def qstat(args):
clusters, pending_jobs = build_cluster(args.options, args.user_pattern)
pending_jobs = pending_jobs if args.pending_jobs else None
if not (args.cluster_only or args.expand or args.full):
print_status(clusters, pending_jobs, args.watch)
elif args.required_memory:
jobids = flatten(c.get_jobids() for c in clusters)
if isinstance(args.required_memory, str):
vmem_list = get_resource_option(jobids, args.required_memory)
else:
vmem_list = get_resource_option(jobids)
for cluster in clusters:
add_host_info(cluster.queues)
cluster.set_host_info()
cluster.set_vmem(vmem_list)
cluster.set_queue_printlen()
elif args.physical_memory or args.swapped_memory:
for cluster in clusters:
add_host_info(cluster.queues)
cluster.set_host_info()
cluster.set_queue_printlen()
if args.cluster_only:
print_cluster_status(clusters)
elif args.expand or args.full:
print_full_status(clusters, pending_jobs, not args.no_sort, args.full)
def sample():
if sep:
if m == 0:
return []
return lib.flatten((self.sample(), sep.sample())
for _ in range(0, m - 1)) + [self.sample()]
return [self.sample() for _ in range(0, m - 1)]
def qstat(args):
clusters, pending_jobs = build_cluster(args.options, args.user_pattern)
pending_jobs = pending_jobs if args.pending_jobs else None
if not (args.cluster_only or args.expand or args.full):
print_status(clusters, pending_jobs, args.watch)
elif args.required_memory:
jobids = flatten(c.get_jobids() for c in clusters)
if isinstance(args.required_memory, str):
vmem_list = get_resource_option(jobids, args.required_memory)
else:
vmem_list = get_resource_option(jobids)
for cluster in clusters:
add_host_info(cluster.queues)
cluster.set_host_info()
cluster.set_vmem(vmem_list)
cluster.set_queue_printlen()
elif args.physical_memory or args.swapped_memory:
for cluster in clusters:
add_host_info(cluster.queues)
cluster.set_host_info()
cluster.set_queue_printlen()
if args.cluster_only:
print_cluster_status(clusters)
elif args.expand or args.full:
print_full_status(clusters, pending_jobs, not args.no_sort, args.full)
def loop(self):
while 1:
self.buffer += self.irc.recv(4096)
temp_buffer = self.buffer.split("\n")
self.buffer = temp_buffer.pop()
for line in temp_buffer:
responses = []
# Stubbing out functionality for custom functions. Eventually the big block below will be gone.
for function in flatten(self.functions):
try:
responses.append(function(self, line))
except IndexError:
# I put this in here just to be safe. (Dirk)
pass
# Standard control library
try:
message = Message(line)
except IndexError:
pass
line = line.strip().split()
if line[0] == "PING":
self.irc.send("PONG %s\r\n" % line[1])
else:
try:
# Disconnect functionality (revisited)
command = message.command(self.command)
if command.__str__() == 'disconnect':
if not message.argv(self.command) == self.password:
if message.is_public():
koomar.send_message('Incorrect password.')
else:
koomar.send_private_message("Dear %s, you gave an invalid password." % message.sender, message.sender)
else:
koomar.send_message('Correct password. Disconnecting...')
self.disconnect()
return
if line[3] == ":%s" % (self.command):
if len(line) <= 4:
self.send_message("Type `%s quote`" % (self.command))
else:
pass
#if line[4] == "disconnect":
# if line[5] == self.password:
# self.disconnect()
# return
# else:
# if not line[2].startswith('#'):
# matches = re.match(':([A-Za-z0-9_-]+)!', line[0])
# sender = matches.groups()[0]
# self.send_private_message("Dear %s, you gave an invalid password." % sender, sender)
# else:
# self.send_message("Invalid password.")
#if not responses.__contains__(True):
#self.send_message("I don't know that command!")
except IndexError:
pass # Each line may not be a conversation
def convert(r):
def internal(e):
m = extractorPattern.match(e)
return int(m.groups()[3])
print(r)
i = int(guardBeginPattern.match(r[0]).groups()[0])
print(r[1:])
l = map(internal, r[1:])
return (i, flatten(map(lambda x: range(x[0], x[1]), partition(2, l))))
def format_result(result):
# TODO this is hacky.
if type(result) == dict and result.keys() == ['redirect']:
return (
generateCookieHeader() + '\n' + 'Location: ' + result['redirect'] +
'\n' +
# Necessary to force an external redirect which is necessary for cookies to
# work across the redirect.
'Status: 302\n\n')
else:
return ('Content-type: text/html\n' + generateCookieHeader() + '\n\n' +
lib.flatten(result).encode('utf-8'))
def main():
# CHECK ENVIRON #
listpath = flatten(os.listdir(path) for path in os.environ["PATH"].split(':') if os.path.exists(path))
if not (("qstat" in listpath) and ("qhost" in listpath)):
sys.exit("Error: qstat or qhost command not found in your path.")
try:
qstat.main()
except IOError as (errno, strerror):
if errno == 32: # Broken pipe
pass
else:
raise IOError(errno, strerror)
def step(rng, i, opt_state):
rng_spt, rng_qry, rng_reinit = split(rng, 3)
rln_params, pln_params = outer_get_params(opt_state)
x_spt, y_spt, sampled_tasks = inner_loop_sampler(
rng_spt, train_images, train_labels)
if not args.no_reset:
for sampled_task in sampled_tasks:
cls_w = pln_params[-2][0]
pln_params[-2] = (
ops.index_update(
cls_w,
ops.index[:, [sampled_task]],
nn.initializers.he_normal()(rng_reinit,
(cls_w.shape[0], 1)),
), # Reset W
*pln_params[-2][1:], # Keep bias (?)
)
x_qry, y_qry = outer_loop_sampler(rng_qry, train_images_flat,
train_labels_flat)
x_spt, y_spt = flatten(x_spt, 1), flatten(y_spt, 1)
x_qry, y_qry = (
jnp.concatenate((x_spt, x_qry), 0),
jnp.concatenate((y_spt, y_qry), 0),
)
x_spt, y_spt = x_spt[:, None, ...], y_spt[:, None, ...]
(outer_loss,
info), outer_grads = value_and_grad(outer_loop_loss_fn,
argnums=(0, 1),
has_aux=True)(rln_params,
pln_params, x_spt,
y_spt, x_qry, y_qry)
opt_state = outer_opt_update(i, outer_grads, opt_state)
return opt_state, info
def main():
# CHECK ENVIRON #
listpath = flatten(
os.listdir(path) for path in os.environ["PATH"].split(':')
if os.path.exists(path))
if not (("qstat" in listpath) and ("qhost" in listpath)):
sys.exit("Error: qstat or qhost command not found in your path.")
try:
qstat.main()
except IOError as (errno, strerror):
if errno == 32: # Broken pipe
pass
else:
raise IOError(errno, strerror)
def operate(self, operation, operands):
"""
~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
OPERATE
~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
Note: Profiles on which operations are made must have same limits.
They also cannot have "None" values within them!
"""
# Verify validity of operation
self.validate(operands)
# Copy profile on which operation is done
new = copy.deepcopy(self)
# Reset its components
new.reset()
# Merge all steps
new.T = lib.uniqify(self.T + lib.flatten([p.T for p in operands]))
# Compute each step of new profile
for T in new.T:
# Compute partial result with base profile
result = self.f(T)
# Look within each profile
for p in operands:
# Compute partial result on current profile
result = operation(result, p.f(T))
# Store result for current step
new.y.append(result)
# Normalize it
new.normalize()
# Derivate it
new.derivate()
# Return new profile
return new
def operate(self, op, profiles):
"""
~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
OPERATE
~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
Note: Profiles on which operations are made cannot have "None"
values within them!
"""
# Copy profile on which operation is done
new = copy.deepcopy(self)
# Reset its components
new.reset()
# Re-define time references
new.define(self.start, self.end)
# Merge all steps
new.T = lib.uniqify(self.T + lib.flatten([p.T for p in profiles]))
# Compute each step of new profile
for T in new.T:
# Compute partial result with base profile
y = self.f(T)
# Look within each profile
for p in profiles:
# Compute partial result on current profile
y = op(y, p.f(T))
# Store result for current step
new.y.append(y)
# Get min/max values
[new.min, new.max] = [min(new.y), max(new.y)]
# Normalize it
new.normalize()
# Return new profile
return new
def loop(self):
while 1:
self.buffer += self.irc.recv(4096)
temp_buffer = self.buffer.split("\n")
self.buffer = temp_buffer.pop()
for line in temp_buffer:
# First make sure if its a PING request.
parts = line.strip().split()
if parts[0] == "PING":
self.irc.send("PONG %s\r\n" % parts[1])
continue
try:
message = Message(line)
except IndexError:
pass
# Now move on to the main functionality.
responses = []
# Stubbing out functionality for custom functions. Eventually the big block below will be gone.
for function in flatten(self.functions):
# Making it very verbose just to be safe.
response = function(self, message)
if not response == "disconnect":
responses.append({"function": function, "response": response})
elif response == "disconnect":
# If the function returns False, it is telling koomar to kill itself.
self.send_message("%s is disconnecting..." % self.nickname)
self.disconnect()
return
# Checks to see if at least one of the parsers responded with either true or a string.
def check(r):
# The old algorithm, I'm keeping it here just for good times' sake.
# (r['response'] == True or (not type(r['response']) == bool and r['response'].isalnum()))
if r == True or type(r) == str:
return True
return False
if not [check(r["response"]) for r in responses].__contains__(True):
# and...
if message.is_command(self.command, sender_exceptions):
if message.is_public():
self.send_message("I don't know that command!")
else:
self.send_private_message("I don't know that command!", message.sender)
def export(self):
'''Export the config for shell usage.
Keys are uppercased. List-like keys are flattened.
>>> c = Config('activity: hanggliding')
>>> c.export()
'export ACTIVITY="hanggliding"'
'''
retval = ''
for key in self:
val = dfl(self[key])
# Make list-like keys shell friendly
if isinstance(val, (list, tuple)):
val = flatten(val)
val = ' '.join([shlex_quote(e) for e in val])
elif isinstance(val, dict):
val = repr(val)
retval += 'export {}="{}"\n'.format(
key.upper().replace(' ', '_'), val)
return retval[:-1]
def export(self):
'''Export the config for shell usage.
Keys are uppercased. List-like keys are flattened.
>>> c = Config('activity: hanggliding')
>>> c.export()
'export ACTIVITY="hanggliding"'
'''
retval = ''
for key in self:
val = dfl(self[key])
# Make list-like keys shell friendly
if isinstance(val, (list, tuple)):
val = flatten(val)
val = ' '.join([shlex_quote(e) for e in val])
elif isinstance(val, dict):
val = repr(val)
retval += 'export {}="{}"\n'.format(key.upper().replace(' ', '_'),
val)
return retval[:-1]
def op(self, op, profiles):
"""
~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
OP
~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
Execute a given operation on profiles, and return the resulting
profile. Said operation is executed on each step of the combined
time axes.
"""
# Test profile limits
if not all(
[p.start == self.start and p.end == self.end for p in profiles]):
raise errors.MismatchedLimits
# Copy profile on which operation is done
new = copy.deepcopy(self)
# Reset its components
new.reset()
# Re-define time references
new.define(self.start, self.end)
# Merge all steps
new.T = lib.uniqify(self.T + lib.flatten([p.T for p in profiles]))
# Compute each step of new profile
for T in new.T:
new.y += [self.f(T)]
for p in profiles:
new.y[-1] = op(new.y[-1], p.f(T))
# Normalize it
if new.norm is not None:
new.normalize()
# Return it
return new
def f(acc):
(x,xs) = acc
return [x]+ lib.flatten(xs)
def test_flatten_compress():
assert_true('flatten',
lib.flatten([[1, 2], [3, 4], [5, 6]]) == [1, 2, 3, 4, 5, 6])
assert_true('compress',
lib.compress([10, 11, 12, 13, 14], [0, 2, 4]) == [10, 12, 14])
def test_flatten(): l = [['F', 'G'], ['C', 'Am7'], 'Em7'] assert flatten(l) == ['F', 'G', 'C', 'Am7', 'Em7']
# take a[0] and a[1] elements and turn them into a range, multiple if spans over a day
def rangify(r):
def internal(a):
if a[0][0] == a[1][0]: # same day
return [range(a[0][1], a[1][1])]
else:
print('overday', r)
return [range(a[0][1], 60), range(0, a[1][1])]
return flatMap(internal, r)
# expand all shift items into ranges describing each minute
ranges = groupP(
lambda p, n: p[0] == n[0],
sorted(map(lambda x: (x[0], flatten(rangify(x[1]))), translatedShifts),
key=lambda x: x[0]))
# merges [ (id, [range]), ... ] collections into (id, [range1, range2, ...])
def merge(r):
def internal(acc, n):
return (n[0], acc[1] + n[1])
return reduce(internal, r, (0, []))
mergedRanges = map(lambda x: (x[0], sorted(x[1])), map(merge, ranges))
lenRanges = map(lambda x: (x[0], len(x[1])), mergedRanges)
def get_raw(etoks):
"""extract the raw fields from a
nested list of Etoks and LexTokens"""
return lib.flatten([Etok._get_raw1(e) for e in lib.fflatten(etoks)])
def parse(s):
n = s.split('@')
p = n[1].strip().split(':')
l = map(int, flatten([p[0].split(','), p[1].split('x')]))
return [l[0], l[1], l[2] + l[0], l[3] + l[1]]
grid = [['.'] * (maxX + 1) for i in range(maxY + 10)]
print('grid size', maxX, maxY)
def fill(g, r):
for y in range(r[1], r[3]):
for x in range(r[0], r[2]):
g[y][x] = '-' if g[y][x] == '.' else 'x'
for r in rects:
fill(grid, r)
#rowprint(grid)
print(len(filter(lambda x: x == 'x', flatten(grid))))
# part 2
def check(rs, j):
for i in range(len(rs)):
if i == j:
continue
if intersects((rs[i], rs[j])):
return False
return True
for i in range(len(rects)):
if check(rects, i):
print(rects[i], i + 1)
try:
input_entries = lib.parse_inside(index, inside, args.upstream)
except exc.KSError as err:
print("Error: %s" % (err,), file=sys.stderr)
sys.exit(1)
try:
sorted_entries = lib.series_sort(index, input_entries)
except exc.KSError as err:
print("Error: %s" % (err,), file=sys.stderr)
sys.exit(1)
new_inside = lib.flatten([
lib.series_header(inside),
lib.series_format(sorted_entries),
lib.series_footer(inside),
])
to_update = list(filter(lib.tag_needs_update, input_entries))
if args.check:
result = 0
if inside != new_inside:
print("Input is not sorted.")
result = 2
if len(to_update):
print("Git-repo tags are outdated.")
result = 2
sys.exit(result)
else:
output = lib.flatten([
def make_flat_set(arr):
return flatten(arr, 1)
try:
input_entries = lib.parse_inside(index, inside, args.upstream)
except exc.KSError as err:
print("Error: %s" % (err, ), file=sys.stderr)
sys.exit(1)
try:
sorted_entries = lib.series_sort(index, input_entries)
except exc.KSError as err:
print("Error: %s" % (err, ), file=sys.stderr)
sys.exit(1)
new_inside = lib.flatten([
lib.series_header(inside),
lib.series_format(sorted_entries),
lib.series_footer(inside),
])
to_update = list(filter(lib.tag_needs_update, input_entries))
if args.check:
result = 0
if inside != new_inside:
print("Input is not sorted.")
result = 2
if len(to_update):
print("Git-repo tags are outdated.")
result = 2
sys.exit(result)
else:
output = lib.flatten([
def get_jobids(self):
return flatten(q.get_jobids() for q in self.queues)
