718c41634f
1.项目后端整体迁移至PaddleOCR-NCNN算法，已通过基本的兼容性测试 2.工程改为使用CMake组织，后续为了更好地兼容第三方库，不再提供QMake工程 3.重整权利声明文件，重整代码工程，确保最小化侵权风险 Log: 切换后端至PaddleOCR-NCNN，切换工程为CMake Change-Id: I4d5d2c5d37505a4a24b389b1a4c5d12f17bfa38c
459 lines
16 KiB
Python
459 lines
16 KiB
Python
import argparse
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import time
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import numpy as np
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import cv2 as cv
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# ------------------------Service operations------------------------
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def weight_path(model_path):
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""" Get path of weights based on path to IR
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Params:
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model_path: the string contains path to IR file
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Return:
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Path to weights file
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"""
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assert model_path.endswith('.xml'), "Wrong topology path was provided"
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return model_path[:-3] + 'bin'
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def build_argparser():
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""" Parse arguments from command line
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Return:
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Pack of arguments from command line
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"""
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parser = argparse.ArgumentParser(description='This is an OpenCV-based version of Gaze Estimation example')
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parser.add_argument('--input',
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help='Path to the input video file')
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parser.add_argument('--out',
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help='Path to the output video file')
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parser.add_argument('--facem',
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default='face-detection-retail-0005.xml',
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help='Path to OpenVINO face detection model (.xml)')
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parser.add_argument('--faced',
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default='CPU',
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help='Target device for the face detection' +
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'(e.g. CPU, GPU, VPU, ...)')
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parser.add_argument('--headm',
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default='head-pose-estimation-adas-0001.xml',
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help='Path to OpenVINO head pose estimation model (.xml)')
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parser.add_argument('--headd',
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default='CPU',
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help='Target device for the head pose estimation inference ' +
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'(e.g. CPU, GPU, VPU, ...)')
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parser.add_argument('--landm',
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default='facial-landmarks-35-adas-0002.xml',
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help='Path to OpenVINO landmarks detector model (.xml)')
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parser.add_argument('--landd',
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default='CPU',
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help='Target device for the landmarks detector (e.g. CPU, GPU, VPU, ...)')
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parser.add_argument('--gazem',
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default='gaze-estimation-adas-0002.xml',
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help='Path to OpenVINO gaze vector estimaiton model (.xml)')
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parser.add_argument('--gazed',
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default='CPU',
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help='Target device for the gaze vector estimation inference ' +
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'(e.g. CPU, GPU, VPU, ...)')
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parser.add_argument('--eyem',
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default='open-closed-eye-0001.xml',
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help='Path to OpenVINO open closed eye model (.xml)')
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parser.add_argument('--eyed',
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default='CPU',
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help='Target device for the eyes state inference (e.g. CPU, GPU, VPU, ...)')
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return parser
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# ------------------------Support functions for custom kernels------------------------
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def intersection(surface, rect):
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""" Remove zone of out of bound from ROI
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Params:
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surface: image bounds is rect representation (top left coordinates and width and height)
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rect: region of interest is also has rect representation
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Return:
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Modified ROI with correct bounds
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"""
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l_x = max(surface[0], rect[0])
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l_y = max(surface[1], rect[1])
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width = min(surface[0] + surface[2], rect[0] + rect[2]) - l_x
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height = min(surface[1] + surface[3], rect[1] + rect[3]) - l_y
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if width < 0 or height < 0:
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return (0, 0, 0, 0)
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return (l_x, l_y, width, height)
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def process_landmarks(r_x, r_y, r_w, r_h, landmarks):
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""" Create points from result of inference of facial-landmarks network and size of input image
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Params:
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r_x: x coordinate of top left corner of input image
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r_y: y coordinate of top left corner of input image
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r_w: width of input image
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r_h: height of input image
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landmarks: result of inference of facial-landmarks network
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Return:
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Array of landmarks points for one face
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"""
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lmrks = landmarks[0]
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raw_x = lmrks[::2] * r_w + r_x
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raw_y = lmrks[1::2] * r_h + r_y
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return np.array([[int(x), int(y)] for x, y in zip(raw_x, raw_y)])
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def eye_box(p_1, p_2, scale=1.8):
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""" Get bounding box of eye
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Params:
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p_1: point of left edge of eye
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p_2: point of right edge of eye
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scale: change size of box with this value
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Return:
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Bounding box of eye and its midpoint
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"""
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size = np.linalg.norm(p_1 - p_2)
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midpoint = (p_1 + p_2) / 2
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width = scale * size
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height = width
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p_x = midpoint[0] - (width / 2)
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p_y = midpoint[1] - (height / 2)
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return (int(p_x), int(p_y), int(width), int(height)), list(map(int, midpoint))
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# ------------------------Custom graph operations------------------------
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@cv.gapi.op('custom.GProcessPoses',
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in_types=[cv.GArray.GMat, cv.GArray.GMat, cv.GArray.GMat],
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out_types=[cv.GArray.GMat])
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class GProcessPoses:
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@staticmethod
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def outMeta(arr_desc0, arr_desc1, arr_desc2):
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return cv.empty_array_desc()
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@cv.gapi.op('custom.GParseEyes',
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in_types=[cv.GArray.GMat, cv.GArray.Rect, cv.GOpaque.Size],
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out_types=[cv.GArray.Rect, cv.GArray.Rect, cv.GArray.Point, cv.GArray.Point])
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class GParseEyes:
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@staticmethod
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def outMeta(arr_desc0, arr_desc1, arr_desc2):
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return cv.empty_array_desc(), cv.empty_array_desc(), \
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cv.empty_array_desc(), cv.empty_array_desc()
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@cv.gapi.op('custom.GGetStates',
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in_types=[cv.GArray.GMat, cv.GArray.GMat],
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out_types=[cv.GArray.Int, cv.GArray.Int])
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class GGetStates:
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@staticmethod
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def outMeta(arr_desc0, arr_desc1):
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return cv.empty_array_desc(), cv.empty_array_desc()
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# ------------------------Custom kernels------------------------
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@cv.gapi.kernel(GProcessPoses)
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class GProcessPosesImpl:
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""" Custom kernel. Processed poses of heads
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"""
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@staticmethod
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def run(in_ys, in_ps, in_rs):
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""" Сustom kernel executable code
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Params:
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in_ys: yaw angle of head
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in_ps: pitch angle of head
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in_rs: roll angle of head
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Return:
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Arrays with heads poses
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"""
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return [np.array([ys[0], ps[0], rs[0]]).T for ys, ps, rs in zip(in_ys, in_ps, in_rs)]
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@cv.gapi.kernel(GParseEyes)
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class GParseEyesImpl:
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""" Custom kernel. Get information about eyes
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"""
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@staticmethod
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def run(in_landm_per_face, in_face_rcs, frame_size):
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""" Сustom kernel executable code
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Params:
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in_landm_per_face: landmarks from inference of facial-landmarks network for each face
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in_face_rcs: bounding boxes for each face
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frame_size: size of input image
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Return:
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Arrays of ROI for left and right eyes, array of midpoints and
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array of landmarks points
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"""
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left_eyes = []
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right_eyes = []
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midpoints = []
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lmarks = []
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surface = (0, 0, *frame_size)
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for landm_face, rect in zip(in_landm_per_face, in_face_rcs):
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points = process_landmarks(*rect, landm_face)
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lmarks.extend(points)
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rect, midpoint_l = eye_box(points[0], points[1])
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left_eyes.append(intersection(surface, rect))
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rect, midpoint_r = eye_box(points[2], points[3])
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right_eyes.append(intersection(surface, rect))
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midpoints.append(midpoint_l)
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midpoints.append(midpoint_r)
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return left_eyes, right_eyes, midpoints, lmarks
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@cv.gapi.kernel(GGetStates)
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class GGetStatesImpl:
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""" Custom kernel. Get state of eye - open or closed
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"""
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@staticmethod
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def run(eyesl, eyesr):
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""" Сustom kernel executable code
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Params:
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eyesl: result of inference of open-closed-eye network for left eye
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eyesr: result of inference of open-closed-eye network for right eye
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Return:
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States of left eyes and states of right eyes
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"""
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out_l_st = [int(st) for eye_l in eyesl for st in (eye_l[:, 0] < eye_l[:, 1]).ravel()]
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out_r_st = [int(st) for eye_r in eyesr for st in (eye_r[:, 0] < eye_r[:, 1]).ravel()]
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return out_l_st, out_r_st
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if __name__ == '__main__':
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ARGUMENTS = build_argparser().parse_args()
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# ------------------------Demo's graph------------------------
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g_in = cv.GMat()
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# Detect faces
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face_inputs = cv.GInferInputs()
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face_inputs.setInput('data', g_in)
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face_outputs = cv.gapi.infer('face-detection', face_inputs)
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faces = face_outputs.at('detection_out')
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# Parse faces
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sz = cv.gapi.streaming.size(g_in)
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faces_rc = cv.gapi.parseSSD(faces, sz, 0.5, False, False)
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# Detect poses
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head_inputs = cv.GInferInputs()
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head_inputs.setInput('data', g_in)
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face_outputs = cv.gapi.infer('head-pose', faces_rc, head_inputs)
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angles_y = face_outputs.at('angle_y_fc')
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angles_p = face_outputs.at('angle_p_fc')
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angles_r = face_outputs.at('angle_r_fc')
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# Parse poses
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heads_pos = GProcessPoses.on(angles_y, angles_p, angles_r)
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# Detect landmarks
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landmark_inputs = cv.GInferInputs()
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landmark_inputs.setInput('data', g_in)
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landmark_outputs = cv.gapi.infer('facial-landmarks', faces_rc,
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landmark_inputs)
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landmark = landmark_outputs.at('align_fc3')
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# Parse landmarks
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left_eyes, right_eyes, mids, lmarks = GParseEyes.on(landmark, faces_rc, sz)
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# Detect eyes
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eyes_inputs = cv.GInferInputs()
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eyes_inputs.setInput('input.1', g_in)
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eyesl_outputs = cv.gapi.infer('open-closed-eye', left_eyes, eyes_inputs)
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eyesr_outputs = cv.gapi.infer('open-closed-eye', right_eyes, eyes_inputs)
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eyesl = eyesl_outputs.at('19')
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eyesr = eyesr_outputs.at('19')
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# Process eyes states
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l_eye_st, r_eye_st = GGetStates.on(eyesl, eyesr)
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# Gaze estimation
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gaze_inputs = cv.GInferListInputs()
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gaze_inputs.setInput('left_eye_image', left_eyes)
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gaze_inputs.setInput('right_eye_image', right_eyes)
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gaze_inputs.setInput('head_pose_angles', heads_pos)
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gaze_outputs = cv.gapi.infer2('gaze-estimation', g_in, gaze_inputs)
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gaze_vectors = gaze_outputs.at('gaze_vector')
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out = cv.gapi.copy(g_in)
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# ------------------------End of graph------------------------
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comp = cv.GComputation(cv.GIn(g_in), cv.GOut(out,
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faces_rc,
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left_eyes,
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right_eyes,
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gaze_vectors,
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angles_y,
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angles_p,
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angles_r,
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l_eye_st,
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r_eye_st,
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mids,
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lmarks))
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# Networks
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face_net = cv.gapi.ie.params('face-detection', ARGUMENTS.facem,
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weight_path(ARGUMENTS.facem), ARGUMENTS.faced)
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head_pose_net = cv.gapi.ie.params('head-pose', ARGUMENTS.headm,
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weight_path(ARGUMENTS.headm), ARGUMENTS.headd)
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landmarks_net = cv.gapi.ie.params('facial-landmarks', ARGUMENTS.landm,
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weight_path(ARGUMENTS.landm), ARGUMENTS.landd)
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gaze_net = cv.gapi.ie.params('gaze-estimation', ARGUMENTS.gazem,
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weight_path(ARGUMENTS.gazem), ARGUMENTS.gazed)
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eye_net = cv.gapi.ie.params('open-closed-eye', ARGUMENTS.eyem,
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weight_path(ARGUMENTS.eyem), ARGUMENTS.eyed)
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nets = cv.gapi.networks(face_net, head_pose_net, landmarks_net, gaze_net, eye_net)
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# Kernels pack
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kernels = cv.gapi.kernels(GParseEyesImpl, GProcessPosesImpl, GGetStatesImpl)
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# ------------------------Execution part------------------------
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ccomp = comp.compileStreaming(args=cv.gapi.compile_args(kernels, nets))
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source = cv.gapi.wip.make_capture_src(ARGUMENTS.input)
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ccomp.setSource(cv.gin(source))
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ccomp.start()
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frames = 0
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fps = 0
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print('Processing')
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START_TIME = time.time()
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while True:
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start_time_cycle = time.time()
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has_frame, (oimg,
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outr,
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l_eyes,
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r_eyes,
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outg,
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out_y,
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out_p,
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out_r,
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out_st_l,
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out_st_r,
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out_mids,
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outl) = ccomp.pull()
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if not has_frame:
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break
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# Draw
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GREEN = (0, 255, 0)
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RED = (0, 0, 255)
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WHITE = (255, 255, 255)
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BLUE = (255, 0, 0)
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PINK = (255, 0, 255)
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YELLOW = (0, 255, 255)
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M_PI_180 = np.pi / 180
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M_PI_2 = np.pi / 2
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M_PI = np.pi
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FACES_SIZE = len(outr)
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for i, out_rect in enumerate(outr):
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# Face box
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cv.rectangle(oimg, out_rect, WHITE, 1)
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rx, ry, rwidth, rheight = out_rect
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# Landmarks
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lm_radius = int(0.01 * rwidth + 1)
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lmsize = int(len(outl) / FACES_SIZE)
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for j in range(lmsize):
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cv.circle(oimg, outl[j + i * lmsize], lm_radius, YELLOW, -1)
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# Headposes
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yaw = out_y[i]
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pitch = out_p[i]
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roll = out_r[i]
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sin_y = np.sin(yaw[:] * M_PI_180)
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sin_p = np.sin(pitch[:] * M_PI_180)
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sin_r = np.sin(roll[:] * M_PI_180)
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cos_y = np.cos(yaw[:] * M_PI_180)
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cos_p = np.cos(pitch[:] * M_PI_180)
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cos_r = np.cos(roll[:] * M_PI_180)
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axis_length = 0.4 * rwidth
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x_center = int(rx + rwidth / 2)
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y_center = int(ry + rheight / 2)
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# center to right
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cv.line(oimg, [x_center, y_center],
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[int(x_center + axis_length * (cos_r * cos_y + sin_y * sin_p * sin_r)),
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int(y_center + axis_length * cos_p * sin_r)],
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RED, 2)
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# center to top
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cv.line(oimg, [x_center, y_center],
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[int(x_center + axis_length * (cos_r * sin_y * sin_p + cos_y * sin_r)),
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int(y_center - axis_length * cos_p * cos_r)],
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GREEN, 2)
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# center to forward
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cv.line(oimg, [x_center, y_center],
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[int(x_center + axis_length * sin_y * cos_p),
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int(y_center + axis_length * sin_p)],
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PINK, 2)
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scale_box = 0.002 * rwidth
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cv.putText(oimg, "head pose: (y=%0.0f, p=%0.0f, r=%0.0f)" %
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(np.round(yaw), np.round(pitch), np.round(roll)),
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[int(rx), int(ry + rheight + 5 * rwidth / 100)],
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cv.FONT_HERSHEY_PLAIN, scale_box * 2, WHITE, 1)
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# Eyes boxes
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color_l = GREEN if out_st_l[i] else RED
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cv.rectangle(oimg, l_eyes[i], color_l, 1)
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color_r = GREEN if out_st_r[i] else RED
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cv.rectangle(oimg, r_eyes[i], color_r, 1)
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# Gaze vectors
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norm_gazes = np.linalg.norm(outg[i][0])
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gaze_vector = outg[i][0] / norm_gazes
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arrow_length = 0.4 * rwidth
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gaze_arrow = [arrow_length * gaze_vector[0], -arrow_length * gaze_vector[1]]
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left_arrow = [int(a+b) for a, b in zip(out_mids[0 + i * 2], gaze_arrow)]
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right_arrow = [int(a+b) for a, b in zip(out_mids[1 + i * 2], gaze_arrow)]
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if out_st_l[i]:
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cv.arrowedLine(oimg, out_mids[0 + i * 2], left_arrow, BLUE, 2)
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if out_st_r[i]:
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cv.arrowedLine(oimg, out_mids[1 + i * 2], right_arrow, BLUE, 2)
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v0, v1, v2 = outg[i][0]
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gaze_angles = [180 / M_PI * (M_PI_2 + np.arctan2(v2, v0)),
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180 / M_PI * (M_PI_2 - np.arccos(v1 / norm_gazes))]
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cv.putText(oimg, "gaze angles: (h=%0.0f, v=%0.0f)" %
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(np.round(gaze_angles[0]), np.round(gaze_angles[1])),
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[int(rx), int(ry + rheight + 12 * rwidth / 100)],
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cv.FONT_HERSHEY_PLAIN, scale_box * 2, WHITE, 1)
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# Add FPS value to frame
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cv.putText(oimg, "FPS: %0i" % (fps), [int(20), int(40)],
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cv.FONT_HERSHEY_PLAIN, 2, RED, 2)
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# Show result
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cv.imshow('Gaze Estimation', oimg)
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cv.waitKey(1)
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fps = int(1. / (time.time() - start_time_cycle))
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frames += 1
|
||
EXECUTION_TIME = time.time() - START_TIME
|
||
print('Execution successful')
|
||
print('Mean FPS is ', int(frames / EXECUTION_TIME))
|