def test_batch_size(self):
fobj = FrameInput("test-data/video-clip.mp4", bsize=4)
batch = fobj.next_batch()
bframes = batch.get_batch()
assert bframes.shape[0] == 4
assert batch.bsize == 4
def test_get_frame_names(self):
fobj = FrameInput("test-data/video-clip.mp4", bsize=4)
batch = fobj.next_batch()
batch = fobj.next_batch()
fnames = batch.get_frame_names()
assert fnames == [4, 5, 6, 7]
def test_batch_bsize(self):
fobj = FrameInput("test-data/video-clip.mp4", bsize=16)
batch = fobj.next_batch()
frames = batch.get_batch()
assert batch.bnum == 0
assert fobj.continue_read
assert frames.shape[0] == 16
def test_continue_bnum(self):
fobj = FrameInput("test-data/video-clip.mp4", bsize=256)
batch = fobj.next_batch()
assert batch.bnum == 0
assert fobj.continue_read
batch = fobj.next_batch()
assert batch.bnum == 1
assert not fobj.continue_read
frames = batch.get_frames()
bwidth = frames[batch.bsize :, :, :, :]
assert np.max(bwidth) == 0
def test_fixed_frames(self):
# only grab these frames
frames = [0, 3, 17, 18, 21]
# create processor pipeline
fpobj = FrameProcessor()
fpobj.load_annotator(CIElabAnnotator(frames=frames))
fpobj.load_annotator(ClutterAnnotator(frames=frames))
fpobj.load_annotator(
EmbedAnnotator(embedding=EmbedFrameKerasResNet50(), frames=frames))
fpobj.load_annotator(
FaceAnnotator(detector=FaceDetectDlib(), frames=frames))
fpobj.load_annotator(
ObjectAnnotator(detector=ObjectDetectRetinaNet(), frames=frames))
# run over the input, making sure to include a batch (the middle one)
# that does not have any data
finput = FrameInput("test-data/video-clip.mp4", bsize=8)
fpobj.process(finput, max_batch=3)
# check that the output is the correct size
assert fpobj.collect("clutter")["frame"].tolist() == frames
assert fpobj.collect("cielab")["frame"].tolist() == frames
assert fpobj.collect("embed")["frame"].tolist() == frames
assert set(fpobj.collect("face")["frame"]) == set(frames)
assert set(fpobj.collect("object")["frame"]) == set(frames)
def test_fprint(self):
face_anno = FaceAnnotator(
detector=FaceDetectDlib(), embedding=FaceEmbedVgg2(), freq=4
)
fpobj = FrameProcessor()
fpobj.load_annotator(face_anno)
finput = FrameInput("test-data/video-clip.mp4", bsize=8)
fpobj.process(finput, max_batch=2)
obj_out = fpobj.collect_all()
pa = PeopleAggregator(
face_names=["person 1", "person 2"],
fprint=obj_out["face"]["embed"][[0, 1]],
)
agg = pa.aggregate(obj_out).todf()
assert set(agg.keys()) == set(
[
"video",
"frame",
"top",
"bottom",
"right",
"left",
"confidence",
"person",
"person-dist",
]
)
def test_process_empty_output(self):
fpobj = FrameProcessor()
fpobj.load_annotator(FrameAnnotator())
finput = FrameInput("test-data/video-clip.mp4", bsize=4)
fpobj.process(finput)
assert fpobj.collect("base") == DictFrame()
def test_sub_image_reshape(self):
finput = FrameInput("test-data/video-clip.mp4", bsize=1)
batch = get_batch(finput, batch_num=0)
img = batch.get_frames()[0, :, :, :]
simg = sub_image(img, 32, 64, 64, 32, output_shape=(100, 100))
assert simg.shape == (100, 100, 3)
def test_sub_image_fct(self):
finput = FrameInput("test-data/video-clip.mp4", bsize=1)
batch = get_batch(finput, batch_num=0)
img = batch.get_frames()[0, :, :, :]
simg = sub_image(img, top=0, right=128, bottom=64, left=0, fct=1.5)
assert simg.shape == (80, 160, 3)
def test_get_batch(self):
finput = FrameInput("test-data/video-clip.mp4", bsize=8)
batch = get_batch(finput, batch_num=3)
assert issubclass(type(batch), FrameBatch)
assert batch.bnum == 3
assert batch.bsize == 8
def test_max_batch(self):
fpobj = FrameProcessor()
fpobj.load_annotator(DiffAnnotator())
finput = FrameInput("test-data/video-clip.mp4", bsize=8)
fpobj.process(finput, max_batch=3)
obj_diff = fpobj.collect("diff")
assert obj_diff.shape[0] == (3 * 8)
def test_metadata(self):
fobj = FrameInput("test-data/video-clip.mp4")
assert fobj.meta["type"] == "video"
assert fobj.meta["fps"] == 29.97002997002997
assert fobj.meta["frames"] == 379
assert fobj.meta["height"] == 480
assert fobj.meta["width"] == 708
assert fobj.vname == "video-clip.mp4"
def test_process_full_output(self):
fpobj = FrameProcessor()
fpobj.load_annotator(DiffAnnotator())
finput = FrameInput("test-data/video-clip.mp4", bsize=128)
fpobj.process(finput)
obj_diff = fpobj.collect("diff")
assert obj_diff.shape[0] == (128 * 3)
def test_no_quantiles(self):
fpobj = FrameProcessor()
fpobj.load_annotator(DiffAnnotator())
finput = FrameInput("test-data/video-clip.mp4", bsize=8)
fpobj.process(finput, max_batch=2)
obj_out = fpobj.collect("diff")
assert set(obj_out.keys()) == set(["video", "frame", "avg_value"])
assert issubclass(type(obj_out["avg_value"]), np.ndarray)
def test_object_detection_cutoff(self):
anno = ObjectAnnotator(freq=4,
detector=ObjectDetectRetinaNet(cutoff=0.6))
fpobj = FrameProcessor()
fpobj.load_annotator(anno)
finput = FrameInput("test-data/video-clip.mp4", bsize=8)
fpobj.process(finput, max_batch=2)
obj_out = fpobj.collect("object")
assert obj_out.shape == (12, 8)
def test_histogram_only(self):
fpobj = FrameProcessor()
fpobj.load_annotator(CIElabAnnotator(num_dominant=0))
finput = FrameInput("test-data/video-clip.mp4", bsize=8)
fpobj.process(finput, max_batch=2)
obj_out = fpobj.collect("cielab")
keys = list(obj_out.keys())
assert set(obj_out.keys()) == set(["video", "frame", "cielab"])
assert issubclass(type(obj_out["cielab"]), np.ndarray)
assert obj_out["cielab"].shape == (16, 4096)
def test_clutter(self):
fpobj = FrameProcessor()
fpobj.load_annotator(ClutterAnnotator())
finput = FrameInput("test-data/video-clip.mp4", bsize=8)
fpobj.process(finput, max_batch=2)
obj_out = fpobj.collect("clutter")
keys = list(obj_out.keys())
assert set(obj_out.keys()) == set(["video", "frame", "clutter"])
assert issubclass(type(obj_out["clutter"]), np.ndarray)
assert obj_out["clutter"].shape == (16, 1)
def test_cutoff(self):
fpobj = FrameProcessor()
fpobj.load_annotator(DiffAnnotator(quantiles=[40]))
finput = FrameInput("test-data/video-clip.mp4", bsize=128)
fpobj.process(finput, max_batch=2)
obj_out = fpobj.collect_all()
ca = CutAggregator(cut_vals={"h40": 0.2, "q40": 3})
agg = ca.aggregate(obj_out)
assert set(agg.keys()) == set(["video", "frame_start", "frame_end"])
def test_embed_resnet(self, setup_tensorflow):
anno = EmbedAnnotator(freq=4, embedding=EmbedFrameKerasResNet50())
fpobj = FrameProcessor()
fpobj.load_annotator(anno)
finput = FrameInput("test-data/video-clip.mp4", bsize=8)
fpobj.process(finput, max_batch=2)
obj_out = fpobj.collect("embed")
assert set(obj_out.keys()) == set(["frame", "video", "embed"])
assert issubclass(type(obj_out["embed"]), np.ndarray)
assert obj_out["embed"].shape == (4, 2048)
def test_collect_all(self):
fpobj = FrameProcessor()
fpobj.load_annotator(FrameAnnotator())
fpobj.load_annotator(DiffAnnotator())
finput = FrameInput("test-data/video-clip.mp4", bsize=8)
fpobj.process(finput, max_batch=2)
output = fpobj.collect_all()
assert output["base"] == DictFrame()
assert output["diff"].shape[0] == (2 * 8)
def test_cutoff_empty(self):
fpobj = FrameProcessor()
fpobj.load_annotator(DiffAnnotator(quantiles=[40]))
finput = FrameInput("test-data/video-clip.mp4", bsize=128)
fpobj.process(finput, max_batch=2)
obj_out = fpobj.collect_all()
ca = CutAggregator()
agg = ca.aggregate(obj_out)
assert agg["frame_start"] == list(range(256))
def test_png_resize(self):
dname = tempfile.mkdtemp() # creates directory
fpobj = FrameProcessor()
fpobj.load_annotator(PngAnnotator(output_dir=dname, size=(32, 64)))
finput = FrameInput("test-data/video-clip.mp4", bsize=4)
fpobj.process(finput, max_batch=2)
expected_files = set(["frame-{0:06d}.png".format(x) for x in range(8)])
obj_out = fpobj.collect("png")
assert obj_out == DictFrame()
assert set(os.listdir(dname)) == expected_files
def test_quantiles(self):
fpobj = FrameProcessor()
fpobj.load_annotator(DiffAnnotator(quantiles=[40, 50]))
finput = FrameInput("test-data/video-clip.mp4", bsize=8)
fpobj.process(finput, max_batch=2)
obj_out = fpobj.collect("diff")
keys = list(obj_out.keys())
assert issubclass(type(obj_out["q40"]), np.ndarray)
assert issubclass(type(obj_out["q50"]), np.ndarray)
assert issubclass(type(obj_out["h40"]), np.ndarray)
assert issubclass(type(obj_out["h50"]), np.ndarray)
def test_cutoff_ignore(self):
fpobj = FrameProcessor()
fpobj.load_annotator(DiffAnnotator(quantiles=[40]))
finput = FrameInput("test-data/video-clip.mp4", bsize=128)
fpobj.process(finput, max_batch=2)
obj_out = fpobj.collect_all()
ca = CutAggregator(
cut_vals={"h40": 0.2, "q40": 3}, ignore_vals={"avg_value": 70}
)
agg = ca.aggregate(obj_out)
assert agg == DictFrame()
def test_channels(self):
finput = FrameInput("test-data/video-clip.mp4", bsize=1)
batch = get_batch(finput, batch_num=0)
img = batch.get_frames()[0, :, :, :]
face = DictFrame({"top": 0, "bottom": 96, "left": 0, "right": 96})
femb = FaceEmbedVgg2()
femb._iformat = "channels_first"
emb1 = femb.embed(img, face)
femb._iformat = "channels_last"
emb2 = femb.embed(img, face)
assert (emb1 != emb2).any()
def test_meta_output_video(self):
fpobj = FrameProcessor()
fpobj.load_annotator(MetaAnnotator())
finput = FrameInput("test-data/video-clip.mp4", bsize=8)
fpobj.process(finput, max_batch=2)
obj_out = fpobj.collect("meta")
expected_keys = ["width", "type", "vname", "fps", "height", "frames"]
assert set(obj_out.keys()) == set(expected_keys)
assert obj_out["width"] == [708]
assert obj_out["height"] == [480]
assert obj_out["type"] == ["video"]
assert obj_out["vname"] == ["video-clip.mp4"]
assert obj_out["fps"] == [29.97002997002997]
assert obj_out["frames"] == [379]
def test_face_detector_cutoff_mtcnn(self):
anno = FaceAnnotator(detector=FaceDetectMtcnn(cutoff=0.99997), freq=4)
fpobj = FrameProcessor()
fpobj.load_annotator(anno)
finput = FrameInput("test-data/video-clip.mp4", bsize=8)
fpobj.process(finput, max_batch=2)
obj_out = fpobj.collect("face")
expected_keys = [
"video",
"frame",
"confidence",
"top",
"bottom",
"left",
"right",
]
assert set(obj_out.keys()) == set(expected_keys)
assert obj_out.shape == (4, 7)
def test_object_detection(self):
anno = ObjectAnnotator(freq=4, detector=ObjectDetectRetinaNet())
fpobj = FrameProcessor()
fpobj.load_annotator(anno)
finput = FrameInput("test-data/video-clip.mp4", bsize=8)
fpobj.process(finput, max_batch=2)
obj_out = fpobj.collect("object")
expected_keys = [
"video",
"frame",
"score",
"top",
"bottom",
"left",
"right",
"class",
]
assert set(obj_out.keys()) == set(expected_keys)
assert obj_out.shape == (17, 8)
def test_face_vgg2_embed(self):
anno = FaceAnnotator(detector=FaceDetectDlib(),
embedding=FaceEmbedVgg2(),
freq=4)
fpobj = FrameProcessor()
fpobj.load_annotator(anno)
finput = FrameInput("test-data/video-clip.mp4", bsize=8)
fpobj.process(finput, max_batch=2)
obj_out = fpobj.collect("face")
expected_keys = [
"video",
"frame",
"confidence",
"top",
"bottom",
"left",
"right",
"embed",
]
assert set(obj_out.keys()) == set(expected_keys)
assert issubclass(type(obj_out["embed"]), np.ndarray)
assert obj_out["embed"].shape == (8, 2048)
def main(argv):
try:
opts, args = getopt.getopt(
argv, "hf:q:c:h:",
["file=", "quantiles=", "cutvals=", "histdiff="])
except getopt.GetoptError:
print(
'dvt_to_sat.py -f <filename> -q <quantiles> -c <cutvals> -h <histdiff>'
)
sys.exit(2)
filename = ''
quantiles = 40
cutvals = 3
histdiff = 0
for opt, arg in opts:
if opt == '-h':
print(
'dvt_to_sat.py -f <filename> -q <quantiles> -c <cutvals> -h <histdiff>'
)
sys.exit()
elif opt in ("-f", "--file"):
filename = arg
elif opt in ("-q", "--quantiles"):
quantiles = arg
elif opt in ("-c", "--cutvals"):
cutvals = arg
elif opt in ("-h", "--histdiff"):
cutvals = arg
if (filename == ''):
print('missing param: filename is required')
sys.exit(2)
basename = os.path.basename(filename)
logging.basicConfig(level='INFO')
finput = FrameInput(filename, bsize=128)
fpobj = FrameProcessor()
fpobj.load_annotator(MetaAnnotator())
fpobj.load_annotator(DiffAnnotator(quantiles=[quantiles]))
fpobj.process(finput)
#fpobj.process(finput, max_batch=5)
obj = fpobj.collect_all()
meta = obj['meta'].todf()
obj['diff'].todf().head()
cagg = CutAggregator(cut_vals={
'h40': histdiff,
'q' + str(quantiles): cutvals
})
fps = meta['fps'][0]
print(fps)
df1 = cagg.aggregate(obj).todf()
df1['seconds_start'] = df1['frame_start'] / fps
df1['seconds_end'] = df1['frame_end'] / fps
out = df1.to_csv()
f = open(basename + ".csv", "w")
f.write(out)
f.close()
