def process():
lin_files = sorted(glob.glob("data/cell_lines/lineage*.npy"))
spots = []
for lf in lin_files:
lineage_num = int(re.search("lineage(\d+).npy", lf).group(1))
cell_line = np.load(lf)
elongation_rate = shared.get_elongation_rate(cell_line, discard=True)
if not elongation_rate or len(cell_line) < THRESHOLD_FRAMES:
continue
parB_paths = shared.get_parB_path(cell_line, cell_line[0].T, lineage_num)
spot_num = 1
for path in parB_paths:
spot_trace = path.spots()
lengths = list(path.len())
idx = 0
spot_data = {
"t": [],
"intensity": [],
"cell_length": lengths,
"x_mid": [],
"x_new": [],
"x_old": [],
"pole_known": cell_line[0].pole_assignment,
"spot_num": spot_num,
"lineage_num": lineage_num,
}
for x in spot_trace:
l = lengths[idx]
x_M = x[1]
x_N = x[1] + (l / 2)
x_O = l - x_N
spot_data["t"].append(x[0])
spot_data["intensity"].append(x[2])
spot_data["x_mid"].append(x_M)
spot_data["x_new"].append(x_N)
spot_data["x_old"].append(x_O)
idx += 1
spot_num += 1
if len(spot_data["t"]) >= THRESHOLD_FRAMES:
spots.append(spot_data)
# calculate diffusion parameters
d_mid, d_new, d_old = diffusion(spot_data)
s = pd.DataFrame(spots)
print(s)
def get_traces(orig_dir=None, two_spot=False, reuse=True):
data_hash = hashlib.sha1(os.getcwd().encode("utf8")).hexdigest()
if reuse and orig_dir and os.path.exists(os.path.join(orig_dir, "ParB_velocity", "data", data_hash)):
data_dir = os.path.join(orig_dir, "ParB_velocity", "data", data_hash)
files = sorted(glob.glob(os.path.join(data_dir, "*.pandas")))
spot_data = []
progress = progressbar.ProgressBar()
for f in progress(files):
spot_data.append(pd.read_pickle(f))
return spot_data
lin_files = sorted(glob.glob("data/cell_lines/lineage*.npy"))
lineage_nums = [int(re.search("lineage(\d+).npy", x).group(1)) for x in lin_files]
spot_data = []
progress = progressbar.ProgressBar()
for lineage_num, lf in progress(list(zip(lineage_nums, lin_files))):
cell_line = np.load(lf)
if not hasattr(cell_line[0], "pole_assignment") or cell_line[0].pole_assignment is None:
continue
# pole_assignment = cell_line[0].pole_assignment
T = cell_line[0].T
paths = shared.get_parB_path(cell_line, T, lineage_num)
if two_spot:
if len(paths) != 3:
continue
if len(cell_line[0].ParB) != 1:
continue
cell_elongation_rate = shared.get_elongation_rate(cell_line)
if cell_elongation_rate and cell_elongation_rate < 0:
cell_elongation_rate = 0
spot_num = 1
for path in paths:
# path.positions: distance from midcell
spot_trace = path.spots()
timing = []
d_mid = []
d_parA = []
intensity = []
lengths = path.len()
for x in spot_trace:
timing.append(x[0])
d_mid.append(x[1])
intensity.append(x[2])
c_idx = list(cell_line[0].t).index(x[0])
cell = cell_line[c_idx]
parA_mid = cell.ParA[0] - (cell.length[0][0] / 2)
dparA = np.abs(parA_mid - x[1])
d_parA.append(dparA)
data = pd.DataFrame(
data={
"timing": timing,
"d_mid": d_mid, # negative = closer to new pole
"d_parA": d_parA,
"intensity": intensity,
"cell_length": lengths,
},
)
data["d_new"] = data.d_mid + (data.cell_length / 2)
data["d_old"] = data.cell_length - data.d_new
path, subdir = os.path.split(os.getcwd())
topdir = os.path.basename(path)
data._path = os.getcwd()
data._top_dir = topdir
data._sub_dir = subdir
data._lineage_num = lineage_num
data._spot_num = spot_num
data._cell_line_id = cell_line[0].id
data._elongation_rate = cell_elongation_rate
data._hash = hashlib.sha256("{0}-{1}-{2}-{3}".format(
topdir,
subdir,
lineage_num,
spot_num,
).encode("utf-8")).hexdigest()
data._metadata = [
"_path", "_top_dir", "_sub_dir", "_lineage_num",
"_spot_num", "_cell_line_id",
"_elongation_rate", "_hash"
]
if orig_dir:
target_dir = os.path.join(orig_dir, "ParB_velocity", "data", data_hash)
if not os.path.exists(target_dir):
os.makedirs(target_dir)
data.to_pickle(os.path.join(
target_dir, "{0:03d}-{1:03d}.pandas".format(lineage_num, spot_num)
))
spot_data.append(data)
spot_num += 1
return spot_data
def process():
lin_files = sorted(glob.glob("data/cell_lines/lineage*.npy"))
lookup = json.loads(open("ancestry.json").read())
siblings = {} # (mother_lin, daughter_lin, daughter_lin
cell_lines = {}
data = pd.DataFrame(columns=DATA_INDEX)
for l in lin_files:
c = np.load(l)
mother_lin = lookup[c[0].id]
cell_lines[mother_lin] = c
if c[-1].children:
siblings[lookup[c[0].id]] = (lookup[c[-1].children[0]], lookup[c[-1].children[1]])
for parent_num in sorted(siblings.keys()):
child1_num, child2_num = siblings[parent_num]
# parent = cell_lines[parent_num][-1]
# make child1 the smaller cell
child1 = cell_lines[child1_num][0]
child2 = cell_lines[child2_num][0]
if child1.length < child2.length:
child2_num, child1_num = siblings[parent_num]
child1 = cell_lines[child1_num][0]
child2 = cell_lines[child2_num][0]
parent_lin = cell_lines[parent_num]
parent_growth = shared.get_growth_rate(parent_lin)
parent_elong = shared.get_elongation_rate(parent_lin)
child1_lin = cell_lines[child1_num]
child1_growth = shared.get_growth_rate(child1_lin)
child1_elong = shared.get_elongation_rate(child1_lin)
child2_lin = cell_lines[child2_num]
child2_growth = shared.get_growth_rate(child2_lin)
child2_elong = shared.get_elongation_rate(child2_lin)
c1_inten = get_intensity(child1)
c2_inten = get_intensity(child2)
c1_max = get_intensity(child1, "max")
c2_max = get_intensity(child2, "max")
# c1_maximal = get_maximal(child1)
c1_split = get_parB_split(child1_lin, child1_num)
c2_split = get_parB_split(child2_lin, child2_num)
if c1_inten == 0:
continue
c_ratio = c1_inten / c2_inten # ratio of intensity between children
m_ratio = c1_max / c2_max # ratio of max intensity between children
l_ratio = (child1.length / child2.length)[0][0] # ratio of child lengths
a_ratio = (child1.area / child2.area)[0][0] # ratio of child areas
cwd = os.getcwd()
twd, subdir = os.path.split(cwd)
topdir = os.path.basename(twd)
unique_id = hashlib.sha1(
"{0} {1} {2}".format(topdir, subdir, parent_num).encode("utf-8")
).hexdigest()
temp = [
topdir,
subdir,
cell_lines[parent_num][-1].id,
child1.id,
child2.id,
parent_num,
child1_num,
child2_num,
c_ratio,
m_ratio,
l_ratio,
a_ratio,
parent_growth, child1_growth, child2_growth,
parent_elong, child1_elong, child2_elong,
c1_split, c2_split,
parent_lin[0].length[0][0] * PX,
child1_lin[0].length[0][0] * PX,
child2_lin[0].length[0][0] * PX,
parent_lin[0].area[0][0] * PX * PX,
child1_lin[0].area[0][0] * PX * PX,
child2_lin[0].area[0][0] * PX * PX,
c1_inten, c2_inten,
c1_max, c2_max,
]
temp_data = pd.Series(
data=temp, index=DATA_INDEX, name=unique_id
)
data = data.append(temp_data)
return data
