def _generate_forward_declarations_for_binding_traits(self):
# A list of (builder_type, needs_runtime_cast)
type_arguments = []
for domain in self.domains_to_generate():
declarations_to_generate = filter(lambda decl: self.type_needs_shape_assertions(decl.type), domain.type_declarations)
for type_declaration in declarations_to_generate:
for type_member in type_declaration.type_members:
if isinstance(type_member.type, EnumType):
type_arguments.append((Generator.type_builder_string_for_type_member(type_member, type_declaration), False))
if isinstance(type_declaration.type, ObjectType):
type_arguments.append((Generator.type_builder_string_for_type(type_declaration.type), Generator.type_needs_runtime_casts(type_declaration.type)))
struct_keywords = ['struct']
function_keywords = ['static void']
export_macro = self.model().framework.setting('export_macro', None)
if export_macro is not None:
struct_keywords.append(export_macro)
#function_keywords[1:1] = [export_macro]
lines = []
for argument in type_arguments:
lines.append('template<> %s BindingTraits<%s> {' % (' '.join(struct_keywords), argument[0]))
if argument[1]:
lines.append('static PassRefPtr<%s> runtimeCast(PassRefPtr<Inspector::InspectorValue> value);' % argument[0])
lines.append('#if !ASSERT_DISABLED')
lines.append('%s assertValueHasExpectedType(Inspector::InspectorValue*);' % ' '.join(function_keywords))
lines.append('#endif // !ASSERT_DISABLED')
lines.append('};')
return '\n'.join(lines)
def _generate_async_handler_declaration_for_command(self, command):
callbackName = "%sCallback" % ucfirst(command.command_name)
in_parameters = ['ErrorString&']
for _parameter in command.call_parameters:
in_parameters.append("%s in_%s" % (Generator.type_string_for_unchecked_formal_in_parameter(_parameter), _parameter.parameter_name))
in_parameters.append("PassRefPtr<%s> callback" % callbackName)
out_parameters = []
for _parameter in command.return_parameters:
out_parameters.append("%s %s" % (Generator.type_string_for_formal_async_parameter(_parameter), _parameter.parameter_name))
class_components = ['class']
export_macro = self.model().framework.setting('export_macro', None)
if export_macro:
class_components.append(export_macro)
command_args = {
'classAndExportMacro': ' '.join(class_components),
'callbackName': callbackName,
'commandName': command.command_name,
'inParameters': ", ".join(in_parameters),
'outParameters': ", ".join(out_parameters),
}
return Template(Templates.BackendDispatcherHeaderAsyncCommandDeclaration).substitute(None, **command_args)
def __init__(self, generators=[], container=SimpleContainer(), database=CassandraConnection()):
Generator.__init__(self)
if isinstance(container, OrderContainer):
self.container = container
if isinstance(database, DatabaseConnection):
self.database = database
self.database.connect()
if len(generators) > 0:
self.generators = generators
else:
self.generators = [
CommentLenGenerator(),
CommentGenerator(),
CurrencyPairGenerator(),
DateTimeGenerator(),
DescriptionGenerator(),
DirectionGenerator(),
DurationGenerator(),
IdGenerator(),
MagicalNumberGenerator(),
PriceGenerator(),
StatusGenerator(),
TagLenGenerator(),
TagGenerator(),
TypeGenerator(),
]
self.data = {}
def _generate_handler_declaration_for_command(self, command, used_enum_names):
if command.is_async:
return self._generate_async_handler_declaration_for_command(command)
lines = []
parameters = ['ErrorString&']
for _parameter in command.call_parameters:
parameters.append("%s in_%s" % (Generator.type_string_for_unchecked_formal_in_parameter(_parameter), _parameter.parameter_name))
if isinstance(_parameter.type, EnumType) and _parameter.parameter_name not in used_enum_names:
lines.append(self._generate_anonymous_enum_for_parameter(_parameter, command))
used_enum_names.add(_parameter.parameter_name)
for _parameter in command.return_parameters:
parameter_name = 'out_' + _parameter.parameter_name
if _parameter.is_optional:
parameter_name = 'opt_' + parameter_name
parameters.append("%s %s" % (Generator.type_string_for_formal_out_parameter(_parameter), parameter_name))
if isinstance(_parameter.type, EnumType) and _parameter.parameter_name not in used_enum_names:
lines.append(self._generate_anonymous_enum_for_parameter(_parameter, command))
used_enum_names.add(_parameter.parameter_name)
command_args = {
'commandName': command.command_name,
'parameters': ", ".join(parameters)
}
lines.append(' virtual void %(commandName)s(%(parameters)s) = 0;' % command_args)
return '\n'.join(lines)
def _generate_async_dispatcher_class_for_domain(self, command, domain):
out_parameter_assignments = []
formal_parameters = []
for parameter in command.return_parameters:
param_args = {
'frameworkPrefix': self.model().framework.setting('prefix'),
'keyedSetMethod': Generator.keyed_set_method_for_type(parameter.type),
'parameterName': parameter.parameter_name,
'parameterType': Generator.type_string_for_stack_in_parameter(parameter),
}
formal_parameters.append('%s %s' % (Generator.type_string_for_formal_async_parameter(parameter), parameter.parameter_name))
if parameter.is_optional:
if Generator.should_use_wrapper_for_return_type(parameter.type):
out_parameter_assignments.append(' if (%(parameterName)s.isAssigned())' % param_args)
out_parameter_assignments.append(' jsonMessage->%(keyedSetMethod)s(ASCIILiteral("%(parameterName)s"), %(parameterName)s.getValue());' % param_args)
else:
out_parameter_assignments.append(' if (%(parameterName)s)' % param_args)
out_parameter_assignments.append(' jsonMessage->%(keyedSetMethod)s(ASCIILiteral("%(parameterName)s"), %(parameterName)s);' % param_args)
elif parameter.type.is_enum():
out_parameter_assignments.append(' jsonMessage->%(keyedSetMethod)s(ASCIILiteral("%(parameterName)s"), Inspector::TypeBuilder::get%(frameworkPrefix)sEnumConstantValue(%(parameterName)s));' % param_args)
else:
out_parameter_assignments.append(' jsonMessage->%(keyedSetMethod)s(ASCIILiteral("%(parameterName)s"), %(parameterName)s);' % param_args)
async_args = {
'domainName': domain.domain_name,
'callbackName': ucfirst(command.command_name) + 'Callback',
'formalParameters': ", ".join(formal_parameters),
'outParameterAssignments': "\n".join(out_parameter_assignments)
}
return Template(Templates.BackendDispatcherImplementationAsyncCommand).substitute(None, **async_args)
def __init__(self, redis, features={}):
Generator.__init__(self, redis, features)
self.logger = logging.getLogger(__name__)
for field in ['contact', 'npc']:
if not hasattr(self, field):
setattr(self, field, NPC(self.redis))
if not hasattr(self, 'business'):
setattr(self, 'business', Business(self.redis))
if not hasattr(self, 'text'):
for field in ['hook', 'request']:
if hasattr(self, field):
self.template = getattr(self, field) + ' ' + self.template
for field in ['requirement', 'disclaimer', 'payment']:
if hasattr(self, field):
self.template = self.template + ' ' + getattr(self, field)
self.template = self.template + ' Contact ' + self.contact.name.fullname
self.template = self.template + ' at the ' + self.business.name.fullname
if hasattr(self, 'detail'):
self.template = self.template + ' ' + self.detail
self.template += '.'
self.text = self.render_template(self.template)
self.text = self.render_template(self.text)
self.text = self.text[0].capitalize() + self.text[1:]
def generate_domain(self, domain):
lines = []
args = {
'domain': domain.domain_name
}
lines.append('// %(domain)s.' % args)
has_async_commands = any(map(lambda command: command.is_async, domain.commands))
if len(domain.events) > 0 or has_async_commands:
lines.append('InspectorBackend.register%(domain)sDispatcher = InspectorBackend.registerDomainDispatcher.bind(InspectorBackend, "%(domain)s");' % args)
for declaration in domain.type_declarations:
if declaration.type.is_enum():
enum_args = {
'domain': domain.domain_name,
'enumName': declaration.type_name,
'enumMap': ", ".join(['%s: "%s"' % (Generator.stylized_name_for_enum_value(enum_value), enum_value) for enum_value in declaration.type.enum_values()])
}
lines.append('InspectorBackend.registerEnum("%(domain)s.%(enumName)s", {%(enumMap)s});' % enum_args)
def is_anonymous_enum_member(type_member):
return isinstance(type_member.type, EnumType) and type_member.type.is_anonymous
for _member in filter(is_anonymous_enum_member, declaration.type_members):
enum_args = {
'domain': domain.domain_name,
'enumName': '%s%s' % (declaration.type_name, ucfirst(_member.member_name)),
'enumMap': ", ".join(['%s: "%s"' % (Generator.stylized_name_for_enum_value(enum_value), enum_value) for enum_value in _member.type.enum_values()])
}
lines.append('InspectorBackend.registerEnum("%(domain)s.%(enumName)s", {%(enumMap)s});' % enum_args)
for event in domain.events:
event_args = {
'domain': domain.domain_name,
'eventName': event.event_name,
'params': ", ".join(['"%s"' % parameter.parameter_name for parameter in event.event_parameters])
}
lines.append('InspectorBackend.registerEvent("%(domain)s.%(eventName)s", [%(params)s]);' % event_args)
for command in domain.commands:
def generate_parameter_object(parameter):
optional_string = "true" if parameter.is_optional else "false"
pairs = []
pairs.append('"name": "%s"' % parameter.parameter_name)
pairs.append('"type": "%s"' % Generator.js_name_for_parameter_type(parameter.type))
pairs.append('"optional": %s' % optional_string)
return "{%s}" % ", ".join(pairs)
command_args = {
'domain': domain.domain_name,
'commandName': command.command_name,
'callParams': ", ".join([generate_parameter_object(parameter) for parameter in command.call_parameters]),
'returnParams': ", ".join(['"%s"' % parameter.parameter_name for parameter in command.return_parameters]),
}
lines.append('InspectorBackend.registerCommand("%(domain)s.%(commandName)s", [%(callParams)s], [%(returnParams)s]);' % command_args)
return "\n".join(lines)
def __init__(self, collection_in):
Generator.__init__(self)
self.collection = collection_in
self.complex = False
if(isinstance(collection_in, dict)):
self.complex = True
self.default_gvars = {"contingent": []}
def __init__(self, redis, features={}):
Generator.__init__(self, redis, features)
self.logger = logging.getLogger(__name__)
self.name=Name(self.redis,'street')
def __init__(self, redis, features={}):
Generator.__init__(self, redis, features)
self.logger = logging.getLogger(__name__)
if not hasattr(self, 'text'):
self.text = self.render_template(self.template)
self.text = self.render_template(self.text)
self.text = self.text[0].capitalize() + self.text[1:]
def __init__(self, redis, features={}):
Generator.__init__(self, redis, features)
self.logger = logging.getLogger(__name__)
self.select_colors()
self.overlay_stripe_countselected = random.randint(0, int(self.overlay_stripe_count))
if not hasattr(self, 'letter'):
self.letter = random.choice(string.ascii_uppercase)
def connect(a, b):
r = rooms[a]
s = rooms[b]
edge = list(set(Generator.get_outline(r, eight=False)) &
set(Generator.get_outline(s, eight=False)))
if edge:
self.doors.append(random.choice(edge))
self.path[tuple(r)].append(Way(s, self.doors[-1]))
return True
return False
def grow_room(self, room, growing, max_size, pad_v=0, pad_h=0, space=None):
"""Tries to grow a room in the specified direction
Returns whether the growth succeeded"""
space = space if space is not None else self.interior_space
for d, grow in enumerate(growing):
if not grow:
continue
if (((d == LEFT or d == RIGHT) and room.w > max_size) or
((d == UP or d == DOWN) and room.h > max_size)):
growing[d] = False
continue
left, top, width, height = room.x, room.y, room.w, room.h
if d == LEFT:
left -= 1
width += 1
if room.w <= 1:
collision = None
else:
collision = Rect(room.x - pad_h, room.y + 1 - pad_v,
1 + pad_h, max(1, room.h + 2 * pad_v - 2))
elif d == RIGHT:
width += 1
if room.w <= 1:
collision = None
else:
collision = Rect(room.right - 1 - pad_h, room.y + 1,
1 + pad_h, max(1, room.h + 2 * pad_v - 2))
elif d == DOWN:
height += 1
if room.h <= 1:
collision = None
else:
collision = Rect(room.x + 1 - pad_h, room.bottom - 1,
max(1, room.w - 2 + 2 * pad_h), 1 + pad_v)
elif d == UP:
top -= 1
height += 1
if room.h <= 1:
collision = None
else:
collision = Rect(room.x + 1 - pad_h, room.y - pad_v,
max(1, room.w - 2 + 2 * pad_h), 1 + pad_v)
if collision is not None:
building_collisions = collision.collidelistall([r.rect for r in self.shapes if isinstance(r, Room)])
else:
building_collisions = []
if not (set(Generator.get_rect(collision)) - space) and len(building_collisions) == 0:
room.left = left
room.width = width
room.top = top
room.height = height
else:
print room.rect, collision, d, building_collisions, (set(Generator.get_rect(collision)) - space)
growing[d] = False
def __init__(self, level):
Generator.__init__(self, level)
self.size = 80
self.width = random.randint(self.size*0.4, self.size*0.6) * 2
self.height = random.randint(self.size*0.4, self.size*0.6) * 2
self.orientation = random.randint(0,3)
self.corridor_size = random.randint(self.size*0.2, self.size*0.3)
self.room_size = random.randint(4, 6)
self.randomness = 0#random.randint(0, 4)
self.reflect_axis = HORIZONTAL
self.reflect_centre = 0.5
def __init__(self, redis, features={}):
Generator.__init__(self, redis, features)
self.logger = logging.getLogger(__name__)
for person in ['npc', 'victim']:
if not hasattr(self, person):
setattr(self, person, NPC(self.redis))
self.headline = self.render_template(self.headline)
self.lastseen = self.render_template(self.lastseen)
def __init__(self, redis, features={}):
Generator.__init__(self, redis, features)
self.logger = logging.getLogger(__name__)
# Double parse the template to fill in templated template values.
if not hasattr(self, 'text'):
self.text = self.render_template(self.template)
self.text = self.render_template(self.text)
self.text = self.text[0].capitalize() + self.text[1:]
def __init__(self, xml):
Generator.__init__(self)
if os.path.isfile(xml):
plugin_tree = etree.parse(xml)
plugins = plugin_tree.xpath("/plugins/plugin")
for plugin in plugins:
self.__generate_plugin__(plugin, xml)
else:
print "XML file: " + xml + " not valid !"
def __init__(self, redis, features={}):
""" Generate a Rogue-like dungeon """
Generator.__init__(self, redis, features)
self.logger = logging.getLogger(__name__)
self.generate_features('dungeon')
self.generate_grid()
self.generate_rooms()
self.generate_halls()
self.name=Name(self.redis, 'dungeon')
def __init__(self, redis, features={}):
Generator.__init__(self, redis, features)
self.logger = logging.getLogger(__name__)
self.generate_features('motivation' + self.kind)
if not hasattr(self, 'npc'):
self.npc = npc.NPC(self.redis, {'motivation': self})
self.text = self.render_template(self.text)
def _generate_open_field_names(self):
lines = []
for domain in self.domains_to_generate():
type_declarations = self.type_declarations_for_domain(domain)
for type_declaration in [decl for decl in type_declarations if Generator.type_has_open_fields(decl.type)]:
open_members = Generator.open_fields(type_declaration)
for type_member in sorted(open_members, key=lambda member: member.member_name):
field_name = '::'.join(['Inspector', 'Protocol', domain.domain_name, ucfirst(type_declaration.type_name), ucfirst(type_member.member_name)])
lines.append('const char* %s = "%s";' % (field_name, type_member.member_name))
return '\n'.join(lines)
def __init__(self, redis, features={}):
Generator.__init__(self, redis, features)
self.logger = logging.getLogger(__name__)
if not hasattr(self, 'regioncount'):
self.regioncount = random.randint(self.regiondetails['mincount'], self.regiondetails['maxcount'])
if not hasattr(self, 'leader'):
self.leader = leader.Leader(self.redis, {"location":self})
#self.leader = Leader(self.redis)
if not hasattr(self, 'name'):
self.name = Name(self.redis, 'country')
def mirror(self, axis, centre):
"""
Return a mirrored copy of the shape
@param axis: axis to mirror in
@param centre: coordinate of mirror axis
@return: Shape : the mirrored copy
"""
new = ArbitraryShape(set(Generator.reflect_points(self.points, axis, centre)))
new.outline_gaps = set(Generator.reflect_points(self.outline_gaps, axis, centre))
return new
def __init__(self, redis, features={}):
Generator.__init__(self, redis, features)
self.logger = logging.getLogger(__name__)
if not hasattr(self, 'leader'):
self.leader = leader.Leader(self.redis, {"location":self})
#self.leader = Leader(self.redis)
if not hasattr(self, 'text'):
self.text = self.render_template(self.template)
self.name=Name(self.redis, 'organization', {'leader':self.leader})
def _generate_enum_from_protocol_string(self, objc_enum_name, enum_values):
lines = []
lines.append('template<>')
lines.append('inline %s fromProtocolString(const String& value)' % objc_enum_name)
lines.append('{')
for enum_value in enum_values:
lines.append(' if (value == "%s")' % enum_value)
lines.append(' return %s%s;' % (objc_enum_name, Generator.stylized_name_for_enum_value(enum_value)))
lines.append(' ASSERT_NOT_REACHED();')
lines.append(' return %s%s;' % (objc_enum_name, Generator.stylized_name_for_enum_value(enum_values[0])))
lines.append('}')
return '\n'.join(lines)
def _generate_enum_from_protocol_string(self, objc_enum_name, enum_values):
lines = []
lines.append("template<>")
lines.append("inline %s fromProtocolString(const String& value)" % objc_enum_name)
lines.append("{")
for enum_value in enum_values:
lines.append(' if (value == "%s")' % enum_value)
lines.append(" return %s%s;" % (objc_enum_name, Generator.stylized_name_for_enum_value(enum_value)))
lines.append(" ASSERT_NOT_REACHED();")
lines.append(" return %s%s;" % (objc_enum_name, Generator.stylized_name_for_enum_value(enum_values[0])))
lines.append("}")
return "\n".join(lines)
def __init__(self, redis, features={}):
Generator.__init__(self, redis, features)
self.logger = logging.getLogger(__name__)
for person in ['npc', 'villain']:
if not hasattr(self, person):
setattr(self, person, NPC(self.redis))
if not hasattr(self, 'text'):
self.text = self.render_template(self.template)
self.text = self.render_template(self.text)
self.text = self.text[0].capitalize() + self.text[1:]
def __init__(self, level):
Generator.__init__(self, level)
self.size = 50
self.width = random.randint(self.size*0.4, self.size*0.6) * 2
self.height = random.randint(self.size*0.4, self.size*0.6) * 2
self.orientation = random.randint(0,3)
self.turretsize = random.randint(6,10)
self.gatesize = random.randint(1,4)
self.wallwidth = random.randint(3,4)
self.turret_project = random.randint(2, min(4, self.turretsize-3))
self.gatehouse_project = random.randint(0,4)
if self.gatesize % 2 == 1:
self.width -= 1
def __init__(self, redis, features={}):
Generator.__init__(self, redis, features)
self.logger = logging.getLogger(__name__)
for person in ["victim", "culprit", "source", "believer"]:
if not hasattr(self, person):
setattr(self, person, NPC(self.redis).name.fullname)
if not hasattr(self, "text"):
self.text = self.render_template(self.template)
self.text = self.render_template(self.text)
self.text = self.text[0].capitalize() + self.text[1:]
def __init__(self, level, size=80, house_size=9, house_chance=0.5, branchiness=0.8, **params):
Generator.__init__(self, level)
self.size = size
self.road_width = 1
self.house_size = house_size
self.house_chance = house_chance
self.branchiness = branchiness
self.road_length = house_size*2
self.num_roads = size/house_size
for param in params:
self.setattr(param, params[param])
def __init__(self, redis, features={}):
Generator.__init__(self, redis, features)
self.logger = logging.getLogger(__name__)
if not hasattr(self, 'text'):
# TODO move this to the data file
# self.text=self.render_template("{{params.quality['name']|article}}
# {{params.kind}}, {{params.repair['name']}}")
self.text = self.render_template(self.template)
self.text = self.text[0].capitalize() + self.text[1:]
def _generate_class_for_object_declaration(self, type_declaration, domain):
if len(type_declaration.type_members) == 0:
return ''
enum_members = filter(
lambda member: isinstance(member.type, EnumType) and member.type.
is_anonymous, type_declaration.type_members)
required_members = filter(lambda member: not member.is_optional,
type_declaration.type_members)
optional_members = filter(lambda member: member.is_optional,
type_declaration.type_members)
object_name = type_declaration.type_name
lines = []
if len(type_declaration.description) > 0:
lines.append('/* %s */' % type_declaration.description)
base_class = 'Inspector::InspectorObject'
if not Generator.type_has_open_fields(type_declaration.type):
base_class = base_class + 'Base'
lines.append('class %s : public %s {' % (object_name, base_class))
lines.append('public:')
for enum_member in enum_members:
lines.append(
' // Named after property name \'%s\' while generating %s.'
% (enum_member.member_name, object_name))
lines.append(
self._generate_struct_for_anonymous_enum_member(enum_member))
lines.append(self._generate_builder_state_enum(type_declaration))
constructor_example = []
constructor_example.append(' * Ref<%s> result = %s::create()' %
(object_name, object_name))
for member in required_members:
constructor_example.append(' * .set%s(...)' %
ucfirst(member.member_name))
constructor_example.append(' * .release()')
builder_args = {
'objectType': object_name,
'constructorExample': '\n'.join(constructor_example) + ';',
}
lines.append(
Template(CppTemplates.ProtocolObjectBuilderDeclarationPrelude).
substitute(None, **builder_args))
for type_member in required_members:
lines.append(
self._generate_builder_setter_for_member(type_member, domain))
lines.append(
Template(CppTemplates.ProtocolObjectBuilderDeclarationPostlude).
substitute(None, **builder_args))
for member in optional_members:
lines.append(
self._generate_unchecked_setter_for_member(member, domain))
if Generator.type_has_open_fields(type_declaration.type):
lines.append('')
lines.append(' // Property names for type generated as open.')
for type_member in type_declaration.type_members:
export_macro = self.model().framework.setting(
'export_macro', None)
lines.append(' %s static const char* %s;' %
(export_macro, ucfirst(type_member.member_name)))
lines.append('};')
lines.append('')
return '\n'.join(lines)
def __init__(self,
X_train_file='',
Y_train_file='',
batch_size=1,
image_size=256,
use_lsgan=True,
norm='instance',
lambda1=10.0,
lambda2=10.0,
learning_rate=2e-4,
beta1=0.5,
ngf=64):
"""
Args:
X_train_file: string, X tfrecords file for training
Y_train_file: string Y tfrecords file for training
batch_size: integer, batch size
image_size: integer, image size
lambda1: integer, weight for forward cycle loss (X->Y->X)
lambda2: integer, weight for backward cycle loss (Y->X->Y)
use_lsgan: boolean
norm: 'instance' or 'batch'
learning_rate: float, initial learning rate for Adam
beta1: float, momentum term of Adam
ngf: number of gen filters in first conv layer
"""
self.lambda1 = lambda1
self.lambda2 = lambda2
self.use_lsgan = use_lsgan
use_sigmoid = not use_lsgan
self.batch_size = batch_size
self.image_size = image_size
self.learning_rate = learning_rate
self.beta1 = beta1
self.X_train_file = X_train_file
self.Y_train_file = Y_train_file
self.is_training = tf.placeholder_with_default(True,
shape=[],
name='is_training')
self.G = Generator('G',
self.is_training,
ngf=ngf,
norm=norm,
image_size=image_size)
self.D_Y = Discriminator('D_Y',
self.is_training,
norm=norm,
use_sigmoid=use_sigmoid)
self.F = Generator('F',
self.is_training,
norm=norm,
image_size=image_size)
self.D_X = Discriminator('D_X',
self.is_training,
norm=norm,
use_sigmoid=use_sigmoid)
self.fake_x = tf.placeholder(
tf.float32, shape=[batch_size, image_size, image_size, 3])
self.fake_y = tf.placeholder(
tf.float32, shape=[batch_size, image_size, image_size, 3])
def __init__(self, file_path):
self.tokenizer = Tokenizer(file_path)
self.parser = Parser()
self.generator = Generator()
self.env = Environment()
self.interpreted_file_name = None
def main(_):
# set useful shortcuts and initialize timing
tf.logging.set_verbosity(tf.logging.INFO)
log_dir = FLAGS.logdir
start_time = time.time()
# load dataset
dataset = Dataset(bs=FLAGS.target_batch_size,
filepattern=FLAGS.filepattern)
with tf.Graph().as_default():
generator = Generator(FLAGS.batch_size, FLAGS.noise_dim)
wasserstein = Wasserstein(generator, dataset)
# create optimization problem to solve (adversarial-free GAN)
loss = wasserstein.dist(C=0.1, nsteps=10)
global_step = tf.Variable(0, name='global_step', trainable=False)
adam = tf.train.AdamOptimizer(FLAGS.learning_rate, FLAGS.momentum)
train_step = adam.minimize(loss, global_step=global_step)
# add summaries for tensorboard
tf.summary.scalar('loss', loss)
wasserstein.add_summary_images(num=9)
all_summaries = tf.summary.merge_all()
saver = tf.train.Saver()
init = tf.global_variables_initializer()
sm = tf.train.SessionManager()
config = tf.ConfigProto()
try:
sess = sm.prepare_session('',
init_op=init,
saver=saver,
config=config,
checkpoint_dir=log_dir)
except tf.errors.InvalidArgumentError:
tf.logging.info('Cannot load old session. Starting new one.')
sess = tf.Session(config=config)
sess.run(init)
# output graph for early inspection
test_writer = tf.summary.FileWriter(log_dir, graph=sess.graph)
test_writer.flush()
summary, current_loss = sess.run([all_summaries, loss])
test_writer.add_summary(summary)
test_writer.flush()
sys_stdout_flush('Time to start training %f s\n' %
(time.time() - start_time))
start_time = time.time()
iteration_time = time.time()
for i in xrange(FLAGS.num_steps):
if i % 10 == 0:
sys_stdout_flush('.')
if i % 100 == 0: # record summaries
summary, current_loss, step = sess.run(
[all_summaries, loss, global_step])
test_writer.add_summary(summary, i)
test_writer.flush()
sys_stdout_flush('Step %d[%d] (%s): loss %f ' %
(i, step, time.ctime(), current_loss))
sys_stdout_flush('iteration: %f s ' %
(time.time() - iteration_time))
iteration_time = time.time()
sys_stdout_flush('total: %f s ' % (time.time() - start_time))
sys_stdout_flush('\n')
sess.run(train_step)
if i % 1000 == 0:
sys_stdout_flush('Saving snapshot.\n')
saver.save(sess,
os.path.join(log_dir, 'wasserstein.ckpt'),
global_step=global_step)
saver.save(sess, os.path.join(log_dir, 'wasserstein-final.ckpt'))
sys_stdout_flush('Done.\n')
test_writer.close()
def train(args):
# Context
ctx = get_extension_context(args.context,
device_id=args.device_id,
type_config=args.type_config)
nn.set_default_context(ctx)
aug_list = args.aug_list
# Model
scope_gen = "Generator"
scope_dis = "Discriminator"
# generator loss
z = nn.Variable([args.batch_size, args.latent, 1, 1])
x_fake = Generator(z, scope_name=scope_gen, img_size=args.image_size)
p_fake = Discriminator([augment(xf, aug_list) for xf in x_fake],
label="fake",
scope_name=scope_dis)
lossG = loss_gen(p_fake)
# discriminator loss
x_real = nn.Variable(
[args.batch_size, 3, args.image_size, args.image_size])
x_real_aug = augment(x_real, aug_list)
p_real, rec_imgs, part = Discriminator(x_real_aug,
label="real",
scope_name=scope_dis)
lossD_fake = loss_dis_fake(p_fake)
lossD_real = loss_dis_real(p_real, rec_imgs, part, x_real_aug)
lossD = lossD_fake + lossD_real
# generator with fixed latent values for test
# Use train=True even in an inference phase
z_test = nn.Variable.from_numpy_array(
np.random.randn(args.batch_size, args.latent, 1, 1))
x_test = Generator(z_test,
scope_name=scope_gen,
train=True,
img_size=args.image_size)[0]
# Exponential Moving Average (EMA) model
# Use train=True even in an inference phase
scope_gen_ema = "Generator_EMA"
x_test_ema = Generator(z_test,
scope_name=scope_gen_ema,
train=True,
img_size=args.image_size)[0]
copy_params(scope_gen, scope_gen_ema)
update_ema_var = make_ema_updater(scope_gen_ema, scope_gen, 0.999)
# Solver
solver_gen = S.Adam(args.lr, beta1=0.5)
solver_dis = S.Adam(args.lr, beta1=0.5)
with nn.parameter_scope(scope_gen):
params_gen = nn.get_parameters()
solver_gen.set_parameters(params_gen)
with nn.parameter_scope(scope_dis):
params_dis = nn.get_parameters()
solver_dis.set_parameters(params_dis)
# Monitor
monitor = Monitor(args.monitor_path)
monitor_loss_gen = MonitorSeries("Generator Loss", monitor, interval=10)
monitor_loss_dis_real = MonitorSeries("Discriminator Loss Real",
monitor,
interval=10)
monitor_loss_dis_fake = MonitorSeries("Discriminator Loss Fake",
monitor,
interval=10)
monitor_time = MonitorTimeElapsed("Training Time", monitor, interval=10)
monitor_image_tile_train = MonitorImageTile("Image Tile Train",
monitor,
num_images=args.batch_size,
interval=1,
normalize_method=lambda x:
(x + 1.) / 2.)
monitor_image_tile_test = MonitorImageTile("Image Tile Test",
monitor,
num_images=args.batch_size,
interval=1,
normalize_method=lambda x:
(x + 1.) / 2.)
monitor_image_tile_test_ema = MonitorImageTile("Image Tile Test EMA",
monitor,
num_images=args.batch_size,
interval=1,
normalize_method=lambda x:
(x + 1.) / 2.)
# Data Iterator
rng = np.random.RandomState(141)
di = data_iterator(args.img_path,
args.batch_size,
imsize=(args.image_size, args.image_size),
num_samples=args.train_samples,
rng=rng)
# Train loop
for i in range(args.max_iter):
# Train discriminator
x_fake[0].need_grad = False # no need backward to generator
x_fake[1].need_grad = False # no need backward to generator
solver_dis.zero_grad()
x_real.d = di.next()[0]
z.d = np.random.randn(args.batch_size, args.latent, 1, 1)
lossD.forward()
lossD.backward()
solver_dis.update()
# Train generator
x_fake[0].need_grad = True # need backward to generator
x_fake[1].need_grad = True # need backward to generator
solver_gen.zero_grad()
lossG.forward()
lossG.backward()
solver_gen.update()
# Update EMA model
update_ema_var.forward()
# Monitor
monitor_loss_gen.add(i, lossG.d)
monitor_loss_dis_real.add(i, lossD_real.d)
monitor_loss_dis_fake.add(i, lossD_fake.d)
monitor_time.add(i)
# Save
if (i + 1) % args.save_interval == 0:
with nn.parameter_scope(scope_gen):
nn.save_parameters(
os.path.join(args.monitor_path,
"Gen_iter{}.h5".format(i + 1)))
with nn.parameter_scope(scope_gen_ema):
nn.save_parameters(
os.path.join(args.monitor_path,
"GenEMA_iter{}.h5".format(i + 1)))
with nn.parameter_scope(scope_dis):
nn.save_parameters(
os.path.join(args.monitor_path,
"Dis_iter{}.h5".format(i + 1)))
if (i + 1) % args.test_interval == 0:
x_test.forward(clear_buffer=True)
x_test_ema.forward(clear_buffer=True)
monitor_image_tile_train.add(i + 1, x_fake[0])
monitor_image_tile_test.add(i + 1, x_test)
monitor_image_tile_test_ema.add(i + 1, x_test_ema)
# Last
x_test.forward(clear_buffer=True)
x_test_ema.forward(clear_buffer=True)
monitor_image_tile_train.add(args.max_iter, x_fake[0])
monitor_image_tile_test.add(args.max_iter, x_test)
monitor_image_tile_test_ema.add(args.max_iter, x_test_ema)
with nn.parameter_scope(scope_gen):
nn.save_parameters(
os.path.join(args.monitor_path,
"Gen_iter{}.h5".format(args.max_iter)))
with nn.parameter_scope(scope_gen_ema):
nn.save_parameters(
os.path.join(args.monitor_path,
"GenEMA_iter{}.h5".format(args.max_iter)))
with nn.parameter_scope(scope_dis):
nn.save_parameters(
os.path.join(args.monitor_path,
"Dis_iter{}.h5".format(args.max_iter)))
# x = K.layers.ReLU(6., name='pre_encoding')(x)
x = Reshape((ENCODER_SHAPE,), name='encoding')(x)
preds = CosineSoftmax(output_dim=out_shape)(x)
model = Model(inputs=base_model.inputs, outputs=preds)
# for layer in base_model.layers:
# layer.trainable = False
if model_to_restore is not None:
model.load_weights(model_to_restore)
return model
if __name__ == '__main__':
generator = Generator(IN_DIR, BATCH_SIZE, TARGET_SIZE[1], TARGET_SIZE[0],
val_to_train=0.15, preprocessor=preprocess_input,
augmenter=augm_hard.augment_images) # augm.augment_images)
model = create_model_mobilenet(MODEL_RESTORE, (TARGET_SIZE[0], TARGET_SIZE[1], 3), generator.cats_num)
if MODEL_RESTORE is not None:
optimizer = K.optimizers.RMSprop(lr=0.0001, decay=0.03)
else:
optimizer = K.optimizers.Adam(lr=0.0001)
#optimizer = K.optimizers.RMSprop(lr=0.002, decay=0.01)
model.compile(optimizer=optimizer, loss='categorical_crossentropy', metrics=['accuracy'])
model.summary()
out = open(os.path.join(os.path.normpath(MODEL_OUT_DIR), "model_13_v2.json"), "w")
out.write(model.to_json())
out.close()
def domains_to_generate(self):
return list(filter(self.should_generate_types_for_domain, Generator.domains_to_generate(self)))
one_hot = one_hot.cuda()
loss = torch.masked_select(prob, one_hot)
loss = loss * reward
loss = -torch.sum(loss)
return loss
target_lstm = TargetLSTM(VOCAB_SIZE, g_emb_dim, g_hidden_dim, opt.cuda)
if opt.cuda:
target_lstm = target_lstm.cuda()
# Generate toy data using target lstm
print('Generating data ...')
generate_samples(target_lstm, BATCH_SIZE, GENERATED_NUM, POSITIVE_FILE)
# Load data from file
gen_data_iter = GenDataIter(POSITIVE_FILE, BATCH_SIZE)
original_generator = Generator(VOCAB_SIZE, g_emb_dim, g_hidden_dim, opt.cuda)
def main(generator_,PRE_EPOCH_NUM):
#random.seed(SEED)
#np.random.seed(SEED)
perf_dict = {}
true_loss = []
generator_loss = []
disc_loss = []
nb_batch_per_epoch=int(GENERATED_NUM / BATCH_SIZE)
# Define Networks
generator = copy.deepcopy(generator_)
discriminator = Discriminator(d_num_class, VOCAB_SIZE, d_emb_dim, d_filter_sizes, d_num_filters, d_dropout)
if "gen" in args:
generate_train_data()
generate_test_data()
if "gen-train" in args:
generate_train_data()
if "gen-test" in args:
generate_test_data()
if "train" in args:
train()
test()
if "mock-faulty" in args:
f = args[args.index("mock-faulty") + 1]
gen = Generator(f, is_mock=True)
gen.generate_mock_csv(is_faulty=True)
if "mock-reliable" in args:
f = args[args.index("mock-reliable") + 1]
gen = Generator(f, is_mock=True)
gen.generate_mock_csv(is_faulty=False)
if "predict" in args:
file_to_predict = args[args.index("predict") + 1]
if os.path.exists("data/decision-tree.pkl"):
cart.load_tree()
cart.predict(file_to_predict)
else:
program_error("Gere um modelo antes")
if __name__ == '__main__':
# Parse arguments
args = parser.parse_args()
args.cuda = not args.no_cuda and torch.cuda.is_available()
torch.manual_seed(args.seed)
if args.cuda:
torch.cuda.manual_seed(args.seed)
if not args.hpc:
args.data_path = ''
POSITIVE_FILE = args.data_path + POSITIVE_FILE
NEGATIVE_FILE = args.data_path + NEGATIVE_FILE
# Set models, criteria, optimizers
generator = Generator(args.vocab_size, g_embed_dim, g_hidden_dim,
args.cuda)
discriminator = Discriminator(d_num_class, args.vocab_size, d_embed_dim,
d_filter_sizes, d_num_filters,
d_dropout_prob)
target_lstm = TargetLSTM(args.vocab_size, g_embed_dim, g_hidden_dim,
args.cuda)
nll_loss = nn.NLLLoss()
pg_loss = PGLoss()
if args.cuda:
generator = generator.cuda()
discriminator = discriminator.cuda()
target_lstm = target_lstm.cuda()
nll_loss = nll_loss.cuda()
pg_loss = pg_loss.cuda()
cudnn.benchmark = True
gen_optimizer = optim.Adam(params=generator.parameters(), lr=args.gen_lr)
opt = parser.parse_args()
print(opt)
# Create sample and checkpoint directories
os.makedirs('images/%s' % opt.dataset_name, exist_ok=True)
os.makedirs('saved_models/%s' % opt.dataset_name, exist_ok=True)
# Losses
criterion_GAN = nn.MSELoss()
criterion_cycle = nn.L1Loss()
criterion_identity = nn.L1Loss()
criterion_similar = nn.L1Loss()
# Initialize generator and discriminator
# G = GeneratorResNet(res_blocks=opt.n_residual_blocks)
G = Generator(res_blocks=opt.n_residual_blocks)
D_A = Discriminator()
D_B = Discriminator()
# if GPU is accessible
cuda = True if torch.cuda.is_available() else False
if cuda:
G = G.cuda()
D_A = D_A.cuda()
D_B = D_B.cuda()
criterion_GAN.cuda()
criterion_cycle.cuda()
criterion_identity.cuda()
criterion_similar.cuda()
# Optimizers
def domains_to_generate(self):
return filter(
ObjCGenerator.should_generate_domain_command_handler_filter(
self.model()), Generator.domains_to_generate(self))
def __init__(self,
main_dir=None,
CaseStudy=0,
seq=3,
ndraw=10000,
thin=1,
nCR=3,
DEpairs=3,
parallelUpdate=1.0,
pCR=True,
k=10,
pJumpRate_one=0.2,
steps=100,
savemodout=False,
saveout=True,
save_tmp_out=True,
Prior='LHS',
DoParallel=True,
eps=5e-2,
BoundHandling='Reflect',
lik_sigma_est=False,
parallel_jobs=4,
jr_scale=1.0,
rng_seed=123,
it_b=10,
jr_factor=0.2,
CESSf_div=0.999993,
ESSf_div=0.5,
AR_min=25.0):
self.CaseStudy = CaseStudy
MCMCPar.seq = seq
MCMCPar.ndraw = ndraw
MCMCPar.thin = thin
MCMCPar.nCR = nCR
MCMCPar.DEpairs = DEpairs
MCMCPar.parallelUpdate = parallelUpdate
MCMCPar.Do_pCR = pCR
MCMCPar.k = k
MCMCPar.pJumpRate_one = pJumpRate_one
MCMCPar.steps = steps
MCMCPar.savemodout = savemodout
MCMCPar.saveout = saveout
MCMCPar.save_tmp_out = save_tmp_out
MCMCPar.Prior = Prior
MCMCPar.DoParallel = DoParallel
MCMCPar.eps = eps
MCMCPar.BoundHandling = BoundHandling
MCMCPar.jr_scale = jr_scale
MCMCPar.lik_sigma_est = lik_sigma_est
Extra.n_jobs = parallel_jobs
Extra.main_dir = main_dir
np.random.seed(seed=None)
MCMCPar.rng_seed = rng_seed
MCMCPar.it_b = it_b
MCMCPar.jr_factor = jr_factor
MCMCPar.AR_min = AR_min
MCMCPar.ESSf_div = ESSf_div
MCMCPar.CESSf_div = CESSf_div
if self.CaseStudy == 1:
ModelName = 'nonlinear_gpr_tomo'
MCMCPar.lik = 2
MCMCPar.savemodout = True
MCMCPar.lik_sigma_est = False
MCMCPar.lb = np.ones((1, 15)) * -1
MCMCPar.ub = np.ones((1, 15))
MCMCPar.n = MCMCPar.ub.shape[1]
# Forward model:
nx = 60 # Here x is the horizontal axis (number of columns) and not the number of rows
ny = 125 # Here y is the vertical axis (number of rows) and not the number of columns
finefac = 1 # not working for channelized models
spacing = 0.1 / finefac
nx = np.int(60 * finefac)
ny = np.int(125 * finefac)
# The x-axis is varying the fastest
sourcex = 0.1
sourcez = np.arange(0.5, 12 + 0.5,
0.5) #sources positions in meters
receiverx = 5.9
receiverz = np.arange(0.5, 12 + 0.5,
0.5) #receivers positions in meters
xs = np.float32(
sourcex /
spacing) #sources positions in model domain coordinates
ys = sourcez / spacing # divided by the spacing to get the domain coordinate
rx = receiverx / spacing #receivers positions in model domain coordinates
rz = receiverz / spacing # divided by the spacing to get receiverzthe domain coordinate
nsource = len(sourcez)
nreceiver = len(receiverz)
ndata = nsource * nreceiver
data = np.zeros((ndata, 4))
x = np.arange(0, (nx / 10) + 0.1, 0.1)
y = np.arange(0, (ny / 10) + 0.1, 0.1)
# Neural network (SGAN):
DNN = AttrDict()
DNN.nx = nx
DNN.ny = ny
DNN.zx = 5
DNN.zy = 3
DNN.nc = 1
DNN.nz = 1
DNN.depth = 5
DNN.threshold = True
DNN.filtering = False
DNN.cuda = False
DNN.gpath = Extra.main_dir + '/netG.pth'
from generator import Generator as Generator
DNN.npx = (DNN.zx - 1) * 2**DNN.depth + 1
DNN.npy = (DNN.zy - 1) * 2**DNN.depth + 1
DNN.netG = Generator(cuda=DNN.cuda, gpath=DNN.gpath)
for param in DNN.netG.parameters():
param.requires_grad = False
DNN.netG.eval()
if DNN.cuda:
DNN.netG.cuda()
self.DNN = DNN
# Load measurements
Measurement.Sigma = 1 # Measurement error is 1 ns
Measurement.MeasData = np.load('datatruemodel_sigma1.npy')
#Filter travel times with source-receiver angle > 45 degrees
source = []
for i in range(1, 25):
s = np.ones(24) * (0.5 * i)
source = np.concatenate((source, s))
rec = np.linspace(0.5, 12, 24)
receiver = []
for ii in range(1, 25):
receiver = np.concatenate((receiver, rec))
dist = np.abs(source - receiver)
ind = np.where(dist > 6)[0]
Measurement.MeasData = np.delete(Measurement.MeasData, ind)
Measurement.N = len(Measurement.MeasData)
# Define the beta list to choose from in the binary search, to crate an adaptative beta sequence.
betanum = 500
#
beta_list = np.zeros(betanum - 1)
for i in range(1, betanum):
beta_list[i - 1] = i * 2 * 10**-5
MCMCPar.betainc_seq = beta_list
MCMCPar.m0 = 10 * MCMCPar.n
self.MCMCPar = MCMCPar
self.Measurement = Measurement
self.Extra = Extra
self.ModelName = ModelName
def main():
port = serial.Serial(
'/dev/ttyUSB0', 115200, parity=serial.PARITY_EVEN
) #pozn.: paritu prvni verze generatoru v FPGA nekontroluje, paritni bit jen precte a zahodi (aktualni k 8.4.2018)
# port_ver = serial.Serial('/dev/ttyUSB2', 115200, parity= serial.PARITY_EVEN, timeout=1) #pozn.: paritu prvni verze generatoru v FPGA nekontroluje, paritni bit jen precte a zahodi (aktualni k 8.4.2018)
# get the curses screen window
screen = curses.initscr()
curses.start_color()
curses.use_default_colors()
# turn off input echoing
curses.noecho()
# respond to keys immediately (don't wait for enter)
curses.cbreak()
# map arrow keys to special values
screen.keypad(True)
# initialize screen colors
for i in range(0, curses.COLORS):
curses.init_pair(i + 1, i, -1)
f_4seq = [
lambda i, val: val if i % 2 == 0 else 0, lambda i, val: val
if i % 3 == 0 else 0, lambda i, val: val
if i % 14 == 0 else 0, lambda i, val: val
if i % 28 == 0 else 0, lambda i, val: val if i % 56 == 0 else 0
]
gen = Generator(port)
gen.set_frequency(300e3)
# gen.set_frequency(40e3)
rec = Receiver(
30001, {
"56H": lambda phases: updatePhases(gen, screen, list(phases)),
}, lambda data: parsePhases(gen, screen, data))
rec.start()
try:
i = 0
j = 0
while True:
phases = [f_4seq[j](i + k, 180) for k in range(4 * 14)]
# duty_cycles = [f_4seq[j](i+k, 0.5) for k in range(4*14)]
updatePhases(gen, screen, phases)
# screen.refresh()
char = screen.getch()
if char == ord('q'):
break
elif char == curses.KEY_RIGHT:
i -= 1
elif char == curses.KEY_LEFT:
i += 1
elif char == curses.KEY_UP:
j = (j + 1) % len(f_4seq)
elif char == curses.KEY_DOWN:
j = (j - 1) % len(f_4seq)
# input("Press Enter to continue...")
# sleep(0.02)
finally:
# shut down cleanly
gen.set([0] * 64, [0.0] * 64)
curses.nocbreak()
screen.keypad(0)
curses.echo()
curses.endwin()
from pytorch_lightning import Trainer
from discriminator import Discriminator
from faces_data_module import FacesDataModule
from generator import Generator
from wgan import WGAN
if __name__ == "__main__":
data_module = FacesDataModule()
wgan = WGAN(generator=Generator(), discriminator=Discriminator())
trainer = Trainer(automatic_optimization=False)
trainer.fit(wgan, data_module)
dest="with_gpx",
action="store_true",
help="get all keep data to gpx and download",
)
parser.add_argument(
"--from-uid-sid",
dest="from_uid_sid",
action="store_true",
help="from uid and sid for download datas",
)
options = parser.parse_args()
if options.from_uid_sid:
j = Joyrun.from_uid_sid(
uid=str(options.phone_number_or_uid),
sid=str(options.identifying_code_or_sid),
)
else:
j = Joyrun(
user_name=str(options.phone_number_or_uid),
identifying_code=str(options.identifying_code_or_sid),
)
j.login_by_phone()
generator = Generator(SQL_FILE)
old_tracks_ids = generator.get_old_tracks_ids()
tracks = j.get_all_joyrun_tracks(old_tracks_ids, options.with_gpx)
generator.sync_from_app(tracks)
activities_list = generator.load()
with open(JSON_FILE, "w") as f:
json.dump(activities_list, f)
ax.set_yticklabels([])
ax.set_aspect('equal')
plt.imshow(sample)
return fig
# Load data.
print("==> Loading data...")
trainloader, testloader = data_loader_and_transformer(args.batch_size)
# Load model.
print("==> Initializing model...")
aD = Discriminator()
aG = Generator()
if args.load_checkpoint:
print("==> Loading checkpoint...")
aD = torch.load('tempD.model')
aG = torch.load('tempG.model')
aD.cuda()
aG.cuda()
# Optimizers, one for each model.
optimizer_g = torch.optim.Adam(aG.parameters(), lr=0.0001, betas=(0, 0.9))
optimizer_d = torch.optim.Adam(aD.parameters(), lr=0.0001, betas=(0, 0.9))
criterion = nn.CrossEntropyLoss()
# System-Level analyses
pass_manager.enqueue_analysis("SymbolicSystemExecution")
pass_manager.enqueue_analysis("SystemStateFlow")
global_cfg = pass_manager.enqueue_analysis("ConstructGlobalCFG")
global_abb_information = global_cfg.global_abb_information_provider()
logging.info("Global control flow information is provided by %s",
global_abb_information.name())
syscall_rules = SpecializedSystemCalls(global_abb_information)
else:
syscall_rules = FullSystemCalls()
# From command line
additional_passes = options.additional_passes
for each in additional_passes:
P = pass_manager.get_pass(each)
if not P:
panic("No such compiler pass: %s", each)
pass_manager.enqueue_analysis(P)
pass_manager.analyze("%s/gen_" % (options.prefix))
generator = Generator.Generator(graph, options.name, arch_rules, os_rules,
syscall_rules)
generator.template_base = options.template_base
generator.generate_into(options.prefix)
graph.stats.save(options.prefix + "/stats.dict.py")
def __init__(self, trucks, cities):
self.trucksM, self.trucks, self.cities = Generator.generateGA(
trucks, cities)
self.results = []
def __init__(self, swagger):
Generator.__init__(self, swagger)
def _generate_assertion_for_object_declaration(self, object_declaration):
required_members = filter(lambda member: not member.is_optional,
object_declaration.type_members)
optional_members = filter(lambda member: member.is_optional,
object_declaration.type_members)
should_count_properties = not Generator.type_has_open_fields(
object_declaration.type)
lines = []
lines.append('#if !ASSERT_DISABLED')
lines.append(
'void BindingTraits<%s>::assertValueHasExpectedType(Inspector::InspectorValue* value)'
%
(CppGenerator.cpp_protocol_type_for_type(object_declaration.type)))
lines.append("""{
ASSERT_ARG(value, value);
RefPtr<InspectorObject> object;
bool castSucceeded = value->asObject(object);
ASSERT_UNUSED(castSucceeded, castSucceeded);""")
for type_member in required_members:
args = {
'memberName':
type_member.member_name,
'assertMethod':
CppGenerator.cpp_assertion_method_for_type_member(
type_member, object_declaration)
}
lines.append(""" {
InspectorObject::iterator %(memberName)sPos = object->find(ASCIILiteral("%(memberName)s"));
ASSERT(%(memberName)sPos != object->end());
%(assertMethod)s(%(memberName)sPos->value.get());
}""" % args)
if should_count_properties:
lines.append('')
lines.append(' int foundPropertiesCount = %s;' %
len(required_members))
for type_member in optional_members:
args = {
'memberName':
type_member.member_name,
'assertMethod':
CppGenerator.cpp_assertion_method_for_type_member(
type_member, object_declaration)
}
lines.append(""" {
InspectorObject::iterator %(memberName)sPos = object->find(ASCIILiteral("%(memberName)s"));
if (%(memberName)sPos != object->end()) {
%(assertMethod)s(%(memberName)sPos->value.get());""" % args)
if should_count_properties:
lines.append(' ++foundPropertiesCount;')
lines.append(' }')
lines.append(' }')
if should_count_properties:
lines.append(' if (foundPropertiesCount != object->size())')
lines.append(
' FATAL("Unexpected properties in object: %s\\n", object->toJSONString().ascii().data());'
)
lines.append('}')
lines.append('#endif // !ASSERT_DISABLED')
return '\n'.join(lines)
def main():
parser = argparse.ArgumentParser(description='Chainer: DCGAN MNIST')
parser.add_argument('--batchsize',
'-b',
type=int,
default=50,
help='Number of images in each mini-batch')
parser.add_argument('--epoch',
'-e',
type=int,
default=1000,
help='Number of sweeps over the dataset to train')
parser.add_argument('--gpu',
'-g',
type=int,
default=0,
help='GPU ID (negative value indicates CPU)')
parser.add_argument('--out',
'-o',
default='result',
help='Directory to output the result')
parser.add_argument('--resume',
'-r',
default='',
help='Resume the training from snapshot')
parser.add_argument('--n_hidden',
'-n',
type=int,
default=100,
help='Number of hidden units (z)')
parser.add_argument('--seed',
type=int,
default=0,
help='Random seed of z at visualization stage')
parser.add_argument('--snapshot_interval',
type=int,
default=1000,
help='Interval of snapshot')
parser.add_argument('--display_interval',
type=int,
default=100,
help='Interval of displaying log to console')
parser.add_argument('--image_dir',
default='./img',
help='Training image directory')
args = parser.parse_args()
print('GPU: {}'.format(args.gpu))
print('# Minibatch-size: {}'.format(args.batchsize))
print('# n_hidden: {}'.format(args.n_hidden))
print('# epoch: {}'.format(args.epoch))
print('')
gen = Generator()
dis = Discriminator()
if args.gpu >= 0:
chainer.cuda.get_device_from_id(args.gpu).use()
gen.to_gpu()
dis.to_gpu()
def make_optimizer(model, alpha=0.0002, beta1=0.5):
optimizer = chainer.optimizers.Adam(alpha=alpha, beta1=beta1)
optimizer.setup(model)
optimizer.add_hook(chainer.optimizer.WeightDecay(0.0001), 'hook_dec')
return optimizer
opt_gen = make_optimizer(gen)
opt_dis = make_optimizer(dis)
def read_dataset(image_dir):
fs = os.listdir(image_dir)
dataset = []
for fn in fs:
img = Image.open(f"{args.image_dir}/{fn}").convert('RGB')
dataset.append((np.asarray(img,
dtype=np.float32).transpose(2, 0, 1)))
return dataset
dataset = read_dataset(args.image_dir)
train_iter = chainer.iterators.SerialIterator(dataset,
args.batchsize,
repeat=True,
shuffle=True)
updater = DCGANUpdater(models=(gen, dis),
iterator=train_iter,
optimizer={
'gen': opt_gen,
'dis': opt_dis
},
device=args.gpu)
trainer = training.Trainer(updater, (args.epoch, 'epoch'), out=args.out)
epoch_interval = (1, 'epoch')
# snapshot_interval = (args.snapshot_interval, 'iteration')
display_interval = (args.display_interval, 'iteration')
# trainer.extend(extensions.snapshot(filename='snapshot_iter_{.updater.iteration}.npz'), trigger=snapshot_interval)
# trainer.extend(extensions.snapshot_object(gen, 'gen_iter_{.updater.iteration}.npz'), trigger=snapshot_interval)
# trainer.extend(extensions.snapshot_object(dis, 'dis_iter_{.updater.iteration}.npz'), trigger=snapshot_interval)
trainer.extend(
extensions.snapshot(filename='snapshot_epoch_{.updater.epoch}.npz'),
trigger=epoch_interval)
trainer.extend(extensions.snapshot_object(
gen, 'gen_epoch_{.updater.epoch}.npz'),
trigger=epoch_interval)
trainer.extend(extensions.snapshot_object(
dis, 'dis_epoch_{.updater.epoch}.npz'),
trigger=epoch_interval)
trainer.extend(extensions.LogReport(trigger=display_interval))
trainer.extend(extensions.PrintReport([
'epoch',
'iteration',
'gen/loss',
'dis/loss',
]),
trigger=display_interval)
trainer.extend(extensions.ProgressBar(update_interval=10))
trainer.extend(out_generated_image(gen, dis, 10, 10, args.seed, args.out),
trigger=epoch_interval)
if args.resume:
# Resume from a snapshot
chainer.serializers.load_npz(args.resume, trainer)
# Run the training
trainer.run()
def main():
# load rhyme table
table = np.load("./data/table.npy")
np.random.seed(SEED)
random.seed(SEED)
# data loader
# gen_data_loader = Gen_Data_loader(BATCH_SIZE)
input_data_loader = Input_Data_loader(BATCH_SIZE)
dis_data_loader = Dis_dataloader(BATCH_SIZE)
D = Discriminator(SEQ_LENGTH, num_class, vocab_size, dis_emb_size, dis_filter_sizes, dis_num_filters, 0.2)
G = Generator(vocab_size, BATCH_SIZE, EMB_DIM, HIDDEN_DIM, SEQ_LENGTH, START_TOKEN, table, has_input=True)
# avoid occupy all the memory of the GPU
config = tf.ConfigProto()
config.gpu_options.allow_growth = True
sess = tf.Session(config=config)
sess.run(tf.global_variables_initializer())
# savers for different models
saver_gen = tf.train.Saver()
saver_dis = tf.train.Saver()
saver_seqgan = tf.train.Saver()
# gen_data_loader.create_batches(positive_file)
input_data_loader.create_batches(x_file, y_file)
log = open('./experiment-log.txt', 'w')
# pre-train generator
if pre_train_gen_path:
print("loading pretrain generator model...")
log.write("loading pretrain generator model...")
restore_model(G, sess, saver_gen, pre_train_gen_path)
print("loaded")
else:
log.write('pre-training generator...\n')
print('Start pre-training...')
for epoch in range(PRE_GEN_NUM):
s = time.time()
# loss = pre_train_epoch(sess, G, gen_data_loader)
loss = pre_train_epoch(sess, G, input_data_loader)
print("Epoch ", epoch, " loss: ", loss)
log.write("Epoch:\t" + str(epoch) + "\tloss:\t" + str(loss) + "\n")
print("pre-train generator epoch time: ", time.time() - s, " s")
best = 1000
if loss < best:
saver_gen.save(sess, "./model/pre_gen/pretrain_gen_best")
best = loss
dev_loader = Input_Data_loader(BATCH_SIZE)
dev_loader.create_batches(dev_x, dev_y)
if pre_train_dis_path:
print("loading pretrain discriminator model...")
log.write("loading pretrain discriminator model...")
restore_model(D, sess, saver_dis, pre_train_dis_path)
print("loaded")
else:
log.write('pre-training discriminator...\n')
print("Start pre-train the discriminator")
s = time.time()
for epoch in range(PRE_DIS_NUM):
# generate_samples(sess, G, BATCH_SIZE, generated_num, negative_file)
generate_samples(sess, G, BATCH_SIZE, generated_num, negative_file, input_data_loader)
# dis_data_loader.load_train_data(positive_file, negative_file)
dis_data_loader.load_train_data(y_file, negative_file)
for _ in range(3):
dis_data_loader.reset_pointer()
for it in range(dis_data_loader.num_batch):
x_batch, y_batch = dis_data_loader.next_batch()
feed = {
D.input_x: x_batch,
D.input_y: y_batch,
D.dropout_keep_prob: dis_dropout_keep_prob
}
_, acc = sess.run([D.train_op, D.accuracy], feed)
print("Epoch ", epoch, " Accuracy: ", acc)
log.write("Epoch:\t" + str(epoch) + "\tAccuracy:\t" + str(acc) + "\n")
best = 0
# if epoch % 20 == 0 or epoch == PRE_DIS_NUM -1:
# print("saving at epoch: ", epoch)
# saver_dis.save(sess, "./model/per_dis/pretrain_dis", global_step=epoch)
if acc > best:
saver_dis.save(sess, "./model/pre_dis/pretrain_dis_best")
best = acc
print("pre-train discriminator: ", time.time() - s, " s")
g_beta = G_beta(G, update_rate=0.8)
print('#########################################################################')
print('Start Adversarial Training...')
log.write('Start adversarial training...\n')
for total_batch in range(TOTAL_BATCH):
s = time.time()
for it in range(ADV_GEN_TIME):
for i in range(input_data_loader.num_batch):
target, input_x = input_data_loader.next_batch()
samples = G.generate(sess, target)
rewards = g_beta.get_reward(sess, target, input_x, sample_time, D)
avg = np.mean(np.sum(rewards, axis=1), axis=0) / SEQ_LENGTH
print(" epoch : %d time : %di: %d avg %f" % (total_batch, it, i, avg))
feed = {G.x: samples, G.rewards: rewards, G.inputs: target}
_ = sess.run(G.g_update, feed_dict=feed)
# Test
if total_batch % 5 == 0 or total_batch == TOTAL_BATCH - 1:
avg = np.mean(np.sum(rewards, axis=1), axis=0) / SEQ_LENGTH
buffer = 'epoch:\t' + str(total_batch) + '\treward:\t' + str(avg) + '\n'
print('total_batch: ', total_batch, 'average reward: ', avg)
log.write(buffer)
saver_seqgan.save(sess, "./model/seq_gan/seq_gan", global_step=total_batch)
g_beta.update_params()
# train the discriminator
for it in range(ADV_GEN_TIME // GEN_VS_DIS_TIME):
# generate_samples(sess, G, BATCH_SIZE, generated_num, negative_file)
generate_samples(sess, G, BATCH_SIZE, generated_num, negative_file, input_data_loader)
dis_data_loader.load_train_data(y_file, negative_file)
for _ in range(3):
dis_data_loader.reset_pointer()
for batch in range(dis_data_loader.num_batch):
x_batch, y_batch = dis_data_loader.next_batch()
feed = {
D.input_x: x_batch,
D.input_y: y_batch,
D.dropout_keep_prob: dis_dropout_keep_prob
}
_ = sess.run(D.train_op, feed_dict=feed)
print("Adversarial Epoch consumed: ", time.time() - s, " s")
# final generation
print("Finished")
log.close()
# save model
print("Training Finished, starting to generating test ")
test_loader = Input_Data_loader(batch_size=BATCH_SIZE)
test_loader.create_batches(test_x, test_y)
generate_samples(sess, G, BATCH_SIZE, test_num, test_file + "_final.txt", test_loader)
G))))))))
elephant = q(
G, q(q(W, W, q(G, G, B, G), W), W, G, W),
q(W, G, q(G, G, G, q(W, W, G, W)), q(G, G, W, G)),
q(
q(q(W, q(W, W, G, q(G, W, q(q(W, W, W, G), G, W, W), W)), W, G), G,
W, W), W, q(W, W, q(W, W, G, W), W), W))
simpler_elephant = q(
G, q(W, W, G, W), q(W, G, q(G, G, G, W), q(G, G, W, G)),
q(
q(q(W, q(W, W, G, q(G, W, q(q(W, W, W, G), G, W, W), W)), W, G), G,
W, W), W, q(W, W, W, W), W))
return [code_001, code_002, elephant, simpler_elephant]
if __name__ == "__main__":
goal, gamma = make_family_1()
gen = Generator(gamma)
for tree_size in [3, 5]:
num_trees = gen.get_num(tree_size, goal)
print('tree_size =', tree_size, "-> num_trees =", num_trees)
if num_trees:
# generate a few random trees
for i_sample in range(5):
tree = gen.gen_one(tree_size, goal)
print(tree_size, tree)
def __init__(self, args):
self._log_step = args.log_step
self._batch_size = args.batch_size
self._image_size = args.image_size
self._latent_dim = args.latent_dim
self._coeff_gan = args.coeff_gan
self._coeff_vae = args.coeff_vae
self._coeff_reconstruct = args.coeff_reconstruct
self._coeff_latent = args.coeff_latent
self._coeff_kl = args.coeff_kl
self._norm = 'instance' if args.instance_normalization else 'batch'
self._use_resnet = args.use_resnet
self._augment_size = self._image_size + (30 if self._image_size == 256
else 15)
self._image_shape = [self._image_size, self._image_size, 3]
self.is_train = tf.placeholder(tf.bool, name='is_train')
self.lr = tf.placeholder(tf.float32, name='lr')
self.global_step = tf.train.get_or_create_global_step(graph=None)
image_a = self.image_a = \
tf.placeholder(tf.float32, [self._batch_size] + self._image_shape, name='image_a')
image_b = self.image_b = \
tf.placeholder(tf.float32, [self._batch_size] + self._image_shape, name='image_b')
z = self.z = \
tf.placeholder(tf.float32, [self._batch_size, self._latent_dim], name='z')
# Data augmentation
seed = random.randint(0, 2**31 - 1)
def augment_image(image):
image = tf.image.resize_images(
image, [self._augment_size, self._augment_size])
image = tf.random_crop(image,
[self._batch_size] + self._image_shape,
seed=seed)
image = tf.map_fn(
lambda x: tf.image.random_flip_left_right(x, seed), image)
return image
image_a = tf.cond(self.is_train, lambda: augment_image(image_a),
lambda: image_a)
image_b = tf.cond(self.is_train, lambda: augment_image(image_b),
lambda: image_b)
# Generator
G = Generator('G',
is_train=self.is_train,
norm=self._norm,
image_size=self._image_size)
# Discriminator
D = Discriminator('D',
is_train=self.is_train,
norm=self._norm,
activation='leaky',
image_size=self._image_size)
# Encoder
E = Encoder('E',
is_train=self.is_train,
norm=self._norm,
activation='relu',
image_size=self._image_size,
latent_dim=self._latent_dim,
use_resnet=self._use_resnet)
# conditional VAE-GAN: B -> z -> B'
z_encoded, z_encoded_mu, z_encoded_log_sigma = E(image_b)
image_ab_encoded = G(image_a, z_encoded)
# conditional Latent Regressor-GAN: z -> B' -> z'
image_ab = self.image_ab = G(image_a, z)
z_recon, z_recon_mu, z_recon_log_sigma = E(image_ab)
# Discriminate real/fake images
D_real = D(image_b)
D_fake = D(image_ab)
D_fake_encoded = D(image_ab_encoded)
loss_vae_gan = (tf.reduce_mean(tf.squared_difference(D_real, 0.9)) +
tf.reduce_mean(tf.square(D_fake_encoded)))
loss_image_cycle = tf.reduce_mean(tf.abs(image_b - image_ab_encoded))
loss_gan = (tf.reduce_mean(tf.squared_difference(D_real, 0.9)) +
tf.reduce_mean(tf.square(D_fake)))
loss_latent_cycle = tf.reduce_mean(tf.abs(z - z_recon))
loss_kl = -0.5 * tf.reduce_mean(1 + 2 * z_encoded_log_sigma -
z_encoded_mu**2 -
tf.exp(2 * z_encoded_log_sigma))
loss = self._coeff_vae * loss_vae_gan - self._coeff_reconstruct * loss_image_cycle + \
self._coeff_gan * loss_gan - self._coeff_latent * loss_latent_cycle - \
self._coeff_kl * loss_kl
# Optimizer
update_ops = tf.get_collection(tf.GraphKeys.UPDATE_OPS)
with tf.control_dependencies(update_ops):
self.optimizer_D = tf.train.AdamOptimizer(learning_rate=self.lr, beta1=0.5) \
.minimize(loss, var_list=D.var_list, global_step=self.global_step)
self.optimizer_G = tf.train.AdamOptimizer(learning_rate=self.lr, beta1=0.5) \
.minimize(-loss, var_list=G.var_list)
self.optimizer_E = tf.train.AdamOptimizer(learning_rate=self.lr, beta1=0.5) \
.minimize(-loss, var_list=E.var_list)
# Summaries
self.loss_vae_gan = loss_vae_gan
self.loss_image_cycle = loss_image_cycle
self.loss_latent_cycle = loss_latent_cycle
self.loss_gan = loss_gan
self.loss_kl = loss_kl
self.loss = loss
tf.summary.scalar('loss/vae_gan', loss_vae_gan)
tf.summary.scalar('loss/image_cycle', loss_image_cycle)
tf.summary.scalar('loss/latent_cycle', loss_latent_cycle)
tf.summary.scalar('loss/gan', loss_gan)
tf.summary.scalar('loss/kl', loss_kl)
tf.summary.scalar('loss/total', loss)
tf.summary.scalar('model/D_real', tf.reduce_mean(D_real))
tf.summary.scalar('model/D_fake', tf.reduce_mean(D_fake))
tf.summary.scalar('model/D_fake_encoded',
tf.reduce_mean(D_fake_encoded))
tf.summary.scalar('model/lr', self.lr)
tf.summary.image('image/A', image_a[0:1])
tf.summary.image('image/B', image_b[0:1])
tf.summary.image('image/A-B', image_ab[0:1])
tf.summary.image('image/A-B_encoded', image_ab_encoded[0:1])
self.summary_op = tf.summary.merge_all()
def main():
random.seed(SEED)
np.random.seed(SEED)
assert START_TOKEN == 0
word_dict = Word2index()
word_dict.load_dict(vocab_file)
gen_data_loader = Gen_Data_loader(word_dict, BATCH_SIZE)
likelihood_data_loader = Gen_Data_loader(word_dict,
BATCH_SIZE) # For testing
vocab_size = len(word_dict) # changed 5000 to 10581
dis_data_loader = Dis_dataloader(word_dict, BATCH_SIZE)
generator = Generator(vocab_size, BATCH_SIZE, EMB_DIM, HIDDEN_DIM,
SEQ_LENGTH, START_TOKEN)
target_params = cPickle.load(open('save/target_params_py3.pkl', 'rb'))
target_lstm = TARGET_LSTM(vocab_size, BATCH_SIZE, EMB_DIM, HIDDEN_DIM,
SEQ_LENGTH, START_TOKEN,
target_params) # The oracle model
discriminator = Discriminator(sequence_length=20,
num_classes=2,
vocab_size=vocab_size,
embedding_size=dis_embedding_dim,
filter_sizes=dis_filter_sizes,
num_filters=dis_num_filters,
l2_reg_lambda=dis_l2_reg_lambda)
config = tf.ConfigProto()
config.gpu_options.allow_growth = True
sess = tf.Session(config=config)
sess.run(tf.global_variables_initializer())
gen_data_loader.create_batches(positive_file, gen_flag=1)
log = open('save/experiment-log.txt', 'w')
# pre-train generator
print('Start pre-training...')
log.write('pre-training...\n')
for epoch in range(PRE_EPOCH_NUM):
loss = pre_train_epoch(sess, generator, gen_data_loader)
if epoch % 5 == 0:
generate_samples(sess, generator, BATCH_SIZE, generated_num,
eval_file)
likelihood_data_loader.create_batches(eval_file)
test_loss = target_loss(sess, target_lstm, likelihood_data_loader)
print('pre-train epoch ', epoch, 'test_loss ', test_loss)
buffer = 'epoch:\t' + str(epoch) + '\tnll:\t' + str(
test_loss) + '\n'
log.write(buffer)
print('Start pre-training discriminator...')
# Train 3 epoch on the generated data and do this for 50 times
for epoch in range(50):
generate_samples(sess, generator, BATCH_SIZE, generated_num,
negative_file)
dis_data_loader.load_train_data(positive_file, negative_file)
print("Epoch : ", epoch)
for _ in range(3):
dis_data_loader.reset_pointer()
for it in range(dis_data_loader.num_batch):
x_batch, y_batch = dis_data_loader.next_batch()
feed = {
discriminator.input_x: x_batch,
discriminator.input_y: y_batch,
discriminator.dropout_keep_prob: dis_dropout_keep_prob
}
_ = sess.run(discriminator.train_op, feed)
rollout = ROLLOUT(generator, 0.8)
saver = tf.train.Saver()
print(
'#########################################################################'
)
print('Start Adversarial Training...')
log.write('adversarial training...\n')
for total_batch in range(TOTAL_BATCH):
# Train the generator for one step
for it in range(1):
samples = generator.generate(sess)
rewards = rollout.get_reward(sess, samples, 16, discriminator)
feed = {generator.x: samples, generator.rewards: rewards}
_ = sess.run(generator.g_updates, feed_dict=feed)
# Test
if total_batch % 5 == 0 or total_batch == TOTAL_BATCH - 1:
generate_samples(sess, generator, BATCH_SIZE, generated_num,
eval_file)
likelihood_data_loader.create_batches(eval_file, gen_flag=0)
test_loss = target_loss(sess, target_lstm, likelihood_data_loader)
buffer = 'epoch:\t' + str(total_batch) + '\tnll:\t' + str(
test_loss) + '\n'
print('total_batch: ', total_batch, 'test_loss: ', test_loss)
log.write(buffer)
# Update roll-out parameters
rollout.update_params()
# Train the discriminator
for _ in range(5):
generate_samples(sess, generator, BATCH_SIZE, generated_num,
negative_file)
dis_data_loader.load_train_data(positive_file, negative_file)
for _ in range(3):
dis_data_loader.reset_pointer()
for it in range(dis_data_loader.num_batch):
x_batch, y_batch = dis_data_loader.next_batch()
feed = {
discriminator.input_x: x_batch,
discriminator.input_y: y_batch,
discriminator.dropout_keep_prob: dis_dropout_keep_prob
}
_ = sess.run(discriminator.train_op, feed)
if total_batch % 5 == 0:
save_path = saver.save(sess,
"save/checkpoints/model.ckpt",
global_step=5)
log.close()
def __init__(self, model, input_filepath):
Generator.__init__(self, model, input_filepath)
label_file_path=label_file_path,
shuffle=True,
seq_length=seq_length,
batch_size=batch_size,
training=True)
# 设置路径
current_time = datetime.now().strftime('%Y%m%d-%H%M%S')
pretrain_checkpoint_dir = fr'training_checkpoints\{cell_line}\{a}'
# 加载模型
gen = Generator(dataloader=dataloader,
vocab=vocab,
batch_size=batch_size,
embedding_dim=embedding_dim,
seq_length=seq_length,
checkpoint_dir=pretrain_checkpoint_dir,
rnn_units=gen_rnn_units,
start_token=0,
learning_rate=learning_rate)
# 加载权重
gen.load_weights()
# 生成数据
# fake_samples = gen.generate(gen_seq_len)
# genned_sentences = vocab.extract_seqs(fake_samples)
# print("生成完毕，写入文件...")
#
# # 保存到本地
# save_fake_samples_filepath = './saved_fake_samples/{}.txt'.format(current_time)
def domains_to_generate(self):
return filter(ObjCGenerator.should_generate_domain_event_dispatcher_filter(self.model()), Generator.domains_to_generate(self))
def generate_domain(self, domain):
lines = []
args = {'domain': domain.domain_name}
lines.append('// %(domain)s.' % args)
version = self.version_for_domain(domain)
type_declarations = self.type_declarations_for_domain(domain)
commands = self.commands_for_domain(domain)
events = self.events_for_domain(domain)
has_async_commands = any([command.is_async for command in commands])
if len(events) > 0 or has_async_commands:
lines.append(
'InspectorBackend.register%(domain)sDispatcher = InspectorBackend.registerDomainDispatcher.bind(InspectorBackend, "%(domain)s");'
% args)
if isinstance(version, int):
version_args = {'domain': domain.domain_name, 'version': version}
lines.append(
'InspectorBackend.registerVersion("%(domain)s", %(version)s);'
% version_args)
for declaration in type_declarations:
if declaration.type.is_enum():
enum_args = {
'domain':
domain.domain_name,
'enumName':
declaration.type_name,
'enumMap':
", ".join([
'%s: "%s"' %
(Generator.stylized_name_for_enum_value(enum_value),
enum_value)
for enum_value in declaration.type.enum_values()
])
}
lines.append(
'InspectorBackend.registerEnum("%(domain)s.%(enumName)s", {%(enumMap)s});'
% enum_args)
def is_anonymous_enum_member(type_member):
return isinstance(type_member.type,
EnumType) and type_member.type.is_anonymous
for _member in filter(is_anonymous_enum_member,
declaration.type_members):
enum_args = {
'domain':
domain.domain_name,
'enumName':
'%s%s' %
(declaration.type_name, ucfirst(_member.member_name)),
'enumMap':
", ".join([
'%s: "%s"' %
(Generator.stylized_name_for_enum_value(enum_value),
enum_value)
for enum_value in _member.type.enum_values()
])
}
lines.append(
'InspectorBackend.registerEnum("%(domain)s.%(enumName)s", {%(enumMap)s});'
% enum_args)
def is_anonymous_enum_param(param):
return isinstance(param.type, EnumType) and param.type.is_anonymous
for event in events:
for param in filter(is_anonymous_enum_param,
event.event_parameters):
enum_args = {
'domain':
domain.domain_name,
'enumName':
'%s%s' %
(ucfirst(event.event_name), ucfirst(param.parameter_name)),
'enumMap':
", ".join([
'%s: "%s"' %
(Generator.stylized_name_for_enum_value(enum_value),
enum_value)
for enum_value in param.type.enum_values()
])
}
lines.append(
'InspectorBackend.registerEnum("%(domain)s.%(enumName)s", {%(enumMap)s});'
% enum_args)
event_args = {
'domain':
domain.domain_name,
'eventName':
event.event_name,
'params':
", ".join([
'"%s"' % parameter.parameter_name
for parameter in event.event_parameters
])
}
lines.append(
'InspectorBackend.registerEvent("%(domain)s.%(eventName)s", [%(params)s]);'
% event_args)
for command in commands:
def generate_parameter_object(parameter):
optional_string = "true" if parameter.is_optional else "false"
pairs = []
pairs.append('"name": "%s"' % parameter.parameter_name)
pairs.append(
'"type": "%s"' %
Generator.js_name_for_parameter_type(parameter.type))
pairs.append('"optional": %s' % optional_string)
return "{%s}" % ", ".join(pairs)
command_args = {
'domain':
domain.domain_name,
'commandName':
command.command_name,
'callParams':
", ".join([
generate_parameter_object(parameter)
for parameter in command.call_parameters
]),
'returnParams':
", ".join([
'"%s"' % parameter.parameter_name
for parameter in command.return_parameters
]),
}
lines.append(
'InspectorBackend.registerCommand("%(domain)s.%(commandName)s", [%(callParams)s], [%(returnParams)s]);'
% command_args)
activate_args = {
'domain':
domain.domain_name,
'availability':
json.dumps(domain.availability) if domain.availability else '',
}
if domain.availability:
lines.append(
'InspectorBackend.activateDomain("%(domain)s", %(availability)s);'
% activate_args)
else:
lines.append('InspectorBackend.activateDomain("%(domain)s");' %
activate_args)
return "\n".join(lines)
