameters.
cap_opt = RVC.X1_CaptureOptions()
ret,cap_opt = x.LoadCaptureOptionParameters()
# Whether calculate 3D points normal vector
cap_opt.calc_normal = False
# calculate normal radius
cap_opt.calc_normal_radius = 5
# Transform point map's coordinate to camera or reference plane.
cap_opt.transform_to_camera = True
# Set noise points filter range (0~30).
cap_opt.filter_range = 0
# Set phase filter range (0~40)
cap_opt.phase_filter_range = 0
# Set projector brightness (1~240)
cap_opt.projector_brightness = 240
# Set 2d and 3d exposure time (3~100) ms.
cap_opt.exposure_time_2d = 30
cap_opt.exposure_time_3d = 30
# Set 2d and 3d gain. the default value is 0. The gain value of each series cameras is different, you can call function GetGainRange() to get specific range.
cap_opt.gain_2d = 0
cap_opt.gain_3d = 0
# Set 2d and 3d gamma. the default value is 1. The gamma value of each series cameras is different, you can call function GetGammaRange() to get specific range.
cap_opt.gamma_2d = 1
cap_opt.gamma_3d = 1
# For color camera, it needs only once auto white balance before the first capture when the light condition of scene has no big change.
# white_balace_times is how many images used for automatic calculate the white balance parameters. range (0, 20). we commend 10 times for usual case.
use_auto_white_balance = False
if use_auto_white_balance:
white_balace_times = 10
ret2 = x.AutoWhiteBalance(white_balace_times)
if ret2:
print("Success AutoWhiteBalance")
else:
print("Failed AutoWhiteBalance")
# Set camera bandwidth [0.3, 1]
ret3 = x.SetBandwidth(0.5)
if not ret3:
print("Failed SetBandwidth")
else:
print("Success SetBandwidth")
# Set 2d image whether use projector. Only gray camera setting this option work.
cap_opt.use_projector_capturing_2d_image = True
# Capture a point map and a image with default setting.
ret4 = x.Capture(cap_opt)
# Create saving address of image and point map.
save_address = "Data"
TryCreateDir(save_address)
if ret4:
print("RVC Camera capture successed!")
# Get image data.
img = x.GetImage()
width = img.GetSize().cols
height = img.GetSize().rows
# Get image size and color information.
print("width=%d, height=%d" % (width, height))
img_type = img.GetType()
if img_type == RVC.ImageTypeEnum.Mono8:
print("This is mono camera")
else:
print("This is color camera")
# Save image
if img.SaveImage(save_address + "/image.png"):
print("Save image successed!")
else:
print("Save image failed!")
# Get point map data (m) and save it.
if cap_opt.calc_normal:
pm = x.GetPointMap()
normals = pm.GetNormalDataPtr()
# Modified the usage of normals
# normals = normals.reshape(-1, 3)
normals = np.array(normals, copy=False).reshape(-1, 3)
pm = np.array(pm, copy=False).reshape(-1, 3)
SavePointMapWithNormal(pm, normals, height*width, "Data/test.ply")
else:
pm = np.array(x.GetPointMap(), copy=False).reshape(-1, 3)
SavePointMap(pm, height*width, "Data/test.ply")
print("Save point map successed!")
else:
print("RVC Camera capture failed!")
x.Close()
return 1
# Close RVC Camera.
x.Close()
# Destroy RVC Camera.
# Shut Down RVC System.
return 0
if __name__ == '__main__':
App()