def network_manager_ignore(self, interface, mac_address):
interface_ignore_string = ""
for iface in self.interfaces_to_ignore:
interface_ignore_string += ",interface-name:{}".format(iface)
try:
ignore_config = dedent("""
[main]
plugins=ifupdown,keyfile
[ifupdown]
managed=false
[keyfile]
unmanaged-devices=mac:{mac_address},interface-name:{interface}{ignore_interfaces}
""".format(
mac_address=mac_address,
interface=interface,
ignore_interfaces=interface_ignore_string))
self.cleanup_filehandler()
self.file_handler = FileHandler(self.nm_config_file)
self.file_handler.write(ignore_config)
except Exception as e:
print e
return False
return True
def network_manager_ignore(self, interface, mac_address, virtInterfaces):
if virtInterfaces > 0:
mac_address = mac_address[:-1] + "0"
interface_ignore_string = interface
for i in range(virtInterfaces - 1):
interface_ignore_string += ",mac:{}".format(mac_address[:-1] +
str(i + 1))
interface_ignore_string += ",interface-name:{}_{}".format(
interface, i)
try:
ignore_config = dedent("""
[main]
plugins=ifupdown,keyfile
[ifupdown]
managed=false
[keyfile]
unmanaged-devices=mac:{mac_address},interface-name:{ignore_interfaces}
""".format(mac_address=mac_address,
ignore_interfaces=interface_ignore_string))
self.cleanup_filehandler()
self.file_handler = FileHandler(self.nm_config_file)
self.file_handler.write(ignore_config)
except Exception as e:
print e
return False
return True
def main():
log = get_logger('Tagger')
app = QApplication(sys.argv)
file_handler = FileHandler()
start_settings = file_handler.load_settings()
qProcess = GUI(start_settings)
EXIT_CODE = app.exec_()
log.info('Saving and closing...')
# Note: Use modified settings the GUI changes after use.
file_handler.save_settings(qProcess.settings)
def __init__(self, canvas, folder):
self.image_index = 1
self.canvas = canvas
self.folder = folder
self.fileCont = FileHandler(folder)
self.picture_count = self.fileCont.count_pics(folder)
self.activeRect = self.canvas.create_rectangle(0, 0, 0, 0, fill='red')
self.canvas.bind('<Button-1>', self.click_callback)
self.canvas.bind('<ButtonRelease-1>', self.clickUp_callback)
self.canvas.bind('<B1-Motion>', self.motion_callback)
self.canvas.bind('<Key>', self.key_callback)
self.canvas.focus_set()
self.pic = self.draw_picture()
def network_manager_ignore(self, interface, mac_address, virtInterfaces = 0):
if virtInterfaces > 0:
mac_address = mac_address[:-1] + "0"
interface_ignore_string = interface
for i in range(virtInterfaces):
interface_ignore_string += ",mac:{}".format(mac_address[:-1] + str(i + 1))
interface_ignore_string += ",interface-name:{}_{}".format(interface, i)
try:
ignore_config = dedent( """
[main]
plugins=ifupdown,keyfile
[ifupdown]
managed=false
[keyfile]
unmanaged-devices=mac:{mac_address},interface-name:{ignore_interfaces}
""".format( mac_address=mac_address,
ignore_interfaces=interface_ignore_string
))
self.cleanup_filehandler()
self.file_handler = FileHandler(self.nm_config_file)
self.file_handler.write(ignore_config)
self.netcards[interface].set_managed(True)
except Exception as e:
print e
return False
return True
def __init__(self, filename):
'''
Initializes the instances of the class.
:Parameter:
ontology: filename of the ontology
'''
self.addedindividualsCount = 0
self.addedclassesCount = 0
self.addedaxiomsCount = 0
self.addedassertionsCount = 0
self._ontologyClosureTag = "</Ontology>\n"
self._ontology = FileHandler(filename)
self._append_string = ""
if not self._ontology.exists():
raise Exception(
"[OWLOntology] ERROR: {} file does not exists.".format(
filename))
def createBackup(self, filename):
'''
This function create a backup of the current ontology, there new axioms
will be written.
:Parameters:
filename: filename of the backup file.
:Returns:
self._backup: instance of FileHandler
'''
self._backup = FileHandler(filename)
ontology = self._ontology.readAll()
index = len(ontology) - 1
while ontology[index] != self._ontologyClosureTag:
index = index - 1
del ontology[index]
self._backup.writeAll(ontology)
return self._backup
'```shell\n', '```bash\n')
self.word_count()
if os.path.isfile(self.target_file_path):
self.get_old_content()
if not self.compare_content():
self.migration_log_handler.info(
f'文件 {self.file_rel_path} 有更新内容')
self.file_write()
elif os.path.isdir(target_file_dir):
self.file_write()
else:
os.makedirs(target_file_dir)
self.file_write()
if __name__ == '__main__':
print(22222222222222222222222)
from utils import PathHandler, FileHandler
test_dir = settings.TEST_DIR
f = FileHandler.FileHandler()
p = PathHandler.PathHandler()
p_list = []
p.get_md_files(test_dir, p_list)
# print(p_list)
for p in p_list:
content = f.single_md_operation(p, test_dir, p_list)
m = MigrationHandler(content, p, settings.TEST_DIR,
settings.TARGET_TEST_DIR)
m.migrate()
break
class NetworkManager(object):
def __init__(
self,
networkmanager_config_path='/etc/NetworkManager/NetworkManager.conf'
):
self.interfaces = pyw.interfaces()
self.netcards = {
interface: NetworkCard(interface)
for interface in pyw.winterfaces()
}
self.nm_config_file = networkmanager_config_path
self.file_handler = None
def iptables_redirect(self, from_if, to_if):
card = self.get_netcard(from_if) # Get NetCard object
if card != None:
NetUtils().flush_iptables()
NetUtils().accept_forwarding(from_if)
NetUtils().set_postrouting_interface(to_if)
NetUtils().add_routing_rule(card.get_subnet(), card.get_mask(),
card.get_ip())
def configure_interface(self,
interface,
ip,
netmask=None,
broadcast=None,
mtu=1800):
card = self.get_netcard(interface) # Get NetCard object
if card != None:
card.ifconfig(ip, netmask, broadcast)
card.set_mtu_size(mtu)
def set_mac_and_unmanage(self, interface, mac, retry=False):
card = self.get_netcard(interface)
# Runs at least once, if retry is flagged
# it will try to reset the interface and repeat the process
while (1):
if card != None:
if not card.set_mac(mac):
return False
if not self.network_manager_ignore(interface, mac):
return False
os.system("service NetworkManager restart"
) # Restarting NetworkManager service
if pyw.macget(card.card) == mac:
return True
if not retry:
break
print "[-] Unable to set mac and unmanage, resetting interface and retrying."
retry = False
card = NetworkCard(interface)
if card.get_mode() != 'managed':
card.set_mode('managed')
return False
# NetworkManager is usually a conflicting process,
# but we can configure it to ignore the interface
# we use as access point or to sniff packets
def network_manager_ignore(self, interface, mac_address):
try:
ignore_config = dedent("""
[main]
plugins=ifupdown,keyfile
[ifupdown]
managed=false
[keyfile]
unmanaged-devices=mac:{mac_address},interface-name:{interface}
""".format(mac_address=mac_address,
interface=interface))
self.cleanup_filehandler()
self.file_handler = FileHandler(self.nm_config_file)
self.file_handler.write(ignore_config)
except Exception as e:
print e
return False
return True
def get_netcard(self, interface):
netcard = None
try:
try:
netcard = self.netcards[interface]
except KeyError:
# Check if it was plugged in at runtime
self.netcards = {
interface: NetworkCard(interface)
for interface in pyw.winterfaces()
}
netcard = self.netcards[interface]
except KeyError:
print "[-] Interface: '{}' does not exist".format(interface)
return None
return netcard
def cleanup_filehandler(self):
if self.file_handler:
self.file_handler.restore_file()
self.file_handler = None
def reset_interfaces(self):
for card in self.netcards:
self.netcards[card].set_mac(self.netcards[card].original_mac)
self.netcards[card].set_mode('managed')
def cleanup(self):
NetUtils().flush_iptables()
self.cleanup_filehandler()
self.reset_interfaces()
class OWLOntology(object):
'''
This class occupies to insert additional axiom in the OWL ontology using
OWL/XML syntax. It requires an ontology written in OWL/XML syntax.
Every modifies are added into a backup ontology in order to keep original
version of the given ontology.
'''
def __init__(self, filename):
'''
Initializes the instances of the class.
:Parameter:
ontology: filename of the ontology
'''
self.addedindividualsCount = 0
self.addedclassesCount = 0
self.addedaxiomsCount = 0
self.addedassertionsCount = 0
self._ontologyClosureTag = "</Ontology>\n"
self._ontology = FileHandler(filename)
self._append_string = ""
if not self._ontology.exists():
raise Exception(
"[OWLOntology] ERROR: {} file does not exists.".format(
filename))
def close(self):
'''
This function finalizes the ontology backup.
'''
self.printcounts()
if self._backup and self._append_string:
print(sys.getsizeof(self._append_string))
self._backup.append(self._append_string)
self._backup.append(self._ontologyClosureTag)
self._ontology = self._backup
self._backup = None
def append_string(self, string):
if sys.getsizeof(self._append_string) < 1000000:
self._append_string += string
else:
self._backup.append(self._append_string)
self._backup.append(string)
self._append_string = ""
def printcounts(self):
logging.warning("METRICS:")
logging.warning("The process added " +
str(self.addedindividualsCount) +
" individuals to the ontology.")
logging.warning("The process added " + str(self.addedclassesCount) +
" classes to the ontology.")
logging.warning("The process added " + str(self.addedaxiomsCount) +
" axioms to the ontology.")
logging.warning("The process added " + str(self.addedassertionsCount) +
" assertions to the ontology.")
def createBackup(self, filename):
'''
This function create a backup of the current ontology, there new axioms
will be written.
:Parameters:
filename: filename of the backup file.
:Returns:
self._backup: instance of FileHandler
'''
self._backup = FileHandler(filename)
ontology = self._ontology.readAll()
index = len(ontology) - 1
while ontology[index] != self._ontologyClosureTag:
index = index - 1
del ontology[index]
self._backup.writeAll(ontology)
return self._backup
def fuzzyLabelAnnotation(self, fuzzyowl):
'''
:Parameters:
fuzzyowl: .
:Returns:
annotation: annotation property in string form.
'''
annotation = (
"\n\t\t<Annotation>"
"\n\t\t\t<AnnotationProperty IRI=\"#fuzzyLabel\"/>"
"\n\t\t\t<Literal datatypeIRI=\"&rdf;PlainLiteral\">{}</Literal>"
"\n\t\t</Annotation>").format(escape(fuzzyowl, quote=True))
return annotation
def addAxiom(self, axiom):
'''
This function adds a general axiom expressed in OWL/XML syntax.
:Parameters:
axiom: the axiom in string format.
'''
self.addedaxiomsCount += 1
self.append_string(axiom)
def addIndividual(self, individual, classId=None, annotation=""):
'''
This function adds a single individual into the ontology.
:Parameters:
individual: identifier of the individual.
classId: identifier of the class where the individual is an instance.
'''
axiom = ""
if annotation:
annotation = self.fuzzyLabelAnnotation(annotation)
if classId:
axiom = ("\n\t<ClassAssertion>"
"{0}"
"\n\t\t<Class IRI=\"#{1}\"/>"
"\n\t\t<NamedIndividual IRI=\"#{2}\"/>"
"\n\t</ClassAssertion>\n").format(annotation, classId,
individual)
else:
axiom = ("\n\t<Declaration>"
"{0}"
"\n\t\t<NamedIndividual IRI=\"{1}\"/>"
"\n\t</Declaration>\t").format(annotation, individual)
self.addedindividualsCount += 1
self.addedassertionsCount += 1
self.append_string(axiom)
def addDifferentIndividuals(self, first, second):
'''
This function adds an axiom that states two individuals are different.
:Parameters:
first: identifier of first individual
second: identifier of second individual
'''
different = ("\n\t<DifferentIndividuals>"
"\n\t\t<NamedIndividual IRI=\"#{0}\"/>"
"\n\t\t<NamedIndividual IRI=\"#{1}\"/>"
"\n\t</DifferentIndividuals>\n").format(first, second)
self.addedassertionsCount += 1
self.append_string(different)
def addClass(self, className, individuals=None, annotation=""):
'''
This function adds a new class into the ontology. If individuals
parameter is set to None, a declaration of the class without
individuals will be added.
:Parameters:
className: identifier of the new class.
individuals: list of identifiers of class individuals.
annotation: annotation assertion to apply at this axiom.
'''
if annotation:
annotation = self.fuzzyLabelAnnotation(annotation)
declaration = ("\n\t<Declaration>"
"{0}"
"\n\t\t<Class IRI=\"#{1}\"/>"
"\n\t</Declaration>\n").format(annotation, className)
self.addedaxiomsCount += 1
self.addedclassesCount += 1
self.append_string(declaration)
if individuals:
for individual in individuals:
self.addIndividual(individual, className)
def classAxiom(self, classId):
'''
This function defines a class axiom.
:Parameters:
classId: identifier of the class.
:Return:
the class axiom in string form.
'''
return "<Class IRI=\"#{}\"/>".format(classId)
def addSubClass(self, subClass, superClass):
'''
This function creates a sub class of an existent class of the ontology.
:Parameters:
subClass: identifier of the sub class.
superClass: identifier of the super class
'''
subclassaxiom = ("\n\t<SubClassOf>"
"\n\t\t<Class IRI=\"#{0}\"/>"
"\n\t\t<Class IRI=\"#{1}\"/>"
"\n\t</SubClassOf>\n").format(subClass, superClass)
self.addedaxiomsCount += 1
self.append_string(subclassaxiom)
def addDisjointClasses(self, first, second):
'''
This function adds an axiom which define two disjoint classes.
:Parameters:
first: identifier of a disjoint class.
second: identifier of a disjoint class.
'''
disjoint = ("\n\t<DisjointClasses>"
"\n\t\t<Class IRI=\"#{0}\"/>"
"\n\t\t<Class IRI\"#{1}\"/>"
"\n\t</DisjointClasses>\n").format(first, second)
self.addedaxiomsCount += 1
self.append_string(disjoint)
def addObjectProperty(self, objProperty, first=None, second=None):
'''
This function adds an object property between two classes. If first and
second parameters are set to None, a declaration axiom of property will
be added.
:Parameters:
first: identifier of the domain class.
second: identifier of the range class.
'''
objectProperty = ""
if first and second:
objectProperty = ("\n\t<ObjectPropertyAssertion>"
"\n\t\t<ObjectProperty IRI=\"#{0}\"/>"
"\n\t\t<NamedIndividual IRI=\"#{1}\"/>"
"\n\t\t<NamedIndividual IRI=\"#{2}\"/>"
"\n\t</ObjectPropertyAssertion>\n").format(
objProperty, first, second)
else:
objectProperty = ("\n\t<Declaration>"
"\n\t\t<ObjectProperty IRI=\"#{}\"/>"
"\n\t</Declaration>\n").format(objProperty)
self.addedassertionsCount += 1
self.append_string(objectProperty)
def addFunctionalObjectProperty(self, objProperty):
'''
This function adds an axiom that states a object property is functional.
:Parameters:
objProperty: identifier of object property.
'''
functionalProperty = (
"\n\t<FunctionalObjectProperty>"
"\n\t\t<ObjectProperty IRI=\"#{}\"/>"
"\n\t</FunctionalObjectProperty>\n").format(objProperty)
self.append_string(functionalProperty)
def addObjectPropertyDomain(self, objProperty, domainClass):
propertyRestriction = ("\n\t<ObjectPropertyDomain>"
"\n\t\t<ObjectProperty IRI=\"#{0}\"/>"
"\n\t\t<Class IRI=\"#{1}\"/>"
"\n\t</ObjectPropertyDomain>").format(
objProperty, domainClass)
self.append_string(propertyRestriction)
def addObjectPropertyRange(self, objProperty, rangeClass):
'''
This function adds a property domain and range restriction to an object
property.
:Parameters:
objProperty: identifier of the object property.
domainClass: identifier of the domain class.
rangeClass: identifier of the range class.
'''
propertyRestriction = ("\n\t<ObjectPropertyDomain>"
"\n\t\t<ObjectProperty IRI=\"#{0}\"/>"
"\n\t\t<Class IRI=\"#{1}\"/>"
"\n\t</ObjectPropertyDomain>").format(
objProperty, rangeClass)
self.append_string(propertyRestriction)
def addDatatypeProperty(self,
dataProperty,
individual=None,
datatype=None,
value=None):
'''
This class adds a datatype property between individuals and datatypes.
If individual, datatype and value parameters are set to None,
a declaration axiom of property will be added.
:Parameters:
dataProperty: identifier of the datatype property.
individual: indentifier of the individual.
datatype: identifier of the datatype.
value: datatype value.
'''
datatypeProperty = ""
if individual and datatype and value:
datatypeProperty = (
"\n\t<DataPropertyAssertion>"
"\n\t\t<DataProperty IRI=\"#{0}\"/>"
"\n\t\t<NamedIndividual IRI=\"#{1}\"/>"
"\n\t\t<Literal datatypeIRI=\"&xsd;{2}\">{3}</Literal>"
"\n\t</DataPropertyAssertion>\n").format(
dataProperty, individual, datatype, value)
else:
datatypeProperty = ("\n\t<Declaration>"
"\n\t\t<DataProperty IRI=\"#{}\"/>"
"\n\t</Declaration>\n").format(dataProperty)
self.addedassertionsCount += 1
self.append_string(datatypeProperty)
def addFunctionalDatatypeProperty(self, dataProperty):
'''
This function adds an axiom that states a datatype property is functional.
:Parameters:
dataProperty: identifier of datatype property.
'''
functionalProperty = (
"\n\t<FunctionalDataProperty>"
"\n\t\t<DataProperty IRI=\"#{}\"/>"
"\n\t</FunctionalDataProperty>\n").format(dataProperty)
self.append_string(functionalProperty)
def addDatatypePropertyDomain(self, dataProperty, domainClass):
'''
This function adds a property domain restriction to datatype property.
:Parameter:
dataProperty: identifier of the datatype property.
domainClass: identifier of the domain class.
'''
propertyRestriction = ("\n\t<DataPropertyDomain>"
"\n\t\t<DataProperty IRI=\"#{0}\"/>"
"\n\t\t<Class IRI=\"#{1}\"/>"
"\n\t</DataPropertyDomain>").format(
dataProperty, domainClass)
self.append_string(propertyRestriction)
def addDatatypePropertyRange(self,
dataProperty,
datatype="",
facetRestriction=""):
'''
This function adds a property range restriction to datatype property.
:Parameter:
dataProperty: identifier of the datatype property.
datatype: identifier of datatype.
'''
if datatype:
axiom = "\n\t\t<Datatype IRI=\"&xsd;{}\"/>".format(datatype)
elif facetRestriction:
axiom = facetRestriction
propertyRestriction = ("\n\t<DataPropertyRange>"
"\n\t\t<DataProperty IRI=\"#{0}\"/>"
"{1}"
"\n\t</DataPropertyRange>\n").format(
dataProperty, axiom)
self.append_string(propertyRestriction)
def addDatatypeDefinition(self,
dataDefinition,
facetRestriction,
annotation=""):
'''
This functions add a datatype definition in order to create a new
datatype to represent a range of data.
:Parameters:
dataDefinition: identifier of new datatype to define.
datatype: identifier of datatype used to represent the dataset.
facetRestriction: maximum value of dataset.
annotation: annotation in string format.
'''
if annotation:
annotation = self.fuzzyLabelAnnotation(annotation)
definition = ("\n\t<DatatypeDefinition>"
"{0}"
"\n\t\t<Datatype IRI=\"#{1}\"/>"
"{2}"
"\n\t</DatatypeDefinition>\n").format(
annotation, dataDefinition, facetRestriction)
self.append_string(definition)
def datatypeFacetRestrictionAxiom(self, datatype, firstFacet, firstValue,
secondFacet, secondValue):
'''
This function adds a facet restriction to a datatype in order to
define a range of allowed values.
:Parameters:
datatype: identifier of datatype.
firstFacet: identifier of first facet restriction.
firstValue: first literal datatype value.
secondFacet: identifier of second facet restriction.
secondValue: second literal datatype value.
:Return:
facet restriction in string format.
'''
facetRestriction = (
"\n\t\t<DatatypeRestriction>"
"\n\t\t\t<Datatype IRI=\"&xsd;{0}\"/>"
"\n\t\t\t<FacetRestriction facet=\"&xsd;{1}\">"
"\n\t\t\t\t<Literal datatypeIRI=\"&xsd;{0}\">{2}</Literal>"
"\n\t\t\t</FacetRestriction>"
"\n\t\t\t<FacetRestriction facet=\"&xsd;{3}\">"
"\n\t\t\t\t<Literal datatypeIRI=\"&xsd;{0}\">{4}</Literal>"
"\n\t\t\t</FacetRestriction>"
"\n\t\t</DatatypeRestriction>").format(datatype, firstFacet,
firstValue, secondFacet,
secondValue)
return facetRestriction
def addEquivalentClasses(self, classId, axiom):
'''
This function adds an equivalent classes assertion into the ontology.
:Parameters:
classId: identifier of the class.
axiom: sub axiom of an equivalent class.
'''
equivalent = ("\n\t<EquivalentClasses>"
"\n\t\t<Class IRI=\"#{0}\"/>"
"{1}"
"\n\t</EquivalentClasses>\n").format(classId, axiom)
self.addedaxiomsCount += 1
self.append_string(equivalent)
def objectHasValue(self, objProperty, individual):
'''
This function defines an object property value.
:Parameters:
objProperty: identifier of the object property.
individual: identifier of the individual.
:Returns:
hasValue: ObjectHasValue axiom in string form.
'''
hasValue = ("\n\t\t<ObjectHasValue>"
"\n\t\t\t<ObjectProperty IRI=\"#{0}\"/>"
"\n\t\t\t<NamedIndividual IRI=\"#{1}\"/>"
"\n\t\t</ObjectHasValue>\n").format(
objProperty, individual)
return hasValue
def objectSomeValuesFromAxiom(self, objProperty, className):
'''
This function define an existential quantification for an object property.
:Parameters:
objProperty: identifier of object property.
className: identifier of the class.
:Returns:
someValues: existential quantification axiom in string form.
'''
someValues = ("\n\t\t\t<ObjectSomeValuesFrom>"
"\n\t\t\t\t<ObjectProperty IRI=\"#{0}\"/>"
"\n\t\t\t\t<Class IRI=\"#{1}\"/>"
"\n\t\t\t</ObjectSomeValuesFrom>\n").format(
objProperty, className)
return someValues
def addObjectSomeValueFrom(self, objProperty, domainClass, rangeClass):
'''
This function adds an existential quantification for an object property.
:Parameters:
objProperty: identifier of object property.
domainClass: identifier of domain class.
rangeClass: identifier of range class.
'''
someValuesAxiom = self.objectSomeValuesFromAxiom(
objProperty, rangeClass)
self.addedassertionsCount += 1
self.addEquivalentClasses(domainClass, someValuesAxiom)
def objectAllValuesFromAxiom(self, objProperty, className):
'''
This function define an universal quantification for an object property.
:Parameters:
objProperty: identifier of object property.
className: identifier of the class.
:Returns:
allValues: universal quantification axiom in string form.
'''
allValues = ("\n\t\t<ObjectAllValuesFrom>"
"\n\t\t\t<ObjectProperty IRI=\"#{0}\"/>"
"\n\t\t\t<Class IRI=\"#{1}\"/>"
"\n\t\t</ObjectAllValuesFrom>\n").format(
objProperty, className)
return allValues
def addObjectAllValuesFrom(self, objProperty, domainClass, rangeClass):
'''
This function adds an universal quantification for an object property.
:Parameters:
objProperty: identifier of object property.
domainClass: identifier of domain class.
rangeClass: identifier of range class.
'''
allValuesAxiom = self.objectAllValuesFromAxiom(objProperty, rangeClass)
self.addEquivalentClasses(domainClass, allValuesAxiom)
def objectUnionOfAxiom(self, classId, axiom):
'''
This function defines an union axiom.
:Parameters:
classId: identifier of a class.
axiom: sub axiom of union axiom.
:Returns:
union axiom in string form.
'''
union = ("\n\t\t<ObjectUnionOf>"
"\n\t\t\t<Class IRI=\"#{0}\"/>"
"\n\t\t\t{1}"
"\n\t\t</ObjectUnionOf>\n").format(classId, axiom)
return union
def addObjectUnionOf(self, mainClass, first, second):
'''
This function adds an axiom that specifies the equivalence of a class
with the union of two several classes.
:Parameters:
mainClass: identifier of the result class.
first: identifier of a class.
second: identifier of a class.
'''
s = self.classAxiom(second)
union = self.objectUnionOfAxiom(first, s)
self.addEquivalentClasses(mainClass, union)
def objectIntersectionOfAxiom(self, classId, axiom):
'''
This function defines an intersection axiom.
:Parameters:
classId: identifier of the class.
axiom: sub axiom to insert.
:Returns:
intersection axiom in string form.
'''
intersection = ("\n\t\t<ObjectIntersectionOf>"
"\n\t\t\t<Class IRI=\"#{0}\"/>"
"\n\t\t\t{1}"
"\n\t\t</ObjectIntersectionOf>\n").format(
classId, axiom)
return intersection
def addObjectIntersectionOf(self, mainClass, first, second):
'''
This function adds an axiom that specifies the equivalence of a class
with the intersection of two several classes.
:Parameters:
mainClass: identifier of the result class.
first: identifier of a class.
second: identifier of a class.
'''
f = self.classAxiom(first)
s = self.classAxiom(second)
intersection = self.objectIntersectionOfAxiom(f, s)
self.addEquivalentClasses(mainClass, intersection)
def objectComplementOfAxiom(self, axiom):
'''
This function defines an complement axiom.
:Parameters:
axiom: sub axiom to insert.
:Returns:
complement axiom in string form.
'''
complement = ("\n\t\t<ObjectComplementOf>"
"\n\t\t\t{}>"
"\n\t\t</ObjectUnionOf>\n").format(axiom)
return complement
def addObjectComplementOf(self, mainClass, classId):
'''
This function adds an axiom that specifies the equivalence of a class
with the complement of a given class.
:Parameters:
mainClass: identifier of the result class.
classId: identifier of a class.
'''
axiom = self.classAxiom(classId)
complement = self.objectComplementOfAxiom(axiom)
self.addEquivalentClass(mainClass, complement)
class NetworkManager(object):
def __init__(
self,
networkmanager_config_path='/etc/NetworkManager/NetworkManager.conf',
unmanaged_interfaces=[]):
self.interfaces = pyw.interfaces()
self.netcards = {
interface: NetworkCard(interface)
for interface in pyw.winterfaces()
}
self.nm_config_file = networkmanager_config_path
self.file_handler = None
self.unmanaged_interfaces_setup(unmanaged_interfaces)
def unmanaged_check(self, interface):
ok_status = ["unmanaged", "unavailable"]
for line in check_output(["nmcli", "dev"]).split("\n"):
try:
args = line.split()[:4]
iface, type, status, connection = args
if interface == iface:
return status in ok_status
else:
continue
except:
pass
return True
def unmanaged_interfaces_setup(self, unmanaged_interfaces):
for iface in unmanaged_interfaces:
if iface in self.interfaces:
self.set_mac_and_unmanage(iface,
self.netcards[iface].get_mac(), True)
def iptables_redirect(self, from_if, to_if):
card = self.get_netcard(from_if) # Get NetCard object
if card is not None:
NetUtils().accept_forwarding(from_if)
if not card.is_virtual():
NetUtils().set_postrouting_interface(to_if)
NetUtils().add_routing_rule(card.get_subnet(), card.get_mask(),
card.get_ip())
def configure_interface(self,
interface,
ip,
netmask=None,
broadcast=None,
mtu=1800):
NetUtils().interface_config(interface, ip, netmask, broadcast)
NetUtils().set_interface_mtu(interface, mtu)
def set_mac_and_unmanage(self,
interface,
mac,
retry=False,
virtInterfaces=0):
card = self.get_netcard(interface)
# Runs at least once, if retry is flagged
# it will try to reset the interface and repeat the process
while (True):
if card is not None:
if not card.set_mac(mac):
return False
if not self.unmanaged_check(interface) or virtInterfaces > 0:
if not self.network_manager_ignore(interface, mac,
virtInterfaces):
return False
os.system("service network-manager restart"
) # Restarting NetworkManager service
if pyw.macget(card.card) == mac:
return True
if not retry:
break
print "[-] Unable to set mac and unmanage, resetting interface and retrying."
retry = False
try:
card = NetworkCard(interface)
if card.get_mode() != 'managed':
card.set_mode('managed')
except:
return False
return False
# NetworkManager is usually a conflicting process,
# but we can configure it to ignore the interface
# we use as access point or to sniff packets
def network_manager_ignore(self, interface, mac_address, virtInterfaces=0):
if virtInterfaces > 0:
mac_address = mac_address[:-1] + "0"
interface_ignore_string = interface
for i in range(virtInterfaces):
interface_ignore_string += ",mac:{}".format(mac_address[:-1] +
str(i + 1))
interface_ignore_string += ",interface-name:{}_{}".format(
interface, i)
try:
ignore_config = dedent("""
[main]
plugins=ifupdown,keyfile
[ifupdown]
managed=false
[keyfile]
unmanaged-devices=mac:{mac_address},interface-name:{ignore_interfaces}
""".format(
mac_address=mac_address,
ignore_interfaces=interface_ignore_string))
self.cleanup_filehandler()
self.file_handler = FileHandler(self.nm_config_file)
self.file_handler.write(ignore_config)
self.netcards[interface].set_managed(True)
except Exception as e:
print e
return False
return True
def get_netcard(self, interface):
netcard = None
try:
try:
netcard = self.netcards[interface]
except KeyError:
# Check if it was plugged in at runtime
self.netcards = {
interface: NetworkCard(interface)
for interface in pyw.winterfaces()
}
netcard = self.netcards[interface]
except KeyError:
print "[-] Interface: '{}' does not exist".format(interface)
return None
return netcard
def cleanup_filehandler(self):
if self.file_handler:
self.file_handler.restore_file()
self.file_handler = None
os.system("service network-manager restart")
def reset_interfaces(self):
restart_services = False
for card in [
card for card in self.netcards
if not self.netcards[card].is_virtual
]:
self.netcards[card].set_mac(self.netcards[card].original_mac)
self.netcards[card].set_mode('managed')
if self.netcards[card].is_managed():
restart_services = True
if restart_services:
os.system("service networking restart")
os.system("service network-manager restart")
def cleanup(self):
NetUtils().flush_iptables()
self.cleanup_filehandler()
self.reset_interfaces()
class NetworkManager(object):
def __init__(self, networkmanager_config_path='/etc/NetworkManager/NetworkManager.conf', unmanaged_interfaces = []):
self.interfaces = pyw.interfaces()
self.netcards = { interface: NetworkCard(interface) for interface in pyw.winterfaces() }
self.nm_config_file = networkmanager_config_path
self.file_handler = None
self.unmanaged_interfaces_setup(unmanaged_interfaces)
def unmanaged_check(self, interface):
ok_status = ["unmanaged", "unavailable"]
for line in check_output(["nmcli", "dev"]).split("\n"):
try:
args = line.split()[:4]
iface, type, status, connection = args
if interface == iface:
return status in ok_status
else: continue
except: pass
return True
def unmanaged_interfaces_setup(self, unmanaged_interfaces):
for iface in unmanaged_interfaces:
if iface in self.interfaces:
self.set_mac_and_unmanage(iface, self.netcards[iface].get_mac(), True)
def iptables_redirect(self, from_if, to_if):
card = self.get_netcard(from_if) # Get NetCard object
if card is not None:
NetUtils().accept_forwarding(from_if)
if not card.is_virtual():
NetUtils().set_postrouting_interface(to_if)
NetUtils().add_routing_rule(card.get_subnet(), card.get_mask(), card.get_ip())
def configure_interface(self, interface, ip, netmask=None, broadcast=None, mtu=1800):
NetUtils().interface_config(interface, ip, netmask, broadcast)
NetUtils().set_interface_mtu(interface, mtu)
def set_mac_and_unmanage(self, interface, mac, retry = False, virtInterfaces = 0):
card = self.get_netcard(interface)
# Runs at least once, if retry is flagged
# it will try to reset the interface and repeat the process
while(True):
if card is not None:
if not card.set_mac(mac):
return False
if not self.unmanaged_check(interface) or virtInterfaces > 0:
if not self.network_manager_ignore(interface, mac, virtInterfaces):
return False
os.system("service network-manager restart") # Restarting NetworkManager service
if pyw.macget(card.card) == mac:
return True
if not retry:
break
print "[-] Unable to set mac and unmanage, resetting interface and retrying."
retry = False
try:
card = NetworkCard(interface)
if card.get_mode() != 'managed':
card.set_mode('managed')
except:
return False
return False
# NetworkManager is usually a conflicting process,
# but we can configure it to ignore the interface
# we use as access point or to sniff packets
def network_manager_ignore(self, interface, mac_address, virtInterfaces = 0):
if virtInterfaces > 0:
mac_address = mac_address[:-1] + "0"
interface_ignore_string = interface
for i in range(virtInterfaces):
interface_ignore_string += ",mac:{}".format(mac_address[:-1] + str(i + 1))
interface_ignore_string += ",interface-name:{}_{}".format(interface, i)
try:
ignore_config = dedent( """
[main]
plugins=ifupdown,keyfile
[ifupdown]
managed=false
[keyfile]
unmanaged-devices=mac:{mac_address},interface-name:{ignore_interfaces}
""".format( mac_address=mac_address,
ignore_interfaces=interface_ignore_string
))
self.cleanup_filehandler()
self.file_handler = FileHandler(self.nm_config_file)
self.file_handler.write(ignore_config)
self.netcards[interface].set_managed(True)
except Exception as e:
print e
return False
return True
def get_netcard(self, interface):
netcard = None
try:
try:
netcard = self.netcards[interface]
except KeyError:
# Check if it was plugged in at runtime
self.netcards = { interface: NetworkCard(interface) for interface in pyw.winterfaces() }
netcard = self.netcards[interface]
except KeyError:
print "[-] Interface: '{}' does not exist".format(interface)
return None
return netcard
def cleanup_filehandler(self):
if self.file_handler:
self.file_handler.restore_file()
self.file_handler = None
os.system("service network-manager restart")
def reset_interfaces(self):
restart_services = False
for card in [card for card in self.netcards if not self.netcards[card].is_virtual]:
self.netcards[card].set_mac(self.netcards[card].original_mac)
self.netcards[card].set_mode('managed')
if self.netcards[card].is_managed():
restart_services = True
if restart_services:
os.system("service networking restart")
os.system("service network-manager restart")
def cleanup(self):
NetUtils().flush_iptables()
self.cleanup_filehandler()
self.reset_interfaces()
class PicController:
rectList = []
activeRect = 0
bbList = []
active_type = 1
active_color = 'red'
folder = ''
fileCont = {}
picture_count = 0
x_size = 640
y_size = 480
image_index = 1
def __init__(self, canvas, folder):
self.image_index = 1
self.canvas = canvas
self.folder = folder
self.fileCont = FileHandler(folder)
self.picture_count = self.fileCont.count_pics(folder)
self.activeRect = self.canvas.create_rectangle(0, 0, 0, 0, fill='red')
self.canvas.bind('<Button-1>', self.click_callback)
self.canvas.bind('<ButtonRelease-1>', self.clickUp_callback)
self.canvas.bind('<B1-Motion>', self.motion_callback)
self.canvas.bind('<Key>', self.key_callback)
self.canvas.focus_set()
self.pic = self.draw_picture()
def draw_picture(self):
self.photo = self.fileCont.read_pic(self.image_index)
w = self.canvas.create_image((0, 0), image=self.photo, anchor='nw')
return w
def click_callback(self, event):
cx = self.canvas.canvasx(event.x)
cy = self.canvas.canvasx(event.y)
print('clicked at ', cx, cy)
self.activeRect = self.canvas.create_rectangle(cx,
cy,
cx,
cy,
fill=self.active_color,
stipple='gray25')
self.rectList.append(self.activeRect)
def clickUp_callback(self, event):
coords = self.canvas.coords(self.activeRect)
coords[2] = event.x
coords[3] = event.y
if self.check_box(coords):
a = BoxEntry()
a.coords = self.normalize_coords(coords)
a.pic = self.get_current_filename()
a.box_type = self.active_type
self.bbList.append(a)
self.canvas.coords(self.activeRect, coords)
def check_box(self, coords):
dx = coords[2] - coords[0]
dy = coords[1] - coords[3]
area = abs(dx * dy)
if area > 10:
return True
else:
return False
def get_current_filename(self):
numString = str(self.image_index)
while len(numString) < 3:
numString = '0' + numString
return 'img' + numString + '.jpg'
def normalize_coords(self, coords):
r_coords = [0, 0, 0, 0]
r_coords[0] = coords[0] / self.x_size
r_coords[1] = coords[1] / self.y_size
r_coords[2] = coords[2] / self.x_size
r_coords[3] = coords[3] / self.y_size
return r_coords
def motion_callback(self, event):
coords = self.canvas.coords(self.activeRect)
coords[2] = event.x
coords[3] = event.y
self.canvas.coords(self.activeRect, coords)
def key_callback(self, event):
print('pressed', event.char)
if event.char == " ":
if self.image_index != self.picture_count:
self.image_index = self.image_index + 1
else:
print('Done! No more pictures to annotate.')
self.fileCont.write_list(self.bbList, self.folder)
for ibox in self.rectList:
self.canvas.delete(ibox)
self.rectList = []
self.photo = self.fileCont.read_pic(self.image_index)
self.canvas.itemconfig(self.pic, image=self.photo)
elif event.char == 'q':
print(self.rectList)
for i in self.bbList:
print(i)
elif event.char == 'w':
self.fileCont.write_list(self.bbList, self.folder)
elif event.char == 'r':
self.rectList = []
self.bbList, self.image_index = self.fileCont.read_list(
self.folder)
print('loaded list up to picture %i' % self.image_index)
self.image_index = self.image_index + 1
self.photo = self.fileCont.read_pic(self.image_index)
self.canvas.itemconfig(self.pic, image=self.photo)
elif event.char == '1':
self.active_type = 1
self.active_color = 'red'
elif event.char == '2':
self.active_type = 2
self.active_color = 'blue'
elif event.char == '3':
self.active_type = 3
self.active_color = 'green'
elif event.char == '4':
self.active_type = 4
self.active_color = 'yellow'
elif event.char == '5':
self.active_type = 5
self.active_color = 'pink'
TODO: Should probably work out how to initialize the file handlers using a YAML config file
TODO: We don't really want other people to have to edit .py files unless necessary
"""
from utils import FileHandler
from pathlib import Path
from utils import logger
#ntuple_dir = Path("mnt/e/NTuples/TauClassifier")
#ntuple_dir = "C:\\Users\\benwi\\TauClassifier"
ntuple_dir = "E:\\NTuples\\TauClassifier"
#print(Path(f"{ntuple_dir}\\*Gammatautau*\\*.root"))
gammatautau_files = FileHandler(
"Gammatautau",
str(Path(f"{ntuple_dir}/*Gammatautau*/*.root")),
class_label=1)
#gammatautau_files = FileHandler("Gammatautau", "/mnt/e/NTuples/TauClassifier/*Gammatautau*/*.root", class_label=1)
#jz1_files = FileHandler("JZ1", "/mnt/e/NTuples/TauClassifier/*JZ1*/*.root", class_label=0)
jz1_files = FileHandler("JZ1",
str(Path(f"{ntuple_dir}/*JZ1*/*.root")),
class_label=0)
jz2_files = FileHandler("JZ2",
str(Path(f"{ntuple_dir}/*JZ2*/*.root")),
class_label=0)
jz3_files = FileHandler("JZ3",
str(Path(f"{ntuple_dir}/*JZ3*/*.root")),
class_label=0)
jz4_files = FileHandler("JZ4",
str(Path(f"{ntuple_dir}/*JZ4*/*.root")),
class_label=0)
