def __init__(self, entity_id: str, state: Any,
attributes: Optional[Dict] = None,
last_changed: Optional[datetime.datetime] = None,
last_updated: Optional[datetime.datetime] = None,
context: Optional[Context] = None,
# Temp, because database can still store invalid entity IDs
# Remove with 1.0 or in 2020.
temp_invalid_id_bypass: Optional[bool] = False) -> None:
"""Initialize a new state."""
state = str(state)
if not valid_entity_id(entity_id) and not temp_invalid_id_bypass:
raise InvalidEntityFormatError((
"Invalid entity id encountered: {}. "
"Format should be <domain>.<object_id>").format(entity_id))
if not valid_state(state):
raise InvalidStateError((
"Invalid state encountered for entity id: {}. "
"State max length is 255 characters.").format(entity_id))
self.entity_id = entity_id.lower()
self.state = state # type: str
self.attributes = MappingProxyType(attributes or {})
self.last_updated = last_updated or dt_util.utcnow()
self.last_changed = last_changed or self.last_updated
self.context = context or Context()
def __init__(self, key, mass_fractions, atomic_fractions, formula):
"""
Private constructor. It should never be used.
"""
if key != Composition._key:
raise TypeError('Composition cannot be created using constructor')
if set(mass_fractions.keys()) != set(atomic_fractions.keys()):
raise ValueError('Mass and atomic fractions must have the same elements')
self.mass_fractions = MappingProxyType(mass_fractions)
self.atomic_fractions = MappingProxyType(atomic_fractions)
self._formula = formula
def __init__(self, entity_id, state, attributes=None, last_changed=None,
last_updated=None):
"""Initialize a new state."""
if not valid_entity_id(entity_id):
raise InvalidEntityFormatError((
"Invalid entity id encountered: {}. "
"Format should be <domain>.<object_id>").format(entity_id))
self.entity_id = entity_id.lower()
self.state = str(state)
self.attributes = MappingProxyType(attributes or {})
self.last_updated = last_updated or dt_util.utcnow()
self.last_changed = last_changed or self.last_updated
def make_crud_args(args: argparse.Namespace,
presets: MappingProxyType = MappingProxyType({})):
res = presets.get(args.access_preset, {})
relevant_cli_arguments = {k: v for k, v in vars(args).items()
if k in ('aws_access_key_id',
'bucket_name',
'endpoint_url',
'aws_secret_access_key') and v is not None}
res.update(relevant_cli_arguments)
return res
def __init__(self, entity_id, state, attributes=None, last_changed=None,
last_updated=None):
"""Initialize a new state."""
if not valid_entity_id(entity_id):
raise InvalidEntityFormatError((
"Invalid entity id encountered: {}. "
"Format should be <domain>.<object_id>").format(entity_id))
self.entity_id = entity_id.lower()
self.state = str(state)
self.attributes = MappingProxyType(attributes or {})
self.last_updated = dt_util.strip_microseconds(
last_updated or dt_util.utcnow())
# Strip microsecond from last_changed else we cannot guarantee
# state == State.from_dict(state.as_dict())
# This behavior occurs because to_dict uses datetime_to_str
# which does not preserve microseconds
self.last_changed = dt_util.strip_microseconds(
last_changed or self.last_updated)
def __init__(self, entity_id: str, state: Any,
attributes: Optional[Dict] = None,
last_changed: Optional[datetime.datetime] = None,
last_updated: Optional[datetime.datetime] = None,
context: Optional[Context] = None) -> None:
"""Initialize a new state."""
state = str(state)
if not valid_entity_id(entity_id):
raise InvalidEntityFormatError((
"Invalid entity id encountered: {}. "
"Format should be <domain>.<object_id>").format(entity_id))
if not valid_state(state):
raise InvalidStateError((
"Invalid state encountered for entity id: {}. "
"State max length is 255 characters.").format(entity_id))
self.entity_id = entity_id.lower()
self.state = state
self.attributes = MappingProxyType(attributes or {})
self.last_updated = last_updated or dt_util.utcnow()
self.last_changed = last_changed or self.last_updated
self.context = context or Context()
cards_of_deck = MappingProxyType(OrderedDict((
(deck['Miscellaneous Mayhem'], (
card['Badyear Git'],
card['Sprinkler Malfunction'],
card['Eclipse'],
card['Fanatic Invasion'],
card['Friendly Fans'],
card['Rowdy Fans'],
card['Heckler'],
card['Hometown Fans'],
card['Incoming!'],
card['Rogue Wizard'],
card['Ball Clone'],
card['Johnny Waterboy'],
card['That Babe\'s Got Talent!'],
)),
(deck['Special Team Plays'], (
card['Come To Papa!'],
card['Dogged Defense'],
card['Flea Flicker'],
card['Fumblerooski'],
card['Going the Extra Mile'],
card['Heroic Leap'],
card['New Blocking Scheme'],
card['Perfect Kick'],
card['Option Play'],
card['Punt'],
card['Spectacular Catch'],
card['Suicide Blitz'],
card['Wake Up Call'],
)),
(deck['Magic Items'], (
card['Beguiling Bracers'],
card['Belt of Invunerability'],
card['Fawndough\'s Headband'],
card['Force Shield'],
card['Gikta\'s Strength of Da Bear'],
card['Gloves of Holding'],
card['Inertia Dampner'],
card['Lucky Charm'],
card['Magic Gloves of Jark Longarm'],
card['Good Old Magic Codpiece'],
card['Rabbit\'s Foot'],
card['Ring of Teleportation'],
card['Wand of Smashing'],
)),
(deck['Dirty Tricks'], (
card['Blatant Foul'],
card['Chop Block'],
card['Custard Pie'],
card['Distract'],
card['Greased Shoes'],
card['Gromskull\'s Exploding Runes'],
card['Illegal Substitution'],
card['Kicking Boots'],
card['Pit Trap'],
card['Spiked Ball'],
card['Stolen Playbook'],
card['Trampoline Trap'],
card['Witch\'s Brew'],
)),
(deck['Good Karma'], (
card['All Out Blitz'],
card['Banana Skin'],
card['Butterfingers'],
card['Chainsaw'],
card['Dazed and Confused'],
card['Doc Bonesaw'],
card['Extra Training'],
card['Fan Uproar'],
card['Hurry Up Offense'],
card['Intensive Training'],
card['Unsportsmanlike Conduct'],
card['Knutt\'s Spell of Awesome Strength'],
card['Lewd Maneuvers'],
card['Lurve Potion'],
card['Magic Helmet'],
card['Miracle Worker'],
card['One with the Kicker'],
card['Razzle Dazzle'],
card['Suitable Pitch'],
card['Rune of Fear'],
card['Scutt\'s Scroll of Weather Magic'],
card['Stiletto'],
card['Team Anthem'],
card['The Fan'],
card['The Wall'],
card['Woof Woof!'],
)),
(deck['Random Events'], (
card['Bad Habits'],
card['Ballista'],
card['Blackmail'],
card['Buzzing'],
card['Duh, Where Am I?'],
card['Ego Trip'],
card['Zap!'],
card['Gimme That!'],
card['Iron Man'],
card['Kid Gloves'],
card['Knuckledusters'],
card['Magic Sponge'],
card['Mine'],
card['Not-So-Secret Weapon'],
card['Orcidas Sponsorship'],
card['Rakarth\'s Curse of Petty Spite'],
card['Tackling Machine'],
card['Get \'Em Lads!'],
)),
(deck['Desperate Measures'], (
card['Assassin'],
card['Doom and Gloom'],
card['Da Freight Train'],
card['Morley\'s Revenge'],
card['I am the Greatest'],
card['Mindblow'],
card['Come On Boys!'],
card['Mysterious Old Medicine Man'],
)),
)))
def __setstate__(self, state):
self.mass_fractions = MappingProxyType(state.get('mass_fractions', {}))
self.atomic_fractions = MappingProxyType(state.get('atomic_fractions', {}))
self._formula = state.get('formula', '')
class Composition:
"""
Defines a composition of a compound.
To create a composition, use the class methods:
- :meth:`from_pure`
- :meth:`from_formula`
- :meth:`from_mass_fractions`
- :meth:`from_atomic_fractions`
Use the following attributes to access the composition values:
- :attr:`mass_fractions`: :class:`dict` where the keys are atomic numbers and the values weight fractions.
- :attr:`atomic_fractions`: :class:`dict` where the keys are atomic numbers and the values atomic fractions.
- :attr:`formula`: chemical formula
The composition object is immutable, i.e. it cannot be modified once created.
Equality can be checked.
It is hashable.
It can be pickled or copied.
"""
_key = object()
PRECISION = 0.000000001 # 1ppb
def __init__(self, key, mass_fractions, atomic_fractions, formula):
"""
Private constructor. It should never be used.
"""
if key != Composition._key:
raise TypeError('Composition cannot be created using constructor')
if set(mass_fractions.keys()) != set(atomic_fractions.keys()):
raise ValueError('Mass and atomic fractions must have the same elements')
self.mass_fractions = MappingProxyType(mass_fractions)
self.atomic_fractions = MappingProxyType(atomic_fractions)
self._formula = formula
@classmethod
def from_pure(cls, z):
"""
Creates a pure composition.
Args:
z (int): atomic number
"""
return cls(cls._key, {z: 1.0}, {z: 1.0}, pyxray.element_symbol(z))
@classmethod
def from_formula(cls, formula):
"""
Creates a composition from a chemical formula.
Args:
formula (str): chemical formula
"""
atomic_fractions = convert_formula_to_atomic_fractions(formula)
return cls.from_atomic_fractions(atomic_fractions)
@classmethod
def from_mass_fractions(cls, mass_fractions, formula=None):
"""
Creates a composition from a mass fraction :class:`dict`.
Args:
mass_fractions (dict): mass fraction :class:`dict`.
The keys are atomic numbers and the values weight fractions.
Wildcard are accepted, e.g. ``{5: '?', 25: 0.4}`` where boron
will get a mass fraction of 0.6.
formula (str): optional chemical formula for the composition.
If ``None``, a formula will be generated for the composition.
"""
mass_fractions = process_wildcard(mass_fractions)
atomic_fractions = convert_mass_to_atomic_fractions(mass_fractions)
if not formula:
formula = generate_name(atomic_fractions)
return cls(cls._key, mass_fractions, atomic_fractions, formula)
@classmethod
def from_atomic_fractions(cls, atomic_fractions, formula=None):
"""
Creates a composition from an atomic fraction :class:`dict`.
Args:
atomic_fractions (dict): atomic fraction :class:`dict`.
The keys are atomic numbers and the values atomic fractions.
Wildcard are accepted, e.g. ``{5: '?', 25: 0.4}`` where boron
will get a atomic fraction of 0.6.
formula (str): optional chemical formula for the composition.
If ``None``, a formula will be generated for the composition.
"""
atomic_fractions = process_wildcard(atomic_fractions)
mass_fractions = convert_atomic_to_mass_fractions(atomic_fractions)
if not formula:
formula = generate_name(atomic_fractions)
return cls(cls._key, mass_fractions, atomic_fractions, formula)
def __len__(self):
return len(self.mass_fractions)
def __contains__(self, z):
return z in self.mass_fractions
def __iter__(self):
return iter(self.mass_fractions.keys())
def __repr__(self):
return '<{}({})>'.format(self.__class__.__name__, self.inner_repr())
def __eq__(self, other):
if not isinstance(other, self.__class__):
return False
if len(self) != len(other):
return False
for z in self.mass_fractions:
if z not in other.mass_fractions:
return False
fraction = self.mass_fractions[z]
other_fraction = other.mass_fractions[z]
if not math.isclose(fraction, other_fraction, abs_tol=self.PRECISION):
return False
return True
def __ne__(self, other):
return not self == other
def __hash__(self):
out = []
for z in sorted(self.mass_fractions):
out.append(z)
out.append(int(self.mass_fractions[z] / self.PRECISION))
return hash(tuple(out))
def __getstate__(self):
return {'mass_fractions': dict(self.mass_fractions),
'atomic_fractions': dict(self.atomic_fractions),
'formula': self.formula}
def __setstate__(self, state):
self.mass_fractions = MappingProxyType(state.get('mass_fractions', {}))
self.atomic_fractions = MappingProxyType(state.get('atomic_fractions', {}))
self._formula = state.get('formula', '')
def is_normalized(self):
return math.isclose(sum(self.mass_fractions.values()), 1.0, abs_tol=self.PRECISION)
def inner_repr(self):
return ', '.join('{}: {:.4f}'.format(pyxray.element_symbol(z), mass_fraction) for z, mass_fraction in self.mass_fractions.items())
@property
def formula(self):
return self._formula
def cached_hosts(self):
"""Read-only dict of cached DNS record."""
return MappingProxyType(self._cached_hosts)
async def format_and_send(
self,
*,
destination: discord.TextChannel,
response: feedparser.FeedParserDict,
feed_name: str,
feed_settings: dict,
embed_default: bool,
force: bool = False,
) -> Optional[List[int]]:
"""
Formats and sends,
returns the integer timestamp of latest entry in the feed which was sent
"""
use_embed = feed_settings.get("embed_override", None)
if use_embed is None:
use_embed = embed_default
assert isinstance(response.entries, list), "mypy" # nosec
match_rule = feed_settings.get("match_req", [])
def meets_rule(entry):
if not match_rule:
return True
field_name, term = match_rule
d = getattr(entry, field_name, None)
if not d:
return False
elif isinstance(d, list):
for item in d:
if term in item:
return True
return False
elif isinstance(d, str):
return term in d.casefold()
return False
if force:
_to_send = next(filter(meets_rule, response.entries), None)
if not _to_send:
return None
to_send = [_to_send]
else:
last = feed_settings.get("last", None)
last = tuple((last or (0,))[:5])
to_send = sorted(
[
e
for e in response.entries
if self.process_entry_time(e) > last and meets_rule(e)
],
key=self.process_entry_time,
)
last_sent = None
roles = feed_settings.get("role_mentions", [])
for entry in to_send:
color = destination.guild.me.color
kwargs = self.format_post(
entry, use_embed, color, feed_settings.get("template", None), roles
)
try:
r = discord.http.Route(
"POST", "/channels/{channel_id}/messages", channel_id=destination.id
)
if em := kwargs.pop("embed", None):
assert isinstance(em, discord.Embed), "mypy" # nosec
kwargs["embed"] = em.to_dict()
kwargs["allowed_mentions"] = {"parse": [], "roles": roles}
await self.bot.http.request(r, json=kwargs)
except discord.HTTPException as exc:
debug_exc_log(log, exc, "Exception while sending feed.")
self.bot.dispatch(
# If you want to use this, make your listener accept
# what you need from this + **kwargs to not break if I add more
# This listener is versioned.
# you should not mutate the feedparser classes.
#
# version: 1
# destination: discord.TextChannel
# feed_name: str
# feedparser_entry: feedparser.FeedParserDict
# feed_settings: MappingProxy
# forced_update: bool
"sinbadcogs_rss_send_fail",
listener_version=1,
destination=destination,
feed_name=feed_name,
feedparser_entry=entry,
feed_settings=MappingProxyType(feed_settings),
forced_update=force,
)
[('hdf5 index', ''), ('ligand count', ''), ('opt', ''), ('settings', 1), ('settings', 2)],
names=['index', 'sub index']
)
df = pd.DataFrame(None, index=idx, columns=columns)
df['hdf5 index'] = -1
df['ligand count'] = -1
df['settings'] = 'str'
df['opt'] = False
df.to_csv(filename)
IDX_DTYPE: Mapping[str, np.dtype] = MappingProxyType({
'core': BACKUP_IDX_DTYPE,
'core_no_opt': BACKUP_IDX_DTYPE,
'ligand': LIG_IDX_DTYPE,
'ligand_no_opt': LIG_IDX_DTYPE,
'qd': QD_IDX_DTYPE,
'qd_no_opt': QD_IDX_DTYPE
})
DEFAULT_PROPERTIES: Mapping[str, Optional[Tuple[str, np.dtype]]] = MappingProxyType({
'core': None,
'core_no_opt': None,
'ligand': ('formula', FORMULA_DTYPE),
'ligand_no_opt': None,
'qd': ('ligand count', LIG_COUNT_DTYPE),
'qd_no_opt': None
})
class GtirToNir(eve.NodeTranslator):
REDUCE_OP_INIT_VAL: ClassVar[Mapping[
gtir.ReduceOperator, common.BuiltInLiteral]] = MappingProxyType({
gtir.ReduceOperator.ADD:
common.BuiltInLiteral.ZERO,
gtir.ReduceOperator.MUL:
common.BuiltInLiteral.ONE,
gtir.ReduceOperator.MIN:
common.BuiltInLiteral.MIN_VALUE,
gtir.ReduceOperator.MAX:
common.BuiltInLiteral.MAX_VALUE,
})
REDUCE_OP_TO_BINOP: ClassVar[Mapping[
gtir.ReduceOperator, common.BinaryOperator]] = MappingProxyType({
gtir.ReduceOperator.ADD:
common.BinaryOperator.ADD,
gtir.ReduceOperator.MUL:
common.BinaryOperator.MUL,
# TODO
# gtir.ReduceOperator.MIN: nir.BuiltInLiteral.MIN_VALUE,
# gtir.ReduceOperator.MAX: nir.BuiltInLiteral.MAX_VALUE,
})
def visit_NeighborChain(self, node: gtir.NeighborChain, **kwargs):
return nir.NeighborChain(elements=node.elements)
def visit_HorizontalDimension(self, node: gtir.HorizontalDimension,
**kwargs):
return nir.HorizontalDimension(
primary=node.primary,
secondary=self.visit(node.secondary) if node.secondary else None)
def visit_VerticalDimension(self, node: gtir.VerticalDimension, **kwargs):
return nir.VerticalDimension()
def visit_Dimensions(self, node: gtir.Dimensions, **kwargs):
return nir.Dimensions(
horizontal=self.visit(node.horizontal)
if node.horizontal else None,
vertical=self.visit(node.vertical) if node.vertical else None,
)
def visit_UField(self, node: gtir.UField, **kwargs):
return nir.UField(name=node.name,
vtype=node.vtype,
dimensions=self.visit(node.dimensions))
def visit_TemporaryField(self, node: gtir.UField, **kwargs):
return nir.TemporaryField(name=node.name,
vtype=node.vtype,
dimensions=self.visit(node.dimensions))
# TODO test
# TODO discuss if this actually works: can we uniquely identify which ref in the field references which dimension or do we need other techniques (e.g. refer to primary and secondary dimension by name)
@staticmethod
def order_location_refs(
location_refs: List[gtir.LocationRef],
location_comprehensions: Dict[str, gtir.LocationComprehension],
):
"""
Returns a dict with primary, secondary and vertical (TODO)
"""
result = {}
decls = [location_comprehensions[ref.name] for ref in location_refs]
# If there is a secondary dimension (sparse), then one of the LocationComprehensions references the other.
for decl in decls:
if not isinstance(decl.of, gtir.Domain) and decl.of.name in [
ref.name for ref in location_refs
]:
assert "secondary" not in result
result["secondary"] = decl.name
else:
assert "primary" not in result
result["primary"] = decl.name
return result
def visit_FieldAccess(self, node: gtir.FieldAccess, *,
location_comprehensions, **kwargs):
ordered_location_refs = self.order_location_refs(
node.subscript, location_comprehensions)
primary_chain = location_comprehensions[
ordered_location_refs["primary"]].chain
secondary_chain = (
location_comprehensions[ordered_location_refs["secondary"]].chain
if "secondary" in ordered_location_refs else None)
return nir.FieldAccess(
name=node.name,
location_type=node.location_type,
primary=primary_chain,
secondary=secondary_chain,
)
def visit_NeighborReduce(self, node: gtir.NeighborReduce, *, last_block,
**kwargs):
loc_comprehension = copy.deepcopy(kwargs["location_comprehensions"])
assert node.neighbors.name not in loc_comprehension
loc_comprehension[node.neighbors.name] = node.neighbors
kwargs["location_comprehensions"] = loc_comprehension
body_location = node.neighbors.chain.elements[-1]
reduce_var_name = "local" + str(node.id_attr_)
last_block.declarations.append(
nir.LocalVar(
name=reduce_var_name,
vtype=common.DataType.FLOAT64, # TODO
location_type=node.location_type,
))
last_block.statements.append(
nir.AssignStmt(
left=nir.VarAccess(name=reduce_var_name,
location_type=node.location_type),
right=nir.Literal(
value=self.REDUCE_OP_INIT_VAL[node.op],
location_type=node.location_type,
vtype=common.DataType.FLOAT64, # TODO
),
location_type=node.location_type,
), )
body = nir.BlockStmt(
declarations=[],
statements=[
nir.AssignStmt(
left=nir.VarAccess(name=reduce_var_name,
location_type=body_location),
right=nir.BinaryOp(
left=nir.VarAccess(name=reduce_var_name,
location_type=body_location),
op=self.REDUCE_OP_TO_BINOP[node.op],
right=self.visit(node.operand,
in_neighbor_loop=True,
**kwargs),
location_type=body_location,
),
location_type=body_location,
)
],
location_type=body_location,
)
last_block.statements.append(
nir.NeighborLoop(
neighbors=self.visit(node.neighbors.chain),
body=body,
location_type=node.location_type,
))
return nir.VarAccess(name=reduce_var_name,
location_type=node.location_type) # TODO
def visit_Literal(self, node: gtir.Literal, **kwargs):
return nir.Literal(value=node.value,
vtype=node.vtype,
location_type=node.location_type)
def visit_BinaryOp(self, node: gtir.BinaryOp, **kwargs):
return nir.BinaryOp(
left=self.visit(node.left, **kwargs),
op=node.op,
right=self.visit(node.right, **kwargs),
location_type=node.location_type,
)
def visit_AssignStmt(self, node: gtir.AssignStmt, **kwargs):
return nir.AssignStmt(
left=self.visit(node.left, **kwargs),
right=self.visit(node.right, **kwargs),
location_type=node.location_type,
)
def visit_HorizontalLoop(self, node: gtir.HorizontalLoop, **kwargs):
block = nir.BlockStmt(declarations=[],
statements=[],
location_type=node.stmt.location_type)
stmt = self.visit(
node.stmt,
last_block=block,
location_comprehensions={node.location.name: node.location})
block.statements.append(stmt)
return nir.HorizontalLoop(
stmt=block,
location_type=node.location.chain.elements[0],
)
def visit_VerticalLoop(self, node: gtir.VerticalLoop, **kwargs):
return nir.VerticalLoop(
horizontal_loops=[self.visit(h) for h in node.horizontal_loops],
loop_order=node.loop_order,
)
def visit_Stencil(self, node: gtir.Stencil, **kwargs):
return nir.Stencil(vertical_loops=[
self.visit(loop) for loop in node.vertical_loops
], )
# TODO
def visit_Computation(self, node: gtir.Stencil, **kwargs):
return nir.Computation(
name=node.name,
params=[self.visit(p) for p in node.params],
declarations=[self.visit(decl) for decl in node.declarations]
if node.declarations else [],
stencils=[self.visit(s) for s in node.stencils],
)
def types(self) -> 'Mapping[TypeConName, ConcreteType]':
with self._lock:
return MappingProxyType(dict(self._data_types))
return self.everything
else:
# *:Specific.Module:Entity means return all matches of the requested name, but
# under any package
return self.by_name_lookup.get(type_name, ())
elif type_name == '*':
# PKG_ID:* means return all matches in a specific package
return reduce(add,
self.by_package_lookup.get(package_id, {}).values(),
())
else:
# PKG_ID:Specific.Module:Entity; we are looking for a very specific type
return self.by_package_lookup.get(package_id,
{}).get(type_name, ())
def _immutable_mmc(mapping: 'Mapping[str, Mapping[str, Collection[T]]]') -> \
'Mapping[str, Mapping[str, Collection[T]]]':
"""
Create an immutable copy of :class:`TemplateStoreCache` data structures.
"""
return MappingProxyType({
k1: MappingProxyType({k2: tuple(v)
for k2, v in v1.items()})
for k1, v1 in mapping.items()
})
EMPTY_MAPPING = MappingProxyType({})
EMPTY_TYPE_CACHE = TypeCache((), EMPTY_MAPPING, EMPTY_MAPPING)
def __init__(self, in_dir: pathlib.Path):
if not in_dir.is_dir():
raise IOError("Input directory is not a directory")
self._ldb = ccl_leveldb.RawLevelDb(in_dir)
# If performance is a concern we should refactor this, but slow and steady for now
# First collect the namespace (session/tab guid + host) and map-ids together
self._map_id_to_host = {} # map_id: (guid, host)
self._deleted_keys = set()
for rec in self._ldb.iterate_records_raw():
if rec.user_key.startswith(_NAMESPACE_PREFIX):
if rec.user_key == _NAMESPACE_PREFIX:
continue # bogus entry near the top usually
try:
key = rec.user_key.decode("utf-8")
except UnicodeDecodeError:
print(f"Invalid namespace key: {rec.user_key}")
continue
split_key = key.split("-", 2)
if len(split_key) != 3:
print(f"Invalid namespace key: {key}")
continue
_, guid, host = split_key
if not host:
continue # TODO investigate why this happens
# normalize host to lower just in case
host = host.lower()
guid_host_pair = guid, host
if rec.state == ccl_leveldb.KeyState.Deleted:
self._deleted_keys.add(guid_host_pair)
else:
try:
map_id = rec.value.decode("utf-8")
except UnicodeDecodeError:
print(f"Invalid namespace value: {key}")
continue
if not map_id:
continue # TODO: investigate why this happens/do we want to keep the host around somewhere?
#if map_id in self._map_id_to_host_guid and self._map_id_to_host_guid[map_id] != guid_host_pair:
if map_id in self._map_id_to_host and self._map_id_to_host[
map_id] != host:
print("Map ID Collision!")
print(f"map_id: {map_id}")
print(f"Old host: {self._map_id_to_host[map_id]}")
print(f"New host: {guid_host_pair}")
raise ValueError("map_id collision")
else:
self._map_id_to_host[map_id] = host
# freeze stuff
self._map_id_to_host = MappingProxyType(self._map_id_to_host)
self._deleted_keys = frozenset(self._deleted_keys)
self._host_lookup = {} # {host: {ss_key: [SessionStoreValue, ...]}}
self._orphans = [
] # list of tuples of key, value where we can't get the host
for rec in self._ldb.iterate_records_raw():
if rec.user_key.startswith(_MAP_ID_PREFIX):
try:
key = rec.user_key.decode("utf-8")
except UnicodeDecodeError:
print(f"Invalid map id key: {rec.user_key}")
continue
if rec.state == ccl_leveldb.KeyState.Deleted:
continue # TODO: do we want to keep the key around because the presence is important?
split_key = key.split("-", 2)
if len(split_key) != 3:
print(f"Invalid map id key: {key}")
continue
_, map_id, ss_key = split_key
if not split_key:
# TODO what does it mean when there is no key here?
# The value will also be a single number (encoded utf-8)
continue
try:
value = rec.value.decode("UTF-16-LE")
except UnicodeDecodeError:
# print(f"Error decoding value for {key}")
# print(f"Raw Value: {rec.value}")
continue
#guid_host_pair = self._map_id_to_host_guid.get(map_id)
host = self._map_id_to_host.get(map_id)
#if not guid_host_pair:
if not host:
self._orphans.append(
(ss_key, SessionStoreValue(value, None, rec.seq)))
else:
#guid, host = guid_host_pair
self._host_lookup.setdefault(host, {})
self._host_lookup[host].setdefault(ss_key, [])
self._host_lookup[host][ss_key].append(
SessionStoreValue(value, None, rec.seq))
class SessionStoreDb:
# todo: get all grouped by namespace by host?
# todo: get all grouped by namespace by host.key?
# todo: consider refactoring to only getting metadata on first pass and everything else on demand?
def __init__(self, in_dir: pathlib.Path):
if not in_dir.is_dir():
raise IOError("Input directory is not a directory")
self._ldb = ccl_leveldb.RawLevelDb(in_dir)
# If performance is a concern we should refactor this, but slow and steady for now
# First collect the namespace (session/tab guid + host) and map-ids together
self._map_id_to_host = {} # map_id: (guid, host)
self._deleted_keys = set()
for rec in self._ldb.iterate_records_raw():
if rec.user_key.startswith(_NAMESPACE_PREFIX):
if rec.user_key == _NAMESPACE_PREFIX:
continue # bogus entry near the top usually
try:
key = rec.user_key.decode("utf-8")
except UnicodeDecodeError:
print(f"Invalid namespace key: {rec.user_key}")
continue
split_key = key.split("-", 2)
if len(split_key) != 3:
print(f"Invalid namespace key: {key}")
continue
_, guid, host = split_key
if not host:
continue # TODO investigate why this happens
# normalize host to lower just in case
host = host.lower()
guid_host_pair = guid, host
if rec.state == ccl_leveldb.KeyState.Deleted:
self._deleted_keys.add(guid_host_pair)
else:
try:
map_id = rec.value.decode("utf-8")
except UnicodeDecodeError:
print(f"Invalid namespace value: {key}")
continue
if not map_id:
continue # TODO: investigate why this happens/do we want to keep the host around somewhere?
#if map_id in self._map_id_to_host_guid and self._map_id_to_host_guid[map_id] != guid_host_pair:
if map_id in self._map_id_to_host and self._map_id_to_host[
map_id] != host:
print("Map ID Collision!")
print(f"map_id: {map_id}")
print(f"Old host: {self._map_id_to_host[map_id]}")
print(f"New host: {guid_host_pair}")
raise ValueError("map_id collision")
else:
self._map_id_to_host[map_id] = host
# freeze stuff
self._map_id_to_host = MappingProxyType(self._map_id_to_host)
self._deleted_keys = frozenset(self._deleted_keys)
self._host_lookup = {} # {host: {ss_key: [SessionStoreValue, ...]}}
self._orphans = [
] # list of tuples of key, value where we can't get the host
for rec in self._ldb.iterate_records_raw():
if rec.user_key.startswith(_MAP_ID_PREFIX):
try:
key = rec.user_key.decode("utf-8")
except UnicodeDecodeError:
print(f"Invalid map id key: {rec.user_key}")
continue
if rec.state == ccl_leveldb.KeyState.Deleted:
continue # TODO: do we want to keep the key around because the presence is important?
split_key = key.split("-", 2)
if len(split_key) != 3:
print(f"Invalid map id key: {key}")
continue
_, map_id, ss_key = split_key
if not split_key:
# TODO what does it mean when there is no key here?
# The value will also be a single number (encoded utf-8)
continue
try:
value = rec.value.decode("UTF-16-LE")
except UnicodeDecodeError:
# print(f"Error decoding value for {key}")
# print(f"Raw Value: {rec.value}")
continue
#guid_host_pair = self._map_id_to_host_guid.get(map_id)
host = self._map_id_to_host.get(map_id)
#if not guid_host_pair:
if not host:
self._orphans.append(
(ss_key, SessionStoreValue(value, None, rec.seq)))
else:
#guid, host = guid_host_pair
self._host_lookup.setdefault(host, {})
self._host_lookup[host].setdefault(ss_key, [])
self._host_lookup[host][ss_key].append(
SessionStoreValue(value, None, rec.seq))
def __contains__(self, item: typing.Union[str, typing.Tuple[str,
str]]) -> bool:
"""if item is a str, returns true if that host is present
if item is a tuple of (str, str), returns True if that host and key pair are present"""
if isinstance(item, str):
return item in self._host_lookup
elif isinstance(item, tuple) and len(item) == 2:
host, key = item
return host in self._host_lookup and key in self._host_lookup[host]
else:
raise TypeError("item must be a string or a tuple of (str, str)")
def iter_hosts(self) -> typing.Iterable[str]:
yield from self._host_lookup.keys()
def get_all_for_host(self, host):
if host not in self:
return {}
result_raw = dict(self._host_lookup[host])
for ss_key in result_raw:
result_raw[ss_key] = tuple(result_raw[ss_key])
return result_raw
def get_session_storage_key(self, host, key):
if (host, key) not in self:
return tuple()
return tuple(self._host_lookup[host][key])
def iter_orphans(self):
yield from self._orphans
def __getitem__(self, item: typing.Union[str, typing.Tuple[str, str]]):
if item not in self:
raise KeyError(item)
if isinstance(item, str):
return self.get_all_for_host(item)
elif isinstance(item, tuple) and len(item) == 2:
return self.get_session_storage_key(*item)
else:
raise TypeError("item must be a string or a tuple of (str, str)")
def __iter__(self):
"""iterates the hosts present"""
return self.iter_hosts()
def close(self):
self._ldb.close()
class NaiveCodeGenerator(codegen.TemplatedGenerator):
DATA_TYPE_TO_STR: ClassVar[Mapping[common.DataType,
str]] = MappingProxyType({
common.DataType.BOOLEAN:
"bool",
common.DataType.INT32:
"int",
common.DataType.UINT32:
"unsigned_int",
common.DataType.FLOAT32:
"float",
common.DataType.FLOAT64:
"double",
})
LOCATION_TYPE_TO_STR_MAP: ClassVar[Mapping[LocationType, Mapping[
str, str]]] = MappingProxyType({
LocationType.Node:
MappingProxyType({
"singular": "vertex",
"plural": "vertices"
}),
LocationType.Edge:
MappingProxyType({
"singular": "edge",
"plural": "edges"
}),
LocationType.Face:
MappingProxyType({
"singular": "cell",
"plural": "cells"
}),
})
@classmethod
def apply(cls, root, **kwargs) -> str:
generated_code = super().apply(root, **kwargs)
formatted_code = codegen.format_source("cpp",
generated_code,
style="LLVM")
return formatted_code
def visit_DataType(self, node, **kwargs) -> str:
return self.DATA_TYPE_TO_STR[node]
def visit_LocationType(self, node, **kwargs) -> Mapping[str, str]:
return self.LOCATION_TYPE_TO_STR_MAP[node]
Node = as_mako(
"${_this_node.__class__.__name__.upper()}") # only for testing
UnstructuredField = as_mako("""<%
loc_type = location_type["singular"]
sparseloc = "sparse_" if _this_node.sparse_location_type else ""
%>
dawn::${ sparseloc }${ loc_type }_field_t<LibTag, ${ data_type }>& ${ name };"""
)
FieldAccessExpr = as_mako("""<%
sparse_index = "m_sparse_dimension_idx, " if _this_node.is_sparse else ""
field_acc_itervar = outer_iter_var if _this_node.is_sparse else iter_var
%>${ name }(deref(LibTag{}, ${ field_acc_itervar }), ${ sparse_index } k)""")
AssignmentExpr = as_fmt("{left} = {right}")
VarAccessExpr = as_fmt("{name}")
BinaryOp = as_fmt("{left} {op} {right}")
ExprStmt = as_fmt("\n{expr};")
VarDeclStmt = as_fmt("\n{data_type} {name};")
TemporaryFieldDeclStmt = as_mako("""using dawn::allocateEdgeField;
auto ${ name } = allocate${ location_type['singular'].capitalize() }Field<${ data_type }>(mesh);"""
)
ForK = as_mako("""<%
if _this_node.loop_order == _this_module.common.LoopOrder.FORWARD:
k_init = '0'
k_cond = 'k < k_size'
k_step = '++k'
else:
k_init = 'k_size -1'
k_cond = 'k >= 0'
k_step = '--k'
%>for (int k = ${k_init}; ${k_cond}; ${k_step}) {
int m_sparse_dimension_idx;
${ "".join(horizontal_loops) }\n}""")
HorizontalLoop = as_mako("""<%
loc_type = location_type['plural'].title()
%>for(auto const & t: get${ loc_type }(LibTag{}, mesh)) ${ ast }""")
def visit_HorizontalLoop(self, node, **kwargs) -> str:
return self.generic_visit(node, iter_var="t", **kwargs)
BlockStmt = as_mako("{${ ''.join(statements) }\n}")
ReduceOverNeighbourExpr = as_mako("""<%
right_loc_type = right_location_type["singular"].title()
loc_type = location_type["singular"].title()
%>(m_sparse_dimension_idx=0,reduce${ right_loc_type }To${ loc_type }(mesh, ${ outer_iter_var }, ${ init }, [&](auto& lhs, auto const& ${ iter_var }) {
lhs ${ operation }= ${ right };
m_sparse_dimension_idx++;
return lhs;
}))""")
def visit_ReduceOverNeighbourExpr(self, node, *, iter_var,
**kwargs) -> str:
outer_iter_var = iter_var
return self.generic_visit(
node,
outer_iter_var=outer_iter_var,
iter_var="redIdx",
**kwargs,
)
LiteralExpr = as_fmt("({data_type}){value}")
Stencil = as_mako("""
void ${name}() {
using dawn::deref;
${ "\\n".join(declarations) if _this_node.declarations else ""}
${ "".join(k_loops) }
}
""")
Computation = as_mako("""<%
stencil_calls = '\\n'.join("{name}();".format(name=s.name) for s in _this_node.stencils)
ctor_field_params = ', '.join(
'dawn::{sparse_loc}{loc_type}_field_t<LibTag, {data_type}>& {name}'.format(
loc_type=_this_generator.LOCATION_TYPE_TO_STR_MAP[p.location_type]['singular'],
name=p.name,
data_type=_this_generator.DATA_TYPE_TO_STR[p.data_type],
sparse_loc="sparse_" if p.sparse_location_type else ""
)
for p in _this_node.params
)
ctor_field_initializers = ', '.join(
'{name}({name})'.format(name=p.name) for p in _this_node.params
)
%>#define DAWN_GENERATED 1
#define DAWN_BACKEND_T CXXNAIVEICO
#include <driver-includes/unstructured_interface.hpp>
namespace dawn_generated {
namespace cxxnaiveico {
template <typename LibTag>
class generated {
private:
dawn::mesh_t<LibTag>& mesh;
int const k_size;
${ ''.join(params) }
${ ''.join(stencils) }
public:
generated(dawn::mesh_t<LibTag>& mesh, int k_size, ${ ctor_field_params }): mesh(mesh), k_size(k_size), ${ ctor_field_initializers } {}
void run() {
${ stencil_calls }
}
};
}
}
""")
def __init__(
self,
*_, # don't allow any positional arguments
embedding_size,
output_size,
representation_size=None,
representation_type='lstm',
representation_args=MappingProxyType({}),
deidentifier_type='lstm',
deidentifier_args=MappingProxyType({}),
extra_input_size=0,
adversaries=('discriminate-representations',
'discriminate-representation-embedding-pair'),
adversary_args=MappingProxyType({}),
optimizer='adam',
optimizer_args=MappingProxyType({})):
""" Initialize the adversarial model. It's components are
- a representation model that transforms embeddings into a (noisy) representation
- a deidentifier model that performs the deidentification task from the representation
- an adversary model that tries to reconstruct information from the representation
:param embedding_size: the representation input size
:param output_size: the deidentifier output size
:param representation_size: the representation size (or None to use the embedding size)
:param representation_type: the type of representation model to use (see representer.py)
:param representation_args: the kwargs for the representation model
:param deidentifier_type: the type of deidentifier model to use (see deidentifier.py)
:param deidentifier_args: the kwargs for the deidentifier model
:param adversaries: a sequence of adversary type strings (see adversary.py)
:param adversary_args: a dictionary of adversary args or a list of dictionaries (if every adversary should get
its own args)
:param optimizer: the type of optimizer to use (see optimizer.py)
:param optimizer_args: the args passed to the optimizer
"""
if representation_size is None:
representation_size = embedding_size
original_embeddings = Input(shape=(None, embedding_size))
build_representer = get_representer(representation_type)
self.train_representer = build_representer(
embedding_size=embedding_size,
representation_size=representation_size,
apply_noise=True,
**representation_args)
train_representation = self.train_representer(original_embeddings)
deidentifier, deidentifier_loss = get_deidentifier(deidentifier_type)(
name='deidentifier',
input_size=representation_size,
output_size=output_size,
extra_input_size=extra_input_size,
**deidentifier_args)
extra_input = Input(shape=(None, extra_input_size))
if extra_input_size > 0:
train_deidentifier_input = [train_representation, extra_input]
else:
train_deidentifier_input = train_representation
train_deidentifier_output = deidentifier(train_deidentifier_input)
self.pretrain_deidentifier = Model([original_embeddings, extra_input],
train_deidentifier_output)
self.pretrain_deidentifier.compile(
optimizer=get_optimizer(optimizer)(**optimizer_args),
loss=deidentifier_loss,
metrics=['accuracy'])
self.train_representer.trainable = False
adv_embeddings = Input(shape=(None, embedding_size))
adv_representation = self.train_representer(adv_embeddings)
adv_fake_embeddings = Input(shape=(None, embedding_size))
adv_fake_representation = self.train_representer(adv_fake_embeddings)
adversary_models = []
adversary_outputs = []
if isinstance(adversary_args, dict):
adversary_args = [adversary_args for _ in adversaries]
for adversary_type, args in zip(adversaries, adversary_args):
adversary = get_adversary(adversary_type)(
inputs={
'train_representation': adv_representation,
'original_embeddings': adv_embeddings,
'fake_representation': adv_fake_representation
},
representation_size=representation_size,
embedding_size=embedding_size,
**args)
adversary_models.append(adversary.model)
adversary_outputs.append(adversary.model(adversary.inputs))
adversary.model.summary()
adversary_output = concatenate(adversary_outputs, axis=-1)
adversary_output = Lambda(lambda x: K.mean(x, axis=-1, keepdims=True),
name='adversary')(adversary_output)
self.pretrain_adversary = Model([adv_embeddings, adv_fake_embeddings],
adversary_output)
self.pretrain_adversary.summary()
self.pretrain_adversary.compile(
optimizer=get_optimizer(optimizer)(**optimizer_args),
loss='binary_crossentropy',
metrics=['accuracy'])
self.fine_tune_branches = Model([
original_embeddings, extra_input, adv_embeddings,
adv_fake_embeddings
], [train_deidentifier_output, adversary_output])
self.fine_tune_branches.compile(
optimizer=get_optimizer(optimizer)(**optimizer_args),
loss=[deidentifier_loss, 'binary_crossentropy'],
metrics=['accuracy'])
self.train_representer.trainable = True
deidentifier.trainable = False
for adversary in adversary_models:
adversary.trainable = False
self.fine_tune_representer = Model([
original_embeddings, extra_input, adv_embeddings,
adv_fake_embeddings
], [train_deidentifier_output, adversary_output])
self.fine_tune_representer.compile(
optimizer=get_optimizer(optimizer)(**optimizer_args),
loss=[deidentifier_loss, adversarial_objective],
loss_weights=[1, 1],
metrics=['accuracy'])
AQI: 'MappingProxyType[str, dict]' = MappingProxyType({
# Key == `pm25_high`
'pm25': {
'12.0': {
'aqi_high': 50,
'aqi_low': 0,
'pollutant_high': 12.0,
'pollutant_low': 0.0,
},
'35.4': {
'aqi_high': 100,
'aqi_low': 51,
'pollutant_high': 35.4,
'pollutant_low': 12.1,
},
'55.4': {
'aqi_high': 150,
'aqi_low': 101,
'pollutant_high': 55.4,
'pollutant_low': 35.5,
},
'150.4': {
'aqi_high': 200,
'aqi_low': 151,
'pollutant_high': 150.4,
'pollutant_low': 55.5,
},
'250.4': {
'aqi_high': 300,
'aqi_low': 201,
'pollutant_high': 250.4,
'pollutant_low': 150.5,
},
'350.4': {
'aqi_high': 400,
'aqi_low': 301,
'pollutant_high': 350.4,
'pollutant_low': 250.5,
},
'500.4': {
'aqi_high': 500,
'aqi_low': 401,
'pollutant_high': 500.4,
'pollutant_low': 350.5,
},
},
'pm10': {
'54': {
'aqi_high': 50,
'aqi_low': 0,
'pollutant_high': 54,
'pollutant_low': 0,
},
'154': {
'aqi_high': 100,
'aqi_low': 51,
'pollutant_high': 154,
'pollutant_low': 55,
},
'254': {
'aqi_high': 150,
'aqi_low': 101,
'pollutant_high': 254,
'pollutant_low': 155,
},
'354': {
'aqi_high': 200,
'aqi_low': 151,
'pollutant_high': 354,
'pollutant_low': 255,
},
'424': {
'aqi_high': 300,
'aqi_low': 201,
'pollutant_high': 424,
'pollutant_low': 355,
},
'504': {
'aqi_high': 301,
'aqi_low': 400,
'pollutant_high': 504,
'pollutant_low': 425,
},
'604': {
'aqi_high': 500,
'aqi_low': 401,
'pollutant_high': 604,
'pollutant_low': 505,
},
},
})
class State:
"""Object to represent a state within the state machine.
entity_id: the entity that is represented.
state: the state of the entity
attributes: extra information on entity and state
last_changed: last time the state was changed, not the attributes.
last_updated: last time this object was updated.
context: Context in which it was created
"""
__slots__ = ['entity_id', 'state', 'attributes',
'last_changed', 'last_updated', 'context']
def __init__(self, entity_id: str, state: Any,
attributes: Optional[Dict] = None,
last_changed: Optional[datetime.datetime] = None,
last_updated: Optional[datetime.datetime] = None,
context: Optional[Context] = None,
# Temp, because database can still store invalid entity IDs
# Remove with 1.0 or in 2020.
temp_invalid_id_bypass: Optional[bool] = False) -> None:
"""Initialize a new state."""
state = str(state)
if not valid_entity_id(entity_id) and not temp_invalid_id_bypass:
raise InvalidEntityFormatError((
"Invalid entity id encountered: {}. "
"Format should be <domain>.<object_id>").format(entity_id))
if not valid_state(state):
raise InvalidStateError((
"Invalid state encountered for entity id: {}. "
"State max length is 255 characters.").format(entity_id))
self.entity_id = entity_id.lower()
self.state = state # type: str
self.attributes = MappingProxyType(attributes or {})
self.last_updated = last_updated or dt_util.utcnow()
self.last_changed = last_changed or self.last_updated
self.context = context or Context()
@property
def domain(self) -> str:
"""Domain of this state."""
return split_entity_id(self.entity_id)[0]
@property
def object_id(self) -> str:
"""Object id of this state."""
return split_entity_id(self.entity_id)[1]
@property
def name(self) -> str:
"""Name of this state."""
return (
self.attributes.get(ATTR_FRIENDLY_NAME) or
self.object_id.replace('_', ' '))
def as_dict(self) -> Dict:
"""Return a dict representation of the State.
Async friendly.
To be used for JSON serialization.
Ensures: state == State.from_dict(state.as_dict())
"""
return {'entity_id': self.entity_id,
'state': self.state,
'attributes': dict(self.attributes),
'last_changed': self.last_changed,
'last_updated': self.last_updated,
'context': self.context.as_dict()}
@classmethod
def from_dict(cls, json_dict: Dict) -> Any:
"""Initialize a state from a dict.
Async friendly.
Ensures: state == State.from_json_dict(state.to_json_dict())
"""
if not (json_dict and 'entity_id' in json_dict and
'state' in json_dict):
return None
last_changed = json_dict.get('last_changed')
if isinstance(last_changed, str):
last_changed = dt_util.parse_datetime(last_changed)
last_updated = json_dict.get('last_updated')
if isinstance(last_updated, str):
last_updated = dt_util.parse_datetime(last_updated)
context = json_dict.get('context')
if context:
context = Context(
id=context.get('id'),
user_id=context.get('user_id'),
)
return cls(json_dict['entity_id'], json_dict['state'],
json_dict.get('attributes'), last_changed, last_updated,
context)
def __eq__(self, other: Any) -> bool:
"""Return the comparison of the state."""
return (self.__class__ == other.__class__ and # type: ignore
self.entity_id == other.entity_id and
self.state == other.state and
self.attributes == other.attributes and
self.context == other.context)
def __repr__(self) -> str:
"""Return the representation of the states."""
attrs = "; {}".format(util.repr_helper(self.attributes)) \
if self.attributes else ""
return "<state {}={}{} @ {}>".format(
self.entity_id, self.state, attrs,
dt_util.as_local(self.last_changed).isoformat())
def lifted(self):
return MappingProxyType(self.__lifted)
class State:
"""Object to represent a state within the state machine.
entity_id: the entity that is represented.
state: the state of the entity
attributes: extra information on entity and state
last_changed: last time the state was changed, not the attributes.
last_updated: last time this object was updated.
context: Context in which it was created
"""
__slots__ = [
'entity_id', 'state', 'attributes', 'last_changed', 'last_updated',
'context'
]
def __init__(self,
entity_id: str,
state: Any,
attributes: Optional[Dict] = None,
last_changed: Optional[datetime.datetime] = None,
last_updated: Optional[datetime.datetime] = None,
context: Optional[Context] = None) -> None:
"""Initialize a new state."""
state = str(state)
if not valid_entity_id(entity_id):
raise InvalidEntityFormatError(
("Invalid entity id encountered: {}. "
"Format should be <domain>.<object_id>").format(entity_id))
if not valid_state(state):
raise InvalidStateError(
("Invalid state encountered for entity id: {}. "
"State max length is 255 characters.").format(entity_id))
self.entity_id = entity_id.lower()
self.state = state
self.attributes = MappingProxyType(attributes or {})
self.last_updated = last_updated or dt_util.utcnow()
self.last_changed = last_changed or self.last_updated
self.context = context or Context()
@property
def domain(self) -> str:
"""Domain of this state."""
return split_entity_id(self.entity_id)[0]
@property
def object_id(self) -> str:
"""Object id of this state."""
return split_entity_id(self.entity_id)[1]
@property
def name(self) -> str:
"""Name of this state."""
return (self.attributes.get(ATTR_FRIENDLY_NAME)
or self.object_id.replace('_', ' '))
def as_dict(self) -> Dict:
"""Return a dict representation of the State.
Async friendly.
To be used for JSON serialization.
Ensures: state == State.from_dict(state.as_dict())
"""
return {
'entity_id': self.entity_id,
'state': self.state,
'attributes': dict(self.attributes),
'last_changed': self.last_changed,
'last_updated': self.last_updated,
'context': self.context.as_dict()
}
@classmethod
def from_dict(cls, json_dict: Dict) -> Any:
"""Initialize a state from a dict.
Async friendly.
Ensures: state == State.from_json_dict(state.to_json_dict())
"""
if not (json_dict and 'entity_id' in json_dict
and 'state' in json_dict):
return None
last_changed = json_dict.get('last_changed')
if isinstance(last_changed, str):
last_changed = dt_util.parse_datetime(last_changed)
last_updated = json_dict.get('last_updated')
if isinstance(last_updated, str):
last_updated = dt_util.parse_datetime(last_updated)
context = json_dict.get('context')
if context:
context = Context(**context)
return cls(json_dict['entity_id'], json_dict['state'],
json_dict.get('attributes'), last_changed, last_updated,
context)
def __eq__(self, other: Any) -> bool:
"""Return the comparison of the state."""
return (self.__class__ == other.__class__ and # type: ignore
self.entity_id == other.entity_id and
self.state == other.state and self.attributes
== other.attributes and self.context == other.context)
def __repr__(self) -> str:
"""Return the representation of the states."""
attrs = "; {}".format(util.repr_helper(self.attributes)) \
if self.attributes else ""
return "<state {}={}{} @ {}>".format(
self.entity_id, self.state, attrs,
dt_util.as_local(self.last_changed).isoformat())
class JsonPatch(object):
json_dumper = staticmethod(json.dumps)
json_loader = staticmethod(_jsonloads)
operations = MappingProxyType({
'remove': RemoveOperation,
'add': AddOperation,
'replace': ReplaceOperation,
'move': MoveOperation,
'test': TestOperation,
'copy': CopyOperation,
})
"""A JSON Patch is a list of Patch Operations.
>>> patch = JsonPatch([
... {'op': 'add', 'path': '/foo', 'value': 'bar'},
... {'op': 'add', 'path': '/baz', 'value': [1, 2, 3]},
... {'op': 'remove', 'path': '/baz/1'},
... {'op': 'test', 'path': '/baz', 'value': [1, 3]},
... {'op': 'replace', 'path': '/baz/0', 'value': 42},
... {'op': 'remove', 'path': '/baz/1'},
... ])
>>> doc = {}
>>> result = patch.apply(doc)
>>> expected = {'foo': 'bar', 'baz': [42]}
>>> result == expected
True
JsonPatch object is iterable, so you can easily access each patch
statement in a loop:
>>> lpatch = list(patch)
>>> expected = {'op': 'add', 'path': '/foo', 'value': 'bar'}
>>> lpatch[0] == expected
True
>>> lpatch == patch.patch
True
Also JsonPatch could be converted directly to :class:`bool` if it contains
any operation statements:
>>> bool(patch)
True
>>> bool(JsonPatch([]))
False
This behavior is very handy with :func:`make_patch` to write more readable
code:
>>> old = {'foo': 'bar', 'numbers': [1, 3, 4, 8]}
>>> new = {'baz': 'qux', 'numbers': [1, 4, 7]}
>>> patch = make_patch(old, new)
>>> if patch:
... # document have changed, do something useful
... patch.apply(old) #doctest: +ELLIPSIS
{...}
"""
def __init__(self, patch, pointer_cls=JsonPointer):
self.patch = patch
self.pointer_cls = pointer_cls
# Verify that the structure of the patch document
# is correct by retrieving each patch element.
# Much of the validation is done in the initializer
# though some is delayed until the patch is applied.
for op in self.patch:
self._get_operation(op)
def __str__(self):
"""str(self) -> self.to_string()"""
return self.to_string()
def __bool__(self):
return bool(self.patch)
__nonzero__ = __bool__
def __iter__(self):
return iter(self.patch)
def __hash__(self):
return hash(tuple(self._ops))
def __eq__(self, other):
if not isinstance(other, JsonPatch):
return False
return self._ops == other._ops
def __ne__(self, other):
return not (self == other)
@classmethod
def from_string(cls, patch_str, loads=None, pointer_cls=JsonPointer):
"""Creates JsonPatch instance from string source.
:param patch_str: JSON patch as raw string.
:type patch_str: str
:param loads: A function of one argument that loads a serialized
JSON string.
:type loads: function
:param pointer_cls: JSON pointer class to use.
:type pointer_cls: Type[JsonPointer]
:return: :class:`JsonPatch` instance.
"""
json_loader = loads or cls.json_loader
patch = json_loader(patch_str)
return cls(patch, pointer_cls=pointer_cls)
@classmethod
def from_diff(
cls,
src,
dst,
optimization=True,
dumps=None,
pointer_cls=JsonPointer,
):
"""Creates JsonPatch instance based on comparison of two document
objects. Json patch would be created for `src` argument against `dst`
one.
:param src: Data source document object.
:type src: dict
:param dst: Data source document object.
:type dst: dict
:param dumps: A function of one argument that produces a serialized
JSON string.
:type dumps: function
:param pointer_cls: JSON pointer class to use.
:type pointer_cls: Type[JsonPointer]
:return: :class:`JsonPatch` instance.
>>> src = {'foo': 'bar', 'numbers': [1, 3, 4, 8]}
>>> dst = {'baz': 'qux', 'numbers': [1, 4, 7]}
>>> patch = JsonPatch.from_diff(src, dst)
>>> new = patch.apply(src)
>>> new == dst
True
"""
json_dumper = dumps or cls.json_dumper
builder = DiffBuilder(json_dumper, pointer_cls=pointer_cls)
builder._compare_values('', None, src, dst)
ops = list(builder.execute())
return cls(ops, pointer_cls=pointer_cls)
def to_string(self, dumps=None):
"""Returns patch set as JSON string."""
json_dumper = dumps or self.json_dumper
return json_dumper(self.patch)
@property
def _ops(self):
return tuple(map(self._get_operation, self.patch))
def apply(self, obj, in_place=False):
"""Applies the patch to a given object.
:param obj: Document object.
:type obj: dict
:param in_place: Tweaks the way how patch would be applied - directly to
specified `obj` or to its copy.
:type in_place: bool
:return: Modified `obj`.
"""
if not in_place:
obj = copy.deepcopy(obj)
for operation in self._ops:
obj = operation.apply(obj)
return obj
def _get_operation(self, operation):
if 'op' not in operation:
raise InvalidJsonPatch("Operation does not contain 'op' member",
op=operation)
op = operation['op']
if not isinstance(op, basestring):
raise InvalidJsonPatch("Operation must be a string", op=operation)
if op not in self.operations:
raise InvalidJsonPatch("Unknown operation {0!r}".format(op),
op=operation)
cls = self.operations[op]
return cls(operation, pointer_cls=self.pointer_cls)
from types import MappingProxyType
DEFAULT_STORAGE: str = 'django.core.files.storage.FileSystemStorage'
STORAGES: MappingProxyType = MappingProxyType({
'LOCAL': DEFAULT_STORAGE,
'AWS_S3': 'storages.backends.s3boto3.S3Boto3Storage'
})
# what you need from this + **kwargs to not break if I add more
# This listener is versioned.
# you should not mutate the feedparser classes.
#
# version: 1
# destination: discord.TextChannel
# feed_name: str
# feedparser_entry: feedparser.FeedParserDict
# feed_settings: MappingProxy
# forced_update: bool
"sinbadcogs_rss_send",
listener_version=1,
destination=destination,
feed_name=feed_name,
feedparser_entry=entry,
feed_settings=MappingProxyType(feed_settings),
forced_update=force,
)
finally:
last_sent = list(self.process_entry_time(entry))
return last_sent
def format_post(self, entry, embed: bool, color, template=None, roles=[]) -> dict:
if template is None:
if embed:
_template = "[$title]($link)"
else:
_template = "$title: <$link>"
else:
An immutable empty :class:`~collections.abc.Set`.
.. data:: EMPTY_SEQUENCE
:type: Sequence
:value: tuple()
An immutable empty :class:`~collections.abc.Sequence`.
.. data:: EMPTY_MAPPING
:type: Mapping
:value: types.MappingProxyType({})
An immutable empty :class:`~collections.abc.Mapping`.
"""
from types import MappingProxyType
from typing import Mapping, Collection, Sequence, AbstractSet, Container, Any
__all__ = [
'EMPTY_SEQUENCE', 'EMPTY_MAPPING', 'EMPTY_COLLECTION', 'EMPTY_SET',
'EMPTY_CONTAINER'
]
EMPTY_SEQUENCE: Sequence[Any] = ()
EMPTY_MAPPING: Mapping[Any, Any] = MappingProxyType({})
EMPTY_COLLECTION: Collection[Any] = frozenset()
EMPTY_SET: AbstractSet[Any] = frozenset()
EMPTY_CONTAINER: Container[Any] = frozenset()
def params(self):
return MappingProxyType(self._params)
def _pack_value(
self,
fname,
ftype,
parent,
value_name="value",
metadata=MappingProxyType({}),
):
overridden: typing.Optional[str] = None
serialize_option = metadata.get("serialize")
if serialize_option is None:
strategy = metadata.get("serialization_strategy")
if isinstance(strategy, SerializationStrategy):
serialize_option = strategy.serialize
if serialize_option is None:
strategy = self.get_config().serialization_strategy.get(ftype)
if isinstance(strategy, dict):
serialize_option = strategy.get("serialize")
elif isinstance(strategy, SerializationStrategy):
serialize_option = strategy.serialize
if callable(serialize_option):
setattr(
self.cls,
f"__{fname}_serialize",
staticmethod(serialize_option),
)
overridden = f"self.__{fname}_serialize({value_name})"
with suppress(TypeError):
if issubclass(ftype, SerializableType):
return overridden or f"{value_name}._serialize()"
origin_type = get_type_origin(ftype)
if is_special_typing_primitive(origin_type):
if origin_type is typing.Any:
return overridden or value_name
elif is_union(ftype):
args = getattr(ftype, "__args__", ())
if len(args) == 2 and args[1] == NoneType: # it is Optional
return self._pack_value(fname,
args[0],
parent,
metadata=metadata)
else:
method_name = self._add_pack_union(fname, ftype, args,
parent, metadata)
return (f"self.{method_name}({value_name},"
f"{self.get_to_dict_flags()})")
elif origin_type is typing.AnyStr:
raise UnserializableDataError(
"AnyStr is not supported by mashumaro")
elif is_type_var(ftype):
raise UnserializableDataError(
"TypeVars are not supported by mashumaro")
else:
raise UnserializableDataError(
f"{ftype} as a field type is not supported by mashumaro")
elif origin_type is int:
return overridden or f"int({value_name})"
elif origin_type is float:
return overridden or f"float({value_name})"
elif origin_type in (bool, NoneType):
return overridden or value_name
elif origin_type in (datetime.datetime, datetime.date, datetime.time):
if overridden:
return f"{value_name} if use_datetime else {overridden}"
return (
f"{value_name} if use_datetime else {value_name}.isoformat()")
elif origin_type is datetime.timedelta:
return overridden or f"{value_name}.total_seconds()"
elif origin_type is datetime.timezone:
return overridden or f"{value_name}.tzname(None)"
elif origin_type is uuid.UUID:
return overridden or f"str({value_name})"
elif origin_type in [
ipaddress.IPv4Address,
ipaddress.IPv6Address,
ipaddress.IPv4Network,
ipaddress.IPv6Network,
ipaddress.IPv4Interface,
ipaddress.IPv6Interface,
]:
return overridden or f"str({value_name})"
elif origin_type is Decimal:
return overridden or f"str({value_name})"
elif origin_type is Fraction:
return overridden or f"str({value_name})"
elif issubclass(origin_type, typing.Collection) and not issubclass(
origin_type, enum.Enum):
args = getattr(ftype, "__args__", ())
def inner_expr(arg_num=0, v_name="value", v_type=None):
if v_type:
return self._pack_value(fname, v_type, parent, v_name)
else:
return self._pack_value(fname, args[arg_num], parent,
v_name)
if issubclass(origin_type, typing.ByteString):
specific = f"encodebytes({value_name}).decode()"
return (
f"{value_name} if use_bytes else {overridden or specific}")
elif issubclass(origin_type, str):
return overridden or value_name
elif issubclass(
origin_type,
(typing.List, typing.Deque, typing.Tuple, typing.AbstractSet),
):
if is_generic(ftype):
return (overridden
or f"[{inner_expr()} for value in {value_name}]")
elif ftype is list:
raise UnserializableField(fname, ftype, parent,
"Use typing.List[T] instead")
elif ftype is collections.deque:
raise UnserializableField(fname, ftype, parent,
"Use typing.Deque[T] instead")
elif ftype is tuple:
raise UnserializableField(fname, ftype, parent,
"Use typing.Tuple[T] instead")
elif ftype is set:
raise UnserializableField(fname, ftype, parent,
"Use typing.Set[T] instead")
elif ftype is frozenset:
raise UnserializableField(
fname, ftype, parent,
"Use typing.FrozenSet[T] instead")
elif issubclass(origin_type, typing.ChainMap):
if ftype is collections.ChainMap:
raise UnserializableField(
fname,
ftype,
parent,
"Use typing.ChainMap[KT,VT] instead",
)
elif is_generic(ftype):
if is_dataclass(args[0]):
raise UnserializableDataError(
"ChainMaps with dataclasses as keys "
"are not supported by mashumaro")
else:
return (overridden
or f'[{{{inner_expr(0,"key")}:{inner_expr(1)} '
f"for key,value in m.items()}} "
f"for m in value.maps]")
elif PY_37_MIN and issubclass(origin_type, typing.OrderedDict):
if ftype is collections.OrderedDict:
raise UnserializableField(
fname,
ftype,
parent,
"Use typing.OrderedDict[KT,VT] instead",
)
elif is_generic(ftype):
if is_dataclass(args[0]):
raise UnserializableDataError(
"OrderedDict with dataclasses as keys "
"are not supported by mashumaro")
else:
return (overridden or
f'{{{inner_expr(0, "key")}: {inner_expr(1)} '
f"for key, value in {value_name}.items()}}")
elif issubclass(origin_type, typing.Counter):
if ftype is collections.Counter:
raise UnserializableField(
fname,
ftype,
parent,
"Use typing.Counter[KT] instead",
)
elif is_generic(ftype):
if is_dataclass(args[0]):
raise UnserializableDataError(
"Counter with dataclasses as keys "
"are not supported by mashumaro")
else:
return (overridden or f'{{{inner_expr(0, "key")}: '
f"{inner_expr(1, v_type=int)} "
f"for key, value in {value_name}.items()}}")
elif issubclass(origin_type, typing.Mapping):
if ftype is dict:
raise UnserializableField(
fname,
ftype,
parent,
"Use typing.Dict[KT,VT] or Mapping[KT,VT] instead",
)
elif is_generic(ftype):
if is_dataclass(args[0]):
raise UnserializableDataError(
"Mappings with dataclasses as keys "
"are not supported by mashumaro")
else:
return (overridden
or f'{{{inner_expr(0,"key")}: {inner_expr(1)} '
f"for key, value in {value_name}.items()}}")
elif issubclass(origin_type, typing.Sequence):
if is_generic(ftype):
return (overridden
or f"[{inner_expr()} for value in {value_name}]")
elif issubclass(origin_type, os.PathLike):
return overridden or f"{value_name}.__fspath__()"
elif issubclass(origin_type, enum.Enum):
specific = f"{value_name}.value"
return f"{value_name} if use_enum else {overridden or specific}"
elif is_dataclass_dict_mixin_subclass(ftype):
flags = self.get_to_dict_flags(ftype)
return overridden or f"{value_name}.to_dict({flags})"
elif overridden:
return overridden
raise UnserializableField(fname, ftype, parent)
skill_by_skillcat = MappingProxyType(OrderedDict((
(skillcat['GENERAL'], frozenset((
skill['Block'],
skill['Dauntless'],
skill['Dirty Player'],
skill['Frenzy'],
skill['Kick'],
skill['Leader'],
skill['Nerves of Steel'],
skill['Pass Block'],
skill['Pro'],
skill['Shadowing'],
skill['Strip Ball'],
skill['Sure Hands'],
skill['Tackle'],
))),
(skillcat['AGILITY'], frozenset((
skill['Catch'],
skill['Diving Catch'],
skill['Diving Tackle'],
skill['Dodge'],
skill['Jump Up'],
skill['Leap'],
skill['Side Step'],
skill['Sprint'],
skill['Sure Feet'],
))),
(skillcat['STRENGTH'], frozenset((
skill['Break Tackle'],
skill['Guard'],
skill['Mighty Blow'],
skill['Multiple Block'],
skill['Piling On'],
skill['Stand Firm'],
))),
(skillcat['PASSING'], frozenset((
skill['Accurate'],
skill['Dump-Off'],
skill['Hail Mary'],
skill['Pass'],
skill['Safe Throw'],
skill['Strong Arm'],
))),
(skillcat['PHYSICAL'], frozenset((
skill['Big Hand'],
skill['Claw(s)'],
skill['Extra Arms'],
skill['Foul Appearance'],
skill['Horns'],
skill['Prehensile Tail'],
skill['Razor Sharp Claws'],
skill['Spikes'],
skill['Tentacles'],
skill['Thick Skull'],
skill['Two Heads'],
skill['Very Long Legs'],
))),
(skillcat['RACIAL CHARACTERISTICS'], frozenset((
skill['Always Hungry'],
skill['Big Guy'],
skill['Blood Lust'],
skill['Bone Head'],
skill['Easily Confused'],
skill['Hypnotic Gaze'],
skill['Nurgle\'s Rot'],
skill['Really Stupid'],
skill['Regeneration'],
skill['Right Stuff'],
skill['Stunty'],
skill['Take Root'],
skill['Throw Team-Mate'],
skill['Thrud\'s Fans'],
skill['Wild Animal'],
))),
)))
def _unpack_field_value(
self,
fname,
ftype,
parent,
value_name="value",
metadata=MappingProxyType({}),
):
overridden: typing.Optional[str] = None
deserialize_option = metadata.get("deserialize")
if deserialize_option is None:
strategy = metadata.get("serialization_strategy")
if isinstance(strategy, SerializationStrategy):
deserialize_option = strategy.deserialize
if deserialize_option is None:
strategy = self.get_config().serialization_strategy.get(ftype)
if isinstance(strategy, dict):
deserialize_option = strategy.get("deserialize")
elif isinstance(strategy, SerializationStrategy):
deserialize_option = strategy.deserialize
if callable(deserialize_option):
setattr(self.cls, f"__{fname}_deserialize", deserialize_option)
overridden = f"cls.__{fname}_deserialize({value_name})"
with suppress(TypeError):
if issubclass(ftype, SerializableType):
return (overridden
or f"{type_name(ftype)}._deserialize({value_name})")
origin_type = get_type_origin(ftype)
if is_special_typing_primitive(origin_type):
if origin_type is typing.Any:
return overridden or value_name
elif is_union(ftype):
args = getattr(ftype, "__args__", ())
if len(args) == 2 and args[1] == NoneType: # it is Optional
return self._unpack_field_value(fname,
args[0],
parent,
metadata=metadata)
else:
method_name = self._add_unpack_union(
fname, ftype, args, parent, metadata)
return (f"cls.{method_name}({value_name},"
f"use_bytes,use_enum,use_datetime)")
elif origin_type is typing.AnyStr:
raise UnserializableDataError(
"AnyStr is not supported by mashumaro")
elif is_type_var(ftype):
raise UnserializableDataError(
"TypeVars are not supported by mashumaro")
else:
raise UnserializableDataError(
f"{ftype} as a field type is not supported by mashumaro")
elif origin_type is int:
return overridden or f"int({value_name})"
elif origin_type is float:
return overridden or f"float({value_name})"
elif origin_type in (bool, NoneType):
return overridden or value_name
elif origin_type in (datetime.datetime, datetime.date, datetime.time):
if overridden:
return f"{value_name} if use_datetime else {overridden}"
elif deserialize_option is not None:
if deserialize_option == "ciso8601":
if ciso8601:
self.ensure_module_imported(ciso8601)
datetime_parser = "ciso8601.parse_datetime"
else:
raise ThirdPartyModuleNotFoundError(
"ciso8601", fname, parent) # pragma no cover
elif deserialize_option == "pendulum":
if pendulum:
self.ensure_module_imported(pendulum)
datetime_parser = "pendulum.parse"
else:
raise ThirdPartyModuleNotFoundError(
"pendulum", fname, parent) # pragma no cover
else:
raise UnserializableField(
fname,
ftype,
parent,
f"Unsupported deserialization engine "
f'"{deserialize_option}"',
)
suffix = ""
if origin_type is datetime.date:
suffix = ".date()"
elif origin_type is datetime.time:
suffix = ".time()"
return (f"{value_name} if use_datetime else "
f"{datetime_parser}({value_name}){suffix}")
return (f"{value_name} if use_datetime else "
f"datetime.{origin_type.__name__}."
f"fromisoformat({value_name})")
elif origin_type is datetime.timedelta:
return overridden or f"datetime.timedelta(seconds={value_name})"
elif origin_type is datetime.timezone:
return overridden or f"parse_timezone({value_name})"
elif origin_type is uuid.UUID:
return overridden or f"uuid.UUID({value_name})"
elif origin_type is ipaddress.IPv4Address:
return overridden or f"ipaddress.IPv4Address({value_name})"
elif origin_type is ipaddress.IPv6Address:
return overridden or f"ipaddress.IPv6Address({value_name})"
elif origin_type is ipaddress.IPv4Network:
return overridden or f"ipaddress.IPv4Network({value_name})"
elif origin_type is ipaddress.IPv6Network:
return overridden or f"ipaddress.IPv6Network({value_name})"
elif origin_type is ipaddress.IPv4Interface:
return overridden or f"ipaddress.IPv4Interface({value_name})"
elif origin_type is ipaddress.IPv6Interface:
return overridden or f"ipaddress.IPv6Interface({value_name})"
elif origin_type is Decimal:
return overridden or f"Decimal({value_name})"
elif origin_type is Fraction:
return overridden or f"Fraction({value_name})"
elif issubclass(origin_type, typing.Collection) and not issubclass(
origin_type, enum.Enum):
args = getattr(ftype, "__args__", ())
def inner_expr(arg_num=0, v_name="value", v_type=None):
if v_type:
return self._unpack_field_value(fname, v_type, parent,
v_name)
else:
return self._unpack_field_value(fname, args[arg_num],
parent, v_name)
if issubclass(origin_type, typing.ByteString):
if origin_type is bytes:
specific = f"decodebytes({value_name}.encode())"
return (f"{value_name} if use_bytes else "
f"{overridden or specific}")
elif origin_type is bytearray:
if overridden:
overridden = (
f"bytearray({value_name}) if use_bytes else "
f"{overridden}")
specific = (f"bytearray({value_name} if use_bytes else "
f"decodebytes({value_name}.encode()))")
return overridden or specific
elif issubclass(origin_type, str):
return overridden or value_name
elif issubclass(origin_type, typing.List):
if is_generic(ftype):
return (overridden
or f"[{inner_expr()} for value in {value_name}]")
elif ftype is list:
raise UnserializableField(fname, ftype, parent,
"Use typing.List[T] instead")
elif issubclass(origin_type, typing.Deque):
if is_generic(ftype):
return (overridden or f"collections.deque([{inner_expr()} "
f"for value in {value_name}])")
elif ftype is collections.deque:
raise UnserializableField(fname, ftype, parent,
"Use typing.Deque[T] instead")
elif issubclass(origin_type, typing.Tuple):
if is_generic(ftype):
return (
overridden or
f"tuple([{inner_expr()} for value in {value_name}])")
elif ftype is tuple:
raise UnserializableField(fname, ftype, parent,
"Use typing.Tuple[T] instead")
elif issubclass(origin_type, typing.FrozenSet):
if is_generic(ftype):
return (overridden or f"frozenset([{inner_expr()} "
f"for value in {value_name}])")
elif ftype is frozenset:
raise UnserializableField(
fname, ftype, parent,
"Use typing.FrozenSet[T] instead")
elif issubclass(origin_type, typing.AbstractSet):
if is_generic(ftype):
return (overridden or
f"set([{inner_expr()} for value in {value_name}])")
elif ftype is set:
raise UnserializableField(fname, ftype, parent,
"Use typing.Set[T] instead")
elif issubclass(origin_type, typing.ChainMap):
if ftype is collections.ChainMap:
raise UnserializableField(
fname,
ftype,
parent,
"Use typing.ChainMap[KT,VT] instead",
)
elif is_generic(ftype):
if is_dataclass(args[0]):
raise UnserializableDataError(
"ChainMaps with dataclasses as keys "
"are not supported by mashumaro")
else:
return (overridden or f"collections.ChainMap("
f'*[{{{inner_expr(0,"key")}:{inner_expr(1)} '
f"for key, value in m.items()}} "
f"for m in {value_name}])")
elif PY_37_MIN and issubclass(origin_type, typing.OrderedDict):
if ftype is collections.OrderedDict:
raise UnserializableField(
fname,
ftype,
parent,
"Use typing.OrderedDict[KT,VT] instead",
)
elif is_generic(ftype):
if is_dataclass(args[0]):
raise UnserializableDataError(
"OrderedDict with dataclasses as keys "
"are not supported by mashumaro")
else:
return (overridden or f"collections.OrderedDict("
f'{{{inner_expr(0,"key")}: {inner_expr(1)} '
f"for key, value in {value_name}.items()}})")
elif issubclass(origin_type, typing.Counter):
if ftype is collections.Counter:
raise UnserializableField(
fname,
ftype,
parent,
"Use typing.Counter[KT] instead",
)
elif is_generic(ftype):
if is_dataclass(args[0]):
raise UnserializableDataError(
"Counter with dataclasses as keys "
"are not supported by mashumaro")
else:
return (overridden or f"collections.Counter("
f'{{{inner_expr(0,"key")}: '
f"{inner_expr(1, v_type=int)} "
f"for key, value in {value_name}.items()}})")
elif issubclass(origin_type, typing.Mapping):
if ftype is dict:
raise UnserializableField(
fname,
ftype,
parent,
"Use typing.Dict[KT,VT] or Mapping[KT,VT] instead",
)
elif is_generic(ftype):
if is_dataclass(args[0]):
raise UnserializableDataError(
"Mappings with dataclasses as keys "
"are not supported by mashumaro")
else:
return (overridden
or f'{{{inner_expr(0,"key")}: {inner_expr(1)} '
f"for key, value in {value_name}.items()}}")
elif issubclass(origin_type, typing.Sequence):
if is_generic(ftype):
return (overridden
or f"[{inner_expr()} for value in {value_name}]")
elif issubclass(origin_type, os.PathLike):
if overridden:
return overridden
elif issubclass(origin_type, pathlib.PosixPath):
return f"pathlib.PosixPath({value_name})"
elif issubclass(origin_type, pathlib.WindowsPath):
return f"pathlib.WindowsPath({value_name})"
elif issubclass(origin_type, pathlib.Path):
return f"pathlib.Path({value_name})"
elif issubclass(origin_type, pathlib.PurePosixPath):
return f"pathlib.PurePosixPath({value_name})"
elif issubclass(origin_type, pathlib.PureWindowsPath):
return f"pathlib.PureWindowsPath({value_name})"
elif issubclass(origin_type, pathlib.PurePath):
return f"pathlib.PurePath({value_name})"
elif origin_type is os.PathLike:
return f"pathlib.PurePath({value_name})"
else:
return f"{type_name(origin_type)}({value_name})"
elif issubclass(origin_type, enum.Enum):
specific = f"{type_name(origin_type)}({value_name})"
return f"{value_name} if use_enum else {overridden or specific}"
elif is_dataclass_dict_mixin_subclass(ftype):
return overridden or (
f"{type_name(ftype)}.from_dict({value_name}, "
f"use_bytes, use_enum, use_datetime)")
elif overridden:
return overridden
raise UnserializableField(fname, ftype, parent)
#FIXME: faild to load parent module when executing from other path
#from .configuration import S3Configuration
_AWS = 'aws'
_DIGITALOCEAN_PUBLIC = 'dig-public'
_DIGITALOCEAN_PRIVATE = 'dig-private'
_DIGITALOCEAN_ENDPOINT = 'https://ams3.digitaloceanspaces.com'
_DEFAULTS = MappingProxyType({
_AWS: {
'bucket_name': 's3.obus.hasadna.org.il'
},
_DIGITALOCEAN_PRIVATE: {
'bucket_name': 'obus-do1',
'endpoint_url': _DIGITALOCEAN_ENDPOINT
},
_DIGITALOCEAN_PUBLIC: {
'bucket_name': 'obus-do2',
'endpoint_url': _DIGITALOCEAN_ENDPOINT
}
})
class S3Crud:
def __init__(self, **conn_args):
self.bucket_name = conn_args.get('bucket_name')
assert self.bucket_name is not None
conn_args.pop('bucket_name')
def _safeMakeMappingProxyType(data):
if data is None:
data = {}
return MappingProxyType(data)
def __init__(self, domain, service, data=None, call_id=None):
"""Initialize a service call."""
self.domain = domain.lower()
self.service = service.lower()
self.data = MappingProxyType(data or {})
self.call_id = call_id
class State(object):
"""Object to represent a state within the state machine.
entity_id: the entity that is represented.
state: the state of the entity
attributes: extra information on entity and state
last_changed: last time the state was changed, not the attributes.
last_updated: last time this object was updated.
"""
__slots__ = ['entity_id', 'state', 'attributes',
'last_changed', 'last_updated']
# pylint: disable=too-many-arguments
def __init__(self, entity_id, state, attributes=None, last_changed=None,
last_updated=None):
"""Initialize a new state."""
if not valid_entity_id(entity_id):
raise InvalidEntityFormatError((
"Invalid entity id encountered: {}. "
"Format should be <domain>.<object_id>").format(entity_id))
self.entity_id = entity_id.lower()
self.state = str(state)
self.attributes = MappingProxyType(attributes or {})
self.last_updated = dt_util.strip_microseconds(
last_updated or dt_util.utcnow())
# Strip microsecond from last_changed else we cannot guarantee
# state == State.from_dict(state.as_dict())
# This behavior occurs because to_dict uses datetime_to_str
# which does not preserve microseconds
self.last_changed = dt_util.strip_microseconds(
last_changed or self.last_updated)
@property
def domain(self):
"""Domain of this state."""
return split_entity_id(self.entity_id)[0]
@property
def object_id(self):
"""Object id of this state."""
return split_entity_id(self.entity_id)[1]
@property
def name(self):
"""Name of this state."""
return (
self.attributes.get(ATTR_FRIENDLY_NAME) or
self.object_id.replace('_', ' '))
def as_dict(self):
"""Return a dict representation of the State.
To be used for JSON serialization.
Ensures: state == State.from_dict(state.as_dict())
"""
return {'entity_id': self.entity_id,
'state': self.state,
'attributes': dict(self.attributes),
'last_changed': dt_util.datetime_to_str(self.last_changed),
'last_updated': dt_util.datetime_to_str(self.last_updated)}
@classmethod
def from_dict(cls, json_dict):
"""Initialize a state from a dict.
Ensures: state == State.from_json_dict(state.to_json_dict())
"""
if not (json_dict and 'entity_id' in json_dict and
'state' in json_dict):
return None
last_changed = json_dict.get('last_changed')
if last_changed:
last_changed = dt_util.str_to_datetime(last_changed)
last_updated = json_dict.get('last_updated')
if last_updated:
last_updated = dt_util.str_to_datetime(last_updated)
return cls(json_dict['entity_id'], json_dict['state'],
json_dict.get('attributes'), last_changed, last_updated)
def __eq__(self, other):
"""Return the comparison of the state."""
return (self.__class__ == other.__class__ and
self.entity_id == other.entity_id and
self.state == other.state and
self.attributes == other.attributes)
def __repr__(self):
"""Return the representation of the states."""
attr = "; {}".format(util.repr_helper(self.attributes)) \
if self.attributes else ""
return "<state {}={}{} @ {}>".format(
self.entity_id, self.state, attr,
dt_util.datetime_to_local_str(self.last_changed))
def write_mapping(f, key, value, dataset_kwargs=MappingProxyType({})):
for sub_key, sub_value in value.items():
write_attribute(f, f"{key}/{sub_key}", sub_value, dataset_kwargs)
class SirToNaive(NodeTranslator):
def __init__(self, **kwargs):
super().__init__()
self.isControlFlow = None
self.sir_stencil_params = (
{}
) # elements are sir.Field # TODO this is a dummy symbol table for stencil parameters
self.current_loc_type_stack = [] # TODO experimental
BINOPSTR_TO_ENUM: ClassVar[Mapping[
str, common.BinaryOperator]] = MappingProxyType({
"+":
common.BinaryOperator.ADD,
"-":
common.BinaryOperator.SUB,
"*":
common.BinaryOperator.MUL,
"/":
common.BinaryOperator.DIV,
})
SIR_TO_NAIVE_LOCATION_TYPE: ClassVar[Mapping[
sir.LocationType, naive.LocationType]] = MappingProxyType({
sir.LocationType.Edge:
naive.LocationType.Edge,
sir.LocationType.Cell:
naive.LocationType.Face,
sir.LocationType.Vertex:
naive.LocationType.Node,
})
def _get_field_location_type(self, field: sir.Field):
if field.field_dimensions.horizontal_dimension.sparse_part:
return self.SIR_TO_NAIVE_LOCATION_TYPE[
field.field_dimensions.horizontal_dimension.sparse_part[0]]
return self.SIR_TO_NAIVE_LOCATION_TYPE[
field.field_dimensions.horizontal_dimension.dense_location_type]
def _is_sparse_field(self, field: sir.Field):
if field.field_dimensions.horizontal_dimension.sparse_part:
return True
else:
return False
def visit_Field(self, node: Node, **kwargs):
assert (
not node.field_dimensions.horizontal_dimension.sparse_part
) or (len(node.field_dimensions.horizontal_dimension.sparse_part) <= 1)
sparse_location_type = None
if node.field_dimensions.horizontal_dimension.sparse_part:
sparse_location_type = self.SIR_TO_NAIVE_LOCATION_TYPE[
node.field_dimensions.horizontal_dimension.sparse_part[0]]
return naive.UnstructuredField(
name=node.name,
location_type=self.SIR_TO_NAIVE_LOCATION_TYPE[
node.field_dimensions.horizontal_dimension.
dense_location_type],
sparse_location_type=sparse_location_type,
data_type=common.DataType.FLOAT64,
)
def visit_Stencil(self, node: Node, **kwargs):
# Needs to run before the body/ast as it creates a dummy symbol table for stencil parameters
params = []
for f in node.params:
self.sir_stencil_params[f.name] = f
params.append(self.visit(f))
[declarations, k_loops] = self.visit(node.ast)
return naive.Computation(
params=params,
stencils=[
naive.Stencil(name=node.name,
k_loops=k_loops,
declarations=declarations)
],
)
def visit_VerticalRegion(self, node: Node, **kwargs):
# TODO don't ignore interval
[declarations, horizontal_loops] = self.visit(node.ast)
return [
declarations,
[
naive.ForK(
loop_order=node.loop_order,
horizontal_loops=horizontal_loops,
)
],
]
def visit_VerticalRegionDeclStmt(self, node: Node, **kwargs):
return self.visit(node.vertical_region)
def visit_FieldAccessExpr(self, node: Node, **kwargs):
horizontal_offset = False # TODO
return naive.FieldAccessExpr(
name=node.name,
offset=(horizontal_offset, node.vertical_offset),
location_type=self._get_field_location_type(
self.sir_stencil_params[node.name]),
is_sparse=self._is_sparse_field(
self.sir_stencil_params[node.name]),
)
def visit_AssignmentExpr(self, node: Node, **kwargs):
assert node.op == "="
return naive.AssignmentExpr(left=self.visit(node.left),
right=self.visit(node.right))
def visit_ExprStmt(self, node: Node, **kwargs):
return naive.ExprStmt(expr=self.visit(node.expr))
def visit_VarAccessExpr(self, node: Node, **kwargs):
loctype = ""
if node.location_type:
loctype = self.SIR_TO_NAIVE_LOCATION_TYPE[node.location_type]
elif self.current_loc_type_stack:
loctype = self.current_loc_type_stack[-1]
else:
raise ValueError("no location type")
return naive.FieldAccessExpr(
name=node.name,
offset=(False, 0),
location_type=loctype,
is_sparse=False,
)
def visit_BlockStmt(self, node: Node, **kwargs):
if self.isControlFlow:
for s in node.statements:
assert isinstance(s, sir.VerticalRegionDeclStmt)
return self.visit(s)
else:
horizontal_loops = []
declarations = []
for s in node.statements:
if isinstance(s, sir.VarDeclStmt):
# TODO this doesn't work: if we move the declaration out of the horizontal loop, we need to promote it to a field
[vardecl, initexpr] = self.visit(s)
declarations.append(vardecl)
transformed_stmt = naive.ExprStmt(
expr=naive.AssignmentExpr(
left=naive.FieldAccessExpr(
name=vardecl.name,
offset=(False, 0),
location_type=initexpr.location_type,
is_sparse=False,
),
right=initexpr,
))
else:
transformed_stmt = self.visit(s)
horizontal_loops.append(
naive.HorizontalLoop(ast=naive.BlockStmt(
statements=[transformed_stmt])))
return [declarations, horizontal_loops]
def visit_BinaryOperator(self, node: Node, **kwargs):
return naive.BinaryOp(
op=self.BINOPSTR_TO_ENUM[node.op],
left=self.visit(node.left),
right=self.visit(node.right),
)
def visit_VarDeclStmt(self, node: Node, **kwargs):
assert node.op == "="
assert node.dimension == 0
assert len(node.init_list) == 1
assert isinstance(node.data_type.data_type, sir.BuiltinType)
loctype = ""
if node.location_type:
loctype = self.SIR_TO_NAIVE_LOCATION_TYPE[node.location_type]
if not self.current_loc_type_stack or self.current_loc_type_stack[
-1] != loctype:
self.current_loc_type_stack.append(loctype)
else:
raise ValueError("no location type")
init = self.visit(node.init_list[0])
return [
naive.TemporaryFieldDeclStmt(
data_type=node.data_type.data_type.type_id,
name=node.name,
location_type=loctype,
),
init,
]
def visit_LiteralAccessExpr(self, node: Node, **kwargs):
loctype = ""
if node.location_type:
loctype = self.SIR_TO_NAIVE_LOCATION_TYPE[node.location_type]
elif self.current_loc_type_stack:
loctype = self.current_loc_type_stack[-1]
else:
raise ValueError("no location type")
return naive.LiteralExpr(
value=node.value,
data_type=node.data_type.type_id,
location_type=loctype,
)
def visit_ReductionOverNeighborExpr(self, node: Node, **kwargs):
self.current_loc_type_stack.append(
self.SIR_TO_NAIVE_LOCATION_TYPE[node.chain[-1]])
right = self.visit(node.rhs)
init = self.visit(node.init)
self.current_loc_type_stack.pop()
return naive.ReduceOverNeighbourExpr(
operation=self.BINOPSTR_TO_ENUM[node.op],
right=right,
init=init,
location_type=self.SIR_TO_NAIVE_LOCATION_TYPE[node.chain[0]],
)
def visit_AST(self, node: Node, **kwargs):
assert isinstance(node.root, sir.BlockStmt) # TODO add check to IR
if self.isControlFlow is None:
self.isControlFlow = True
return self.visit(node.root)
elif self.isControlFlow is True:
self.isControlFlow = False
return self.visit(node.root)
else:
raise "unreachable: there should not be an AST node in the stencil ast"
PG_DIALECT = postgres_dialect.dialect()
RESERVED_WORDS = frozenset(postgres_dialect.RESERVED_WORDS)
CONSTRAINT_CONVENTIONS = {
"ix": '%(column_0_label)s_idx',
"uq": "%(table_name)s_%(column_0_name)s_key",
"ck": "%(table_name)s_%(constraint_name)s_check",
"fk": "%(table_name)s_%(column_0_name)s_%(referred_table_name)s_fkey",
"pk": "%(table_name)s_pkey"
}
ALCHEMY_TO_PYTHON_DATA_TYPE = {
ARRAY: list,
INTEGER: int,
BOOLEAN: bool,
FLOAT: float,
CHAR: str,
DATE: date,
VARCHAR: str,
TEXT: str,
NullType: None,
UUID: uuid.UUID,
TIMESTAMP: datetime
}
# swap uuid to custom type
POSTGRES_TO_ALCHEMY_TYPE = MappingProxyType(
dict((k, v) if k != 'uuid' else (k, UUID)
for k, v in ischema_names.items()))
class State:
"""Object to represent a state within the state machine.
entity_id: the entity that is represented.
state: the state of the entity
attributes: extra information on entity and state
last_changed: last time the state was changed, not the attributes.
last_updated: last time this object was updated.
context: Context in which it was created
"""
__slots__ = [
"entity_id",
"state",
"attributes",
"last_changed",
"last_updated",
"context",
]
def __init__(
self,
entity_id: str,
state: str,
attributes: Optional[Mapping] = None,
last_changed: Optional[datetime.datetime] = None,
last_updated: Optional[datetime.datetime] = None,
context: Optional[Context] = None,
# Temp, because database can still store invalid entity IDs
# Remove with 1.0 or in 2020.
temp_invalid_id_bypass: Optional[bool] = False,
) -> None:
"""Initialize a new state."""
state = str(state)
if not valid_entity_id(entity_id) and not temp_invalid_id_bypass:
raise InvalidEntityFormatError(
f"Invalid entity id encountered: {entity_id}. "
"Format should be <domain>.<object_id>")
if not valid_state(state):
raise InvalidStateError(
f"Invalid state encountered for entity id: {entity_id}. "
"State max length is 255 characters.")
self.entity_id = entity_id.lower()
self.state = state
self.attributes = MappingProxyType(attributes or {})
self.last_updated = last_updated or dt_util.utcnow()
self.last_changed = last_changed or self.last_updated
self.context = context or Context()
@property
def domain(self) -> str:
"""Domain of this state."""
return split_entity_id(self.entity_id)[0]
@property
def object_id(self) -> str:
"""Object id of this state."""
return split_entity_id(self.entity_id)[1]
@property
def name(self) -> str:
"""Name of this state."""
return self.attributes.get(
ATTR_FRIENDLY_NAME) or self.object_id.replace("_", " ")
def as_dict(self) -> Dict:
"""Return a dict representation of the State.
Async friendly.
To be used for JSON serialization.
Ensures: state == State.from_dict(state.as_dict())
"""
return {
"entity_id": self.entity_id,
"state": self.state,
"attributes": dict(self.attributes),
"last_changed": self.last_changed,
"last_updated": self.last_updated,
"context": self.context.as_dict(),
}
@classmethod
def from_dict(cls, json_dict: Dict) -> Any:
"""Initialize a state from a dict.
Async friendly.
Ensures: state == State.from_json_dict(state.to_json_dict())
"""
if not (json_dict and "entity_id" in json_dict
and "state" in json_dict):
return None
last_changed = json_dict.get("last_changed")
if isinstance(last_changed, str):
last_changed = dt_util.parse_datetime(last_changed)
last_updated = json_dict.get("last_updated")
if isinstance(last_updated, str):
last_updated = dt_util.parse_datetime(last_updated)
context = json_dict.get("context")
if context:
context = Context(id=context.get("id"),
user_id=context.get("user_id"))
return cls(
json_dict["entity_id"],
json_dict["state"],
json_dict.get("attributes"),
last_changed,
last_updated,
context,
)
def __eq__(self, other: Any) -> bool:
"""Return the comparison of the state."""
return ( # type: ignore
self.__class__ == other.__class__
and self.entity_id == other.entity_id and self.state == other.state
and self.attributes == other.attributes
and self.context == other.context)
def __repr__(self) -> str:
"""Return the representation of the states."""
attrs = ("; {}".format(util.repr_helper(self.attributes))
if self.attributes else "")
return "<state {}={}{} @ {}>".format(
self.entity_id,
self.state,
attrs,
dt_util.as_local(self.last_changed).isoformat(),
)
class State(object):
"""Object to represent a state within the state machine.
entity_id: the entity that is represented.
state: the state of the entity
attributes: extra information on entity and state
last_changed: last time the state was changed, not the attributes.
last_updated: last time this object was updated.
"""
__slots__ = ['entity_id', 'state', 'attributes',
'last_changed', 'last_updated']
def __init__(self, entity_id, state, attributes=None, last_changed=None,
last_updated=None):
"""Initialize a new state."""
if not valid_entity_id(entity_id):
raise InvalidEntityFormatError((
"Invalid entity id encountered: {}. "
"Format should be <domain>.<object_id>").format(entity_id))
self.entity_id = entity_id.lower()
self.state = str(state)
self.attributes = MappingProxyType(attributes or {})
self.last_updated = last_updated or dt_util.utcnow()
self.last_changed = last_changed or self.last_updated
@property
def domain(self):
"""Domain of this state."""
return split_entity_id(self.entity_id)[0]
@property
def object_id(self):
"""Object id of this state."""
return split_entity_id(self.entity_id)[1]
@property
def name(self):
"""Name of this state."""
return (
self.attributes.get(ATTR_FRIENDLY_NAME) or
self.object_id.replace('_', ' '))
def as_dict(self):
"""Return a dict representation of the State.
Async friendly.
To be used for JSON serialization.
Ensures: state == State.from_dict(state.as_dict())
"""
return {'entity_id': self.entity_id,
'state': self.state,
'attributes': dict(self.attributes),
'last_changed': self.last_changed,
'last_updated': self.last_updated}
@classmethod
def from_dict(cls, json_dict):
"""Initialize a state from a dict.
Async friendly.
Ensures: state == State.from_json_dict(state.to_json_dict())
"""
if not (json_dict and 'entity_id' in json_dict and
'state' in json_dict):
return None
last_changed = json_dict.get('last_changed')
if isinstance(last_changed, str):
last_changed = dt_util.parse_datetime(last_changed)
last_updated = json_dict.get('last_updated')
if isinstance(last_updated, str):
last_updated = dt_util.parse_datetime(last_updated)
return cls(json_dict['entity_id'], json_dict['state'],
json_dict.get('attributes'), last_changed, last_updated)
def __eq__(self, other):
"""Return the comparison of the state."""
return (self.__class__ == other.__class__ and
self.entity_id == other.entity_id and
self.state == other.state and
self.attributes == other.attributes)
def __repr__(self):
"""Return the representation of the states."""
attr = "; {}".format(util.repr_helper(self.attributes)) \
if self.attributes else ""
return "<state {}={}{} @ {}>".format(
self.entity_id, self.state, attr,
dt_util.as_local(self.last_changed).isoformat())
def __new__(__cls, **kwargs):
return super(__class__,
__cls).__new__(__cls, user_dict=MappingProxyType(kwargs))
from types import MappingProxyType
d = {1: 'A'}
dproxy = MappingProxyType(d)
print(dproxy)
print(dproxy[1])
#Error dproxy[2]='x'
d[2] = 'B'
print(dproxy)
st = {"1", "2", "1"}
print(st)
st2inm = frozenset({'2', 'puto', 'puta', '2'})
print(st2inm)
no_repeatset = set('a la pradera')
no_repeatfset = frozenset('a la verga')
print(no_repeatset)
print(no_repeatfset)
def write_scalar(f, key, value, dataset_kwargs=MappingProxyType({})):
if ("compression"
in dataset_kwargs): # Can't compress scalars, error is thrown
dataset_kwargs = dataset_kwargs.copy()
dataset_kwargs.pop("compression")
write_array(f, key, np.array(value), dataset_kwargs)
