class Evaluator(object):
def __init__(self):
self.linemod_db = LineModModelDB()
self.projector = Projector()
self.projection_2d_recorder = []
self.add_recorder = []
self.cm_degree_5_recorder = []
self.proj_mean_diffs = []
self.add_dists = []
self.uncertainty_pnp_cost = []
def projection_2d(self, pose_pred, pose_targets, model, K, threshold=5):
model_2d_pred = self.projector.project_K(model, pose_pred, K)
model_2d_targets = self.projector.project_K(model, pose_targets, K)
proj_mean_diff = np.mean(
np.linalg.norm(model_2d_pred - model_2d_targets, axis=-1))
self.proj_mean_diffs.append(proj_mean_diff)
self.projection_2d_recorder.append(proj_mean_diff < threshold)
def projection_2d_sym(self,
pose_pred,
pose_targets,
model,
K,
threshold=5):
model_2d_pred = self.projector.project_K(model, pose_pred, K)
model_2d_targets = self.projector.project_K(model, pose_targets, K)
proj_mean_diff = np.mean(
find_nearest_point_distance(model_2d_pred, model_2d_targets))
self.proj_mean_diffs.append(proj_mean_diff)
self.projection_2d_recorder.append(proj_mean_diff < threshold)
def add_metric(self,
pose_pred,
pose_targets,
model,
diameter,
percentage=0.1):
""" ADD metric
1. compute the average of the 3d distances between the transformed vertices
2. pose_pred is considered correct if the distance is less than 10% of the object's diameter
"""
diameter = diameter * percentage
model_pred = np.dot(model, pose_pred[:, :3].T) + pose_pred[:, 3]
model_targets = np.dot(model, pose_targets[:, :3].T) + pose_targets[:,
3]
# from skimage.io import imsave
# id=uuid.uuid1()
# write_points('{}_pred.txt'.format(id),model_pred)
# write_points('{}_targ.txt'.format(id),model_targets)
#
# img_pts_pred=pts_to_img_pts(model_pred,np.identity(3),np.zeros(3),self.projector.intrinsic_matrix['blender'])[0]
# img_pts_pred=img_pts_to_pts_img(img_pts_pred,480,640).flatten()
# img=np.zeros([480*640,3],np.uint8)
# img_pts_targ=pts_to_img_pts(model_targets,np.identity(3),np.zeros(3),self.projector.intrinsic_matrix['blender'])[0]
# img_pts_targ=img_pts_to_pts_img(img_pts_targ,480,640).flatten()
# img[img_pts_pred>0]+=np.asarray([255,0,0],np.uint8)
# img[img_pts_targ>0]+=np.asarray([0,255,0],np.uint8)
# img=img.reshape([480,640,3])
# imsave('{}.png'.format(id),img)
mean_dist = np.mean(np.linalg.norm(model_pred - model_targets,
axis=-1))
self.add_recorder.append(mean_dist < diameter)
self.add_dists.append(mean_dist)
def add_metric_sym(self,
pose_pred,
pose_targets,
model,
diameter,
percentage=0.1):
""" ADD metric
1. compute the average of the 3d distances between the transformed vertices
2. pose_pred is considered correct if the distance is less than 10% of the object's diameter
"""
diameter = diameter * percentage
model_pred = np.dot(model, pose_pred[:, :3].T) + pose_pred[:, 3]
model_targets = np.dot(model, pose_targets[:, :3].T) + pose_targets[:,
3]
mean_dist = np.mean(
find_nearest_point_distance(model_pred, model_targets))
self.add_recorder.append(mean_dist < diameter)
self.add_dists.append(mean_dist)
def cm_degree_5_metric(self, pose_pred, pose_targets):
""" 5 cm 5 degree metric
1. pose_pred is considered correct if the translation and rotation errors are below 5 cm and 5 degree respectively
"""
translation_distance = np.linalg.norm(pose_pred[:, 3] -
pose_targets[:, 3]) * 100
rotation_diff = np.dot(pose_pred[:, :3], pose_targets[:, :3].T)
trace = np.trace(rotation_diff)
trace = trace if trace <= 3 else 3
angular_distance = np.rad2deg(np.arccos((trace - 1.) / 2.))
self.cm_degree_5_recorder.append(translation_distance < 5
and angular_distance < 5)
def evaluate(self,
points_2d,
pose_targets,
class_type,
intri_type='blender',
vote_type=VotingType.BB8,
intri_matrix=None):
points_3d = VotingType.get_pts_3d(vote_type, class_type)
if intri_type == 'use_intrinsic' and intri_matrix is not None:
K = intri_matrix
else:
K = self.projector.intrinsic_matrix[intri_type]
pose_pred = pnp(points_3d, points_2d, K)
model = self.linemod_db.get_ply_model(class_type)
diameter = self.linemod_db.get_diameter(class_type)
if class_type in ['eggbox', 'glue']:
self.add_metric_sym(pose_pred, pose_targets, model, diameter)
else:
self.add_metric(pose_pred, pose_targets, model, diameter)
self.projection_2d(pose_pred, pose_targets, model, K)
self.cm_degree_5_metric(pose_pred, pose_targets)
return pose_pred
def evaluate_uncertainty(self,
mean_pts2d,
covar,
pose_targets,
class_type,
intri_type='blender',
vote_type=VotingType.BB8,
intri_matrix=None):
points_3d = VotingType.get_pts_3d(vote_type, class_type)
begin = time.time()
# full
cov_invs = []
for vi in range(covar.shape[0]):
if covar[vi, 0, 0] < 1e-6 or np.sum(np.isnan(covar)[vi]) > 0:
cov_invs.append(np.zeros([2, 2]).astype(np.float32))
continue
cov_inv = np.linalg.inv(scipy.linalg.sqrtm(covar[vi]))
cov_invs.append(cov_inv)
cov_invs = np.asarray(cov_invs) # pn,2,2
weights = cov_invs.reshape([-1, 4])
weights = weights[:, (0, 1, 3)]
if intri_type == 'use_intrinsic' and intri_matrix is not None:
K = intri_matrix
else:
K = self.projector.intrinsic_matrix[intri_type]
pose_pred = uncertainty_pnp(mean_pts2d, weights, points_3d, K)
model = self.linemod_db.get_ply_model(class_type)
diameter = self.linemod_db.get_diameter(class_type)
self.uncertainty_pnp_cost.append(time.time() - begin)
if class_type in ['eggbox', 'glue']:
self.add_metric_sym(pose_pred, pose_targets, model, diameter)
else:
self.add_metric(pose_pred, pose_targets, model, diameter)
self.projection_2d(pose_pred, pose_targets, model, K)
self.cm_degree_5_metric(pose_pred, pose_targets)
return pose_pred
def evaluate_uncertainty_v2(self,
mean_pts2d,
covar,
pose_targets,
class_type,
intri_type='blender',
vote_type=VotingType.BB8):
points_3d = VotingType.get_pts_3d(vote_type, class_type)
pose_pred = uncertainty_pnp_v2(
mean_pts2d, covar, points_3d,
self.projector.intrinsic_matrix[intri_type])
model = self.linemod_db.get_ply_model(class_type)
diameter = self.linemod_db.get_diameter(class_type)
if class_type in ['eggbox', 'glue']:
self.projection_2d_sym(pose_pred, pose_targets, model,
self.projector.intrinsic_matrix[intri_type])
self.add_metric_sym(pose_pred, pose_targets, model, diameter)
else:
self.projection_2d(pose_pred, pose_targets, model,
self.projector.intrinsic_matrix[intri_type])
self.add_metric(pose_pred, pose_targets, model, diameter)
self.cm_degree_5_metric(pose_pred, pose_targets)
def average_precision(self, verbose=True):
np.save('tmp.npy', np.asarray(self.proj_mean_diffs))
if verbose:
print('2d projections metric: {}'.format(
np.mean(self.projection_2d_recorder)))
print('ADD metric: {}'.format(np.mean(self.add_recorder)))
print('5 cm 5 degree metric: {}'.format(
np.mean(self.cm_degree_5_recorder)))
return np.mean(self.projection_2d_recorder), np.mean(
self.add_recorder), np.mean(self.cm_degree_5_recorder)
class Evaluator(object):
def __init__(self):
self.linemod_db = LineModModelDB()
self.ycb_db = YCBModelDB()
self.projector=Projector()
self.projection_2d_recorder = Queue() # []
self.add_recorder = Queue() # []
self.cm_degree_5_recorder = Queue() # []
self.proj_mean_diffs= Queue() # []
self.add_dists= Queue() # []
self.uncertainty_pnp_cost= Queue() # []
self.add_dis = Queue() # []
def projection_2d(self, pose_pred, pose_targets, model, K, threshold=5):
model_2d_pred = self.projector.project_K(model, pose_pred, K)
model_2d_targets = self.projector.project_K(model, pose_targets, K)
proj_mean_diff=np.mean(np.linalg.norm(model_2d_pred - model_2d_targets, axis=-1))
self.proj_mean_diffs.put(proj_mean_diff)
self.projection_2d_recorder.put(proj_mean_diff < threshold)
def projection_2d_sym(self, pose_pred, pose_targets, model, K, threshold=5):
model_2d_pred = self.projector.project_K(model, pose_pred, K)
model_2d_targets = self.projector.project_K(model, pose_targets, K)
proj_mean_diff=np.mean(find_nearest_point_distance(model_2d_pred,model_2d_targets))
self.proj_mean_diffs.put(proj_mean_diff)
self.projection_2d_recorder.put(proj_mean_diff < threshold)
def add_metric(self, pose_pred, pose_targets, model, diameter, percentage=0.1):
""" ADD metric
1. compute the average of the 3d distances between the transformed vertices
2. pose_pred is considered correct if the distance is less than 10% of the object's diameter
"""
diameter = diameter * percentage
model_pred = np.dot(model, pose_pred[:, :3].T) + pose_pred[:, 3]
model_targets = np.dot(model, pose_targets[:, :3].T) + pose_targets[:, 3]
mean_dist=np.mean(np.linalg.norm(model_pred - model_targets, axis=-1))
self.add_dis.put(mean_dist)
self.add_recorder.put(mean_dist < diameter)
self.add_dists.put(mean_dist)
return mean_dist
def add_metric_sym(self, pose_pred, pose_targets, model, diameter, percentage=0.1):
""" ADD metric
1. compute the average of the 3d distances between the transformed vertices
2. pose_pred is considered correct if the distance is less than 10% of the object's diameter
"""
diameter = diameter * percentage
model_pred = np.dot(model, pose_pred[:, :3].T) + pose_pred[:, 3]
model_targets = np.dot(model, pose_targets[:, :3].T) + pose_targets[:, 3]
mean_dist=np.mean(find_nearest_point_distance(model_pred,model_targets))
self.add_dis.put(mean_dist)
self.add_recorder.put(mean_dist < diameter)
self.add_dists.put(mean_dist)
return mean_dist
def cm_degree_5_metric(self, pose_pred, pose_targets):
""" 5 cm 5 degree metric
1. pose_pred is considered correct if the translation and rotation errors are below 5 cm and 5 degree respectively
"""
translation_distance = np.linalg.norm(pose_pred[:, 3] - pose_targets[:, 3]) * 100
rotation_diff = np.dot(pose_pred[:, :3], pose_targets[:, :3].T)
trace = np.trace(rotation_diff)
trace = trace if trace <= 3 else 3
angular_distance = np.rad2deg(np.arccos((trace - 1.) / 2.))
self.cm_degree_5_recorder.put(translation_distance < 5 and angular_distance < 5)
def evaluate_3dkp_adds(
self, dt_p3d, pose_targets, class_type, intri_type='blender',
vote_type=VotingType.Farthest, intri_matrix=None, use_ctr=False
):
mdl_p3d = VotingType.get_pts_3d(vote_type, class_type)
if intri_type=='use_intrinsic' and intri_matrix is not None:
K=intri_matrix
else:
K=self.projector.intrinsic_matrix[intri_type]
if use_ctr:
pose_pred = best_fit_transform(mdl_p3d, dt_p3d)
else:
pose_pred = best_fit_transform(mdl_p3d[:8], dt_p3d)
# pose_pred = pnp(points_3d, points_2d, K)
model = self.linemod_db.get_ply_model(class_type)
diameter = self.linemod_db.get_diameter(class_type)
self.add_metric_sym(pose_pred, pose_targets, model, diameter)
self.projection_2d(pose_pred, pose_targets, model, K)
self.cm_degree_5_metric(pose_pred, pose_targets)
return pose_pred
def evaluate_3dkp(
self, dt_p3d, pose_targets, class_type, intri_type='blender',
vote_type=VotingType.Farthest, intri_matrix=None, use_ctr=False
):
mdl_p3d = VotingType.get_pts_3d(vote_type, class_type)
if intri_type=='use_intrinsic' and intri_matrix is not None:
K=intri_matrix
else:
K=self.projector.intrinsic_matrix[intri_type]
if use_ctr:
pose_pred = best_fit_transform(mdl_p3d, dt_p3d)
else:
pose_pred = best_fit_transform(mdl_p3d[:8], dt_p3d)
# pose_pred = pnp(points_3d, points_2d, K)
model = self.linemod_db.get_ply_model(class_type)
diameter = self.linemod_db.get_diameter(class_type)
if class_type in ['eggbox','glue']:
self.add_metric_sym(pose_pred, pose_targets, model, diameter)
else:
self.add_metric(pose_pred, pose_targets, model, diameter)
self.projection_2d(pose_pred, pose_targets, model, K)
self.cm_degree_5_metric(pose_pred, pose_targets)
return pose_pred
def ycb_evaluate_RT(
self, pose_pred, pose_targets, class_type, intri_type='ycb_K1',
vote_type=VotingType.Farthest, intri_matrix=None
):
mdl_p3d = VotingType.ycb_get_pts_3d(vote_type, class_type, use_ctr=True)
model = self.ycb_db.get_pointxyz(class_type)
diameter = 0.02 * 10.0# self.ycb_db.get_diameter(class_type)
mean_dis = self.add_metric_sym(pose_pred, pose_targets, model, diameter)
return pose_pred, mean_dis, np.dot(mdl_p3d, pose_targets[:, :3].T) + pose_targets[:, 3]
def ycb_evaluate_add_RT(
self, pose_pred, pose_targets, class_type, intri_type='ycb_K1',
vote_type=VotingType.Farthest, intri_matrix=None
):
mdl_p3d = VotingType.ycb_get_pts_3d(vote_type, class_type, use_ctr=True)
model = self.ycb_db.get_pointxyz(class_type)
diameter = 0.02 * 10.0# self.ycb_db.get_diameter(class_type)
mean_dis = self.add_metric(pose_pred, pose_targets, model, diameter)
return pose_pred, mean_dis, np.dot(mdl_p3d, pose_targets[:, :3].T) + pose_targets[:, 3]
def ycb_evaluate_3dkp_ctr(
self, dt_p3d, pose_targets, class_type, intri_type='ycb_K1',
vote_type=VotingType.Farthest, intri_matrix=None, use_ctr=True
):
mdl_p3d = VotingType.ycb_get_pts_3d(
vote_type, class_type, use_ctr=use_ctr
)
if intri_type=='use_intrinsic' and intri_matrix is not None:
K=intri_matrix
else:
K=self.projector.intrinsic_matrix[intri_type]
pose_pred = best_fit_transform(mdl_p3d, dt_p3d)
# pose_pred = pnp(points_3d, points_2d, K)
model = self.ycb_db.get_pointxyz(class_type)
# model = self.ycb_db.get_ply_model(class_type)
diameter = 0.02 * 10.0# self.ycb_db.get_diameter(class_type)
symetry_ycb_cls = [
'024_bowl','036_wood_block', '051_large_clamp',
'052_extra_large_clamp', '061_foam_brick'
]
mean_dis = self.add_metric_sym(pose_pred, pose_targets, model, diameter)
# self.projection_2d(pose_pred, pose_targets, model, K)
# self.cm_degree_5_metric(pose_pred, pose_targets)
return pose_pred, mean_dis, np.dot(mdl_p3d, pose_targets[:, :3].T) + pose_targets[:, 3]
def ycb_evaluate_add_3dkp_ctr(
self, dt_p3d, pose_targets, class_type, intri_type='ycb_K1',
vote_type=VotingType.Farthest, intri_matrix=None, use_ctr=True
):
mdl_p3d = VotingType.ycb_get_pts_3d(
vote_type, class_type, use_ctr=use_ctr
)
if intri_type=='use_intrinsic' and intri_matrix is not None:
K=intri_matrix
else:
K=self.projector.intrinsic_matrix[intri_type]
pose_pred = best_fit_transform(mdl_p3d, dt_p3d)
# pose_pred = pnp(points_3d, points_2d, K)
model = self.ycb_db.get_pointxyz(class_type)
# model = self.ycb_db.get_ply_model(class_type)
diameter = 0.02 * 10.0# self.ycb_db.get_diameter(class_type)
mean_dis = self.add_metric(pose_pred, pose_targets, model, diameter)
# if class_type in symetry_ycb_cls:
# self.add_metric_sym(pose_pred, pose_targets, model, diameter)
# else:
# self.add_metric(pose_pred, pose_targets, model, diameter)
# self.projection_2d(pose_pred, pose_targets, model, K)
# self.cm_degree_5_metric(pose_pred, pose_targets)
return pose_pred, mean_dis, np.dot(mdl_p3d, pose_targets[:, :3].T) + pose_targets[:, 3]
def ycb_evaluate_2dkp_ctr(
self, dt_p2d, pose_targets, class_type, intri_type='ycb_K1',
vote_type=VotingType.Farthest, intri_matrix=None, use_ctr=True
):
mdl_p3d = VotingType.ycb_get_pts_3d(
vote_type, class_type, use_ctr=use_ctr
)
if intri_type=='use_intrinsic' and intri_matrix is not None:
K=intri_matrix
else:
K=self.projector.intrinsic_matrix[intri_type]
# pose_pred = best_fit_transform(mdl_p3d, dt_p3d)
pose_pred = pnp(mdl_p3d, dt_p2d, K)
model = self.ycb_db.get_pointxyz(class_type)
diameter = 0.02 * 10.0# self.ycb_db.get_diameter(class_type)
symetry_ycb_cls = [
'024_bowl','036_wood_block', '051_large_clamp',
'052_extra_large_clamp', '061_foam_brick'
]
mean_dis = self.add_metric_sym(pose_pred, pose_targets, model, diameter)
# self.projection_2d(pose_pred, pose_targets, model, K)
# self.cm_degree_5_metric(pose_pred, pose_targets)
return pose_pred, mean_dis, np.dot(mdl_p3d, pose_targets[:, :3].T) + pose_targets[:, 3]
def ycb_evaluate_add_2dkp_ctr(
self, dt_p2d, pose_targets, class_type, intri_type='ycb_K1',
vote_type=VotingType.Farthest, intri_matrix=None, use_ctr=True
):
mdl_p3d = VotingType.ycb_get_pts_3d(vote_type, class_type, use_ctr=True)
if intri_type=='use_intrinsic' and intri_matrix is not None:
K=intri_matrix
else:
K=self.projector.intrinsic_matrix[intri_type]
# pose_pred = best_fit_transform(mdl_p3d, dt_p3d)
pose_pred = pnp(mdl_p3d, dt_p2d, K)
model = self.ycb_db.get_pointxyz(class_type)
# model = self.ycb_db.get_ply_model(class_type)
diameter = 0.02 * 10.0# self.ycb_db.get_diameter(class_type)
mean_dis = self.add_metric(pose_pred, pose_targets, model, diameter)
# self.projection_2d(pose_pred, pose_targets, model, K)
# self.cm_degree_5_metric(pose_pred, pose_targets)
return pose_pred, mean_dis, np.dot(mdl_p3d, pose_targets[:, :3].T) + pose_targets[:, 3]
def ycb_evaluate_3dkp(
self, dt_p3d, pose_targets, class_type, intri_type='ycb_K1',
vote_type=VotingType.Farthest, intri_matrix=None
):
mdl_p3d = VotingType.ycb_get_pts_3d(vote_type, class_type)
if intri_type=='use_intrinsic' and intri_matrix is not None:
K=intri_matrix
else:
K=self.projector.intrinsic_matrix[intri_type]
pose_pred = best_fit_transform(mdl_p3d[:8], dt_p3d)
# pose_pred = pnp(points_3d, points_2d, K)
model = self.ycb_db.get_pointxyz(class_type)
# model = self.ycb_db.get_ply_model(class_type)
diameter = 0.02 * 10.0# self.ycb_db.get_diameter(class_type)
symetry_ycb_cls = [
'024_bowl','036_wood_block', '051_large_clamp',
'052_extra_large_clamp', '061_foam_brick'
]
mean_dis = self.add_metric_sym(pose_pred, pose_targets, model, diameter)
# if class_type in symetry_ycb_cls:
# self.add_metric_sym(pose_pred, pose_targets, model, diameter)
# else:
# self.add_metric(pose_pred, pose_targets, model, diameter)
# self.projection_2d(pose_pred, pose_targets, model, K)
# self.cm_degree_5_metric(pose_pred, pose_targets)
return pose_pred, mean_dis, np.dot(mdl_p3d, pose_targets[:, :3].T) + pose_targets[:, 3]
def ycb_evaluate_3dkp_add(
self, dt_p3d, pose_targets, class_type, intri_type='ycb_K1',
vote_type=VotingType.Farthest, intri_matrix=None
):
mdl_p3d = VotingType.ycb_get_pts_3d(vote_type, class_type)
if intri_type=='use_intrinsic' and intri_matrix is not None:
K=intri_matrix
else:
K=self.projector.intrinsic_matrix[intri_type]
pose_pred = best_fit_transform(mdl_p3d[:8], dt_p3d)
# pose_pred = pnp(points_3d, points_2d, K)
model = self.ycb_db.get_pointxyz(class_type)
# model = self.ycb_db.get_ply_model(class_type)
diameter = 0.02 * 10.0# self.ycb_db.get_diameter(class_type)
symetry_ycb_cls = [
'024_bowl','036_wood_block', '051_large_clamp',
'052_extra_large_clamp', '061_foam_brick'
]
mean_dis = self.add_metric(pose_pred, pose_targets, model, diameter)
# if class_type in symetry_ycb_cls:
# self.add_metric_sym(pose_pred, pose_targets, model, diameter)
# else:
# self.add_metric(pose_pred, pose_targets, model, diameter)
# self.projection_2d(pose_pred, pose_targets, model, K)
# self.cm_degree_5_metric(pose_pred, pose_targets)
return pose_pred, mean_dis, np.dot(mdl_p3d, pose_targets[:, :3].T) + pose_targets[:, 3]
def ycb_evaluate_3dkp_3pt(
self, dt_p3d, good_idx, pose_targets, class_type,
intri_type='ycb_K1', vote_type=VotingType.Farthest, intri_matrix=None
):
mdl_p3d = VotingType.ycb_get_pts_3d(vote_type, class_type)
mdl_p3d = mdl_p3d[good_idx]
if intri_type=='use_intrinsic' and intri_matrix is not None:
K=intri_matrix
else:
K=self.projector.intrinsic_matrix[intri_type]
pose_pred = best_fit_transform(mdl_p3d, dt_p3d)
# pose_pred = pnp(points_3d, points_2d, K)
model = self.ycb_db.get_ply_model(class_type)
diameter = 0.02 * 10.0# self.ycb_db.get_diameter(class_type)
symetry_ycb_cls = [
'024_bowl','036_wood_block', '051_large_clamp',
'052_extra_large_clamp', '061_foam_brick'
]
mean_dis = self.add_metric_sym_psl(pose_pred_lst, pose_targets, model, diameter)
# if class_type in symetry_ycb_cls:
# self.add_metric_sym(pose_pred, pose_targets, model, diameter)
# else:
# self.add_metric(pose_pred, pose_targets, model, diameter)
self.projection_2d(pose_pred, pose_targets, model, K)
self.cm_degree_5_metric(pose_pred, pose_targets)
return pose_pred, mean_dis, np.dot(mdl_p3d, pose_targets[:, :3].T) + pose_targets[:, 3]
def ycb_evaluate_3dkp_cmbn(
self, dt_p3d, pose_targets, class_type, intri_type='ycb_K1',
vote_type=VotingType.Farthest, intri_matrix=None
):
mdl_p3d = VotingType.ycb_get_pts_3d(vote_type, class_type)
if intri_type=='use_intrinsic' and intri_matrix is not None:
K=intri_matrix
else:
K=self.projector.intrinsic_matrix[intri_type]
cmbn_lst = list(
itertools.combinations([i for i in range(dt_p3d.shape[0])], 3)
)
pose_pred_lst = []
for i in range(len(cmbn_lst)):
pose_pred = best_fit_transform(mdl_p3d[cmbn_lst[i]], dt_p3d[cmbn_lst[i]])
pose_pred_lst.append(pose_pred)
# pose_pred = pnp(points_3d, points_2d, K)
model = self.ycb_db.get_ply_model(class_type)
diameter = 0.02 * 10.0# self.ycb_db.get_diameter(class_type)
symetry_ycb_cls = [
'024_bowl','036_wood_block', '051_large_clamp',
'052_extra_large_clamp', '061_foam_brick'
]
self.add_metric_sym_psl(pose_pred_lst, pose_targets, model, diameter)
# if class_type in symetry_ycb_cls:
# self.add_metric_sym_psl(pose_pred_lst, pose_targets, model, diameter)
# else:
# self.add_metric_psl(pose_pred_lst, pose_targets, model, diameter)
self.projection_2d(pose_pred, pose_targets, model, K)
self.cm_degree_5_metric(pose_pred, pose_targets)
return pose_pred
def evaluate(self, points_2d, pose_targets, class_type, intri_type='blender', vote_type=VotingType.BB8, intri_matrix=None):
points_3d = VotingType.get_pts_3d(vote_type, class_type)
if intri_type=='use_intrinsic' and intri_matrix is not None:
K=intri_matrix
else:
K=self.projector.intrinsic_matrix[intri_type]
pose_pred = best_fit_transform(mdl_p3d, dt_p3d)
# pose_pred = pnp(points_3d, points_2d, K)
model = self.linemod_db.get_ply_model(class_type)
diameter = self.linemod_db.get_diameter(class_type)
if class_type in ['eggbox','glue']:
self.add_metric_sym(pose_pred, pose_targets, model, diameter)
else:
self.add_metric(pose_pred, pose_targets, model, diameter)
self.projection_2d(pose_pred, pose_targets, model, K)
self.cm_degree_5_metric(pose_pred, pose_targets)
return pose_pred
def evaluate_uncertainty(self, mean_pts2d, covar, pose_targets, class_type,
intri_type='blender', vote_type=VotingType.BB8,intri_matrix=None):
points_3d=VotingType.get_pts_3d(vote_type,class_type)
begin=time.time()
# full
cov_invs = []
for vi in range(covar.shape[0]):
if covar[vi,0,0]<1e-6 or np.sum(np.isnan(covar)[vi])>0:
cov_invs.append(np.zeros([2,2]).astype(np.float32))
continue
cov_inv = np.linalg.inv(scipy.linalg.sqrtm(covar[vi]))
cov_invs.append(cov_inv)
cov_invs = np.asarray(cov_invs) # pn,2,2
weights = cov_invs.reshape([-1, 4])
weights = weights[:, (0, 1, 3)]
if intri_type=='use_intrinsic' and intri_matrix is not None:
K=intri_matrix
else:
K=self.projector.intrinsic_matrix[intri_type]
pose_pred = uncertainty_pnp(mean_pts2d, weights, points_3d, K)
model = self.linemod_db.get_ply_model(class_type)
diameter = self.linemod_db.get_diameter(class_type)
self.uncertainty_pnp_cost.put(time.time()-begin)
if class_type in ['eggbox','glue']:
self.add_metric_sym(pose_pred, pose_targets, model, diameter)
else:
self.add_metric(pose_pred, pose_targets, model, diameter)
self.projection_2d(pose_pred, pose_targets, model, K)
self.cm_degree_5_metric(pose_pred, pose_targets)
return pose_pred
def evaluate_uncertainty_v2(self, mean_pts2d, covar, pose_targets, class_type,
intri_type='blender', vote_type=VotingType.BB8):
points_3d = VotingType.get_pts_3d(vote_type, class_type)
pose_pred = uncertainty_pnp_v2(mean_pts2d, covar, points_3d, self.projector.intrinsic_matrix[intri_type])
model = self.linemod_db.get_ply_model(class_type)
diameter = self.linemod_db.get_diameter(class_type)
if class_type in ['eggbox','glue']:
self.projection_2d_sym(pose_pred, pose_targets, model, self.projector.intrinsic_matrix[intri_type])
self.add_metric_sym(pose_pred, pose_targets, model, diameter)
else:
self.projection_2d(pose_pred, pose_targets, model, self.projector.intrinsic_matrix[intri_type])
self.add_metric(pose_pred, pose_targets, model, diameter)
self.cm_degree_5_metric(pose_pred, pose_targets)
def cal_auc(self, add_dis):
max_dis = 0.1
D = np.array(add_dis)
D[np.where(D > max_dis)] = np.inf;
D = np.sort(D)
n = len(add_dis)
acc = np.cumsum(np.ones((1,n)), dtype=np.float32) / n
aps = self.VOCap(D, acc)
return aps * 100
def VOCap(self, rec, prec):
idx = np.where(rec != np.inf)
if len(idx[0]) == 0:
return 0
rec = rec[idx]
prec = prec[idx]
mrec = np.array([0.0]+list(rec)+[0.1])
mpre = np.array([0.0]+list(prec)+[prec[-1]])
for i in range(1, prec.shape[0]):
mpre[i] = max(mpre[i], mpre[i-1])
i = np.where(mrec[1:] != mrec[0:-1])[0] + 1
ap = np.sum((mrec[i] - mrec[i-1]) * mpre[i]) * 10
return ap
def average_precision(self,verbose=True, n_none=0):
self.proj_mean_diffs = list(self.proj_mean_diffs.queue)
np.save('tmp.npy',np.asarray(self.proj_mean_diffs))
print("n_none: ", n_none)
for i in range(n_none):
self.projection_2d_recorder.put(0)
self.add_recorder.put(0)
self.add_dis.put(np.inf)
self.cm_degree_5_recorder.put(0)
self.projection_2d_recorder = list(self.projection_2d_recorder.queue)
self.add_recorder = list(self.add_recorder.queue)
self.add_dis = list(self.add_dis.queue)
self.cm_degree_5_recorder = list(self.cm_degree_5_recorder.queue)
if len(self.add_dis) > 2:
auc = self.cal_auc(self.add_dis)
else:
auc = 0
if verbose:
print('2d projections metric: {}'.format(np.mean(self.projection_2d_recorder)))
print('ADD metric: {}'.format(np.mean(self.add_recorder)))
print('5 cm 5 degree metric: {}'.format(np.mean(self.cm_degree_5_recorder)))
print('AUC: {}'.format(auc))
return np.mean(self.projection_2d_recorder),np.mean(self.add_recorder),np.mean(self.cm_degree_5_recorder), auc