def load_subscription_details(self):
all_subscriptions = frappe.db.sql(
"""
SELECT
si.outstanding_amount AS amount,
si.status AS status,
gs.to_date AS end_date
FROM `tabGym Subscription` AS gs, `tabSales Invoice` AS si
WHERE
gs.docstatus = 1 AND
gs.member = '{member}' AND
gs.reference_invoice = si.name
ORDER BY gs.from_date DESC
""".format(member=self.name),
as_dict=True,
)
unpaid_subscriptions = filter(lambda x: x.get('status') != 'Paid',
all_subscriptions)
outstanding = reduce(operator.add, pluck('amount',
unpaid_subscriptions), 0)
self.set_onload(
'subscription_details', {
'total_invoices': count(all_subscriptions),
'unpaid_invoices': count(unpaid_subscriptions),
'outstanding': outstanding,
})
self.set_onload('subscriptions', get_currents(self.name))
def load_subscription_details(self):
all_subscriptions = frappe.db.sql(
"""
SELECT
si.outstanding_amount AS amount,
si.status AS status,
gs.to_date AS end_date
FROM `tabGym Subscription` AS gs, `tabSales Invoice` AS si
WHERE
gs.docstatus = 1 AND
gs.member = '{member}' AND
gs.reference_invoice = si.name
ORDER BY gs.from_date DESC
""".format(member=self.name),
as_dict=True,
)
unpaid_subscriptions = filter(lambda x: x.get("status") != "Paid",
all_subscriptions)
outstanding = reduce(operator.add, pluck("amount",
unpaid_subscriptions), 0)
self.set_onload(
"subscription_details",
{
"total_invoices": count(all_subscriptions),
"unpaid_invoices": count(unpaid_subscriptions),
"outstanding": outstanding,
},
)
subscriptions = get_currents(self.name)
self.set_onload("subscriptions", subscriptions)
self.set_onload("last_trainer", _get_trainer(self.name, subscriptions))
def __init__(
self,
frame: pd.DataFrame,
window: int = 10,
window_two: int = 3,
is_fold: bool = False,
x_label: List[str] = ["state"],
y_label: List[str] = ["reward"]
):
self.n = 0
self.is_fold = is_fold
local_frame = frame.copy()
np_conv = lambda x: x.to_numpy()
swindows = sliding_window(window)
func = lambda x: pipe(x, np_conv, swindows)
stay = stack_array(window_two)
_slice_target = slice_target(window, window_two)
self.x_axis = pipe(
local_frame[x_label], np_conv, map(compress_row), swindows,
map(compose(concat_tuple)), map(stay)
)
self.y_axis = pipe(
frame[y_label], func, map(lambda x: torch.tensor(x).view(-1)),
map(log_el), map(_slice_target)
)
self.count = toolz.count(self.copy()[0])
self.zip_list = None
def test_chunks():
x = np.array([(int(i), float(i)) for i in range(100)],
dtype=[('a', np.int32), ('b', np.float32)])
b = bcolz.ctable(x)
assert count(chunks(b, chunksize=10)) == 10
assert (next(chunks(b, chunksize=10)) == x[:10]).all()
def test_chunks():
x = np.array([(int(i), float(i)) for i in range(100)],
dtype=[('a', np.int32), ('b', np.float32)])
b = bcolz.ctable(x)
assert count(chunks(b, chunksize=10)) == 10
assert (next(chunks(b, chunksize=10)) == x[:10]).all()
def test_mutable_ecs(num_original_entities: int) -> None:
ecdb: EntityComponentDatabase = create_ecdb()
# Add a few entities
for _ in range(num_original_entities):
ecdb, _ = add_entity(ecdb=ecdb,
components=(PositionComponent(y_axis=0, x_axis=0),
VelocityComponent(y_axis=0,
x_axis=0)))
systems: Systems[SystemUnion] = create_systems()
systems = add_system(systems=systems, priority=0, system=MovementSystem())
systems = add_system(systems=systems,
priority=1,
system=RemoveRandomEntitySystem())
loop_index = 0
while True:
ecdb = process_systems(ecdb=ecdb,
systems=systems,
process_system=process_system,
process_action=process_action)
assert len(ecdb) == num_original_entities - loop_index - 1
if count(query(ecdb=ecdb)) == 0:
break
loop_index += 1
def test_startService(self):
"""
L{FusionIndexServiceMaker} creates a multiservice with the store and
web services hooked up.
"""
maker = FusionIndexServiceMaker()
service = maker.makeService({
'db': self.mktemp(),
'port': 'tcp:0',
})
self.assertEqual(count(service), 2)
def test_startService(self):
"""
L{FusionIndexServiceMaker} creates a multiservice with the store and
web services hooked up.
"""
maker = FusionIndexServiceMaker()
service = maker.makeService({
'db': self.mktemp(),
'port': 'tcp:0',
})
self.assertEqual(count(service), 2)
def linecount(fn):
""" Count the number of lines in a textfile
We need this to build the graph for read_csv. This is much faster than
actually parsing the file, but still costly.
"""
extension = os.path.splitext(fn)[-1].lstrip('.')
myopen = opens.get(extension, open)
f = myopen(os.path.expanduser(fn))
result = toolz.count(f)
f.close()
return result
def linecount(fn):
""" Count the number of lines in a textfile
We need this to build the graph for read_csv. This is much faster than
actually parsing the file, but still costly.
"""
extension = os.path.splitext(fn)[-1].lstrip('.')
myopen = opens.get(extension, open)
f = myopen(os.path.expanduser(fn))
result = toolz.count(f)
f.close()
return result
def onload(self):
all_fees = frappe.db.sql(
"""
SELECT
si.rounded_total AS amount,
fee.status AS status,
fee.to_date AS end_date
FROM `tabGym Fee` AS fee, `tabSales Invoice` AS si
WHERE
fee.docstatus = 1 AND
fee.membership = '{membership}' AND
fee.reference_invoice = si.name
ORDER BY fee.to_date DESC
""".format(membership=self.name),
as_dict=True,
)
unpaid_fees = filter(lambda x: x.get('status') == 'Unpaid', all_fees)
self.set_onload('total_invoices', count(all_fees))
self.set_onload('unpaid_invoices', count(unpaid_fees))
outstanding = reduce(operator.add, pluck('amount', unpaid_fees), 0)
self.set_onload('outstanding', outstanding)
paid_fees = filter(lambda x: x.get('status') == 'Paid', all_fees)
end_date = get('end_date', first(paid_fees)) if paid_fees else None
self.set_onload('end_date', end_date)
def compute_up_1d(t, seq, **kwargs):
return toolz.count(filter(None, seq))
def compute_up_1d(expr, seq, **kwargs):
try:
return len(seq)
except TypeError:
return toolz.count(seq)
c1, c2, c3 = sns.palettes.color_palette('colorblind', 3)
for r, c, rr, cc in zip(*[list(rbc4_short[i]) for i in ['row1', 'col1', 'row2', 'col2']]):
plt.plot([c, cc], [r, rr], color=c1, marker=None)
for r, c, rr, cc in zip(*[list(rbc4_mid[i]) for i in ['row1', 'col1', 'row2', 'col2']]):
plt.plot([c, cc], [r, rr], color=c2, marker=None)
for r, c, rr, cc in zip(*[list(rbc4_long[i]) for i in ['row1', 'col1', 'row2', 'col2']]):
plt.plot([c, cc], [r, rr], color=c3, marker=None)
rbcim3 = rbcim2[:1758]
rbcim4 = filters.gaussian(rbcim3, sigma=3)
rbcim_med = filters.median(rbcim4, morphology.disk(100 / scale))
rbcim5 = img_as_ubyte(rbcim4) > rbcim_med
rbcskel = morphology.skeletonize(rbcim5)
rbcskel_ids = np.zeros(rbcskel.shape, int)
rbcskel_ids[rbcskel] = np.arange(1, np.sum(rbcskel) + 1)
import skeleton as skelpy
import networkx as nx
import toolz as tz
g = skelpy.skeleton_to_nx(rbcskel)
g.number_of_nodes()
tz.count(i for i in g.nodes_iter() if g.node[i]['type'] == 'junction')
cc = max(nx.connected_component_subgraphs(g), key=len)
n0, n1 = cc.nodes()[0], cc.nodes()[-1]
print(nx.shortest_path_length(cc, n0, n1, weight='weight'))
def has_multiple_bases(expr):
return toolz.count(find_immediate_parent_tables(expr)) > 1
def has_multiple_bases(expr):
return toolz.count(find_immediate_parent_tables(expr)) > 1
def count_quorum(self, lvl: int) -> int:
return count([q for q in self.level_quorum_count[lvl].values() if q])
def test_line_count_of_known_input():
"confirm all Lines read from basic input file"
expected_entry_count = count(entries)
found_entry_count = pipe(path, entries_from_path, count)
assert expected_entry_count == found_entry_count
def __len__(self):
"""Returns the number of entries in the mapping"""
return count(iter(self))
def __len__(self) -> int:
return count(self.path.glob('[!_]*')) # type: ignore
def compute_up_1d(expr, seq, **kwargs):
try:
return len(seq)
except TypeError:
return toolz.count(seq)
def __len__(self):
"""Returns the number of entries in the mapping"""
return count(iter(self))
def compute_up_1d(t, seq, **kwargs):
return toolz.count(filter(None, seq))
import sys
import itertools
import toolz
from gensim.models import word2vec
data_file = sys.argv[1]
sentences = [
s for s in word2vec.LineSentence(data_file)
if toolz.count(toolz.unique(s)) >= 2
]
cmb = toolz.frequencies(
toolz.mapcat(lambda s: itertools.combinations(sorted(toolz.unique(s)), 2),
sentences))
for (k1, k2), v in sorted(cmb.items(), key=lambda x: -x[1]):
print(f"item1 = {k1}, item2 = {k2}, freq = {v}")
def count_active_neighbours(self, point: Point) -> int:
# Includes self, if active
return count((neighbour for neighbour in self.neighbours([point])
if neighbour in self.data))
def __len__(self):
return count(iter(self))