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<SYSTEM_TASK:> Remove accents from characters in the given string. <END_TASK> <USER_TASK:> Description: def remove_accents(value): """ Remove accents from characters in the given string. """
search = 'ΆΈΉΊΌΎΏάέήίόύώΪϊΐϋΰ' replace = 'ΑΕΗΙΟΥΩαεηιουωΙιιυυ' def replace_accented_character(match): matched = match.group(0) if matched in search: return replace[search.find(matched)] return matched return re.sub(r'[{0}]+'.format(search), replace_accented_charact...
<SYSTEM_TASK:> Calculates and returns a control digit for given list of digits basing on REGON standard. <END_TASK> <USER_TASK:> Description: def regon_checksum(digits): """ Calculates and returns a control digit for given list of digits basing on REGON standard. """
weights_for_check_digit = [8, 9, 2, 3, 4, 5, 6, 7] check_digit = 0 for i in range(0, 8): check_digit += weights_for_check_digit[i] * digits[i] check_digit %= 11 if check_digit == 10: check_digit = 0 return check_digit
<SYSTEM_TASK:> Calculates and returns a control digit for given list of digits basing on local REGON standard. <END_TASK> <USER_TASK:> Description: def local_regon_checksum(digits): """ Calculates and returns a control digit for given list of digits basing on local REGON standard. """
weights_for_check_digit = [2, 4, 8, 5, 0, 9, 7, 3, 6, 1, 2, 4, 8] check_digit = 0 for i in range(0, 13): check_digit += weights_for_check_digit[i] * digits[i] check_digit %= 11 if check_digit == 10: check_digit = 0 return check_digit
<SYSTEM_TASK:> Calculates and returns a control digit for given list of digits basing on NIP standard. <END_TASK> <USER_TASK:> Description: def company_vat_checksum(digits): """ Calculates and returns a control digit for given list of digits basing on NIP standard. """
weights_for_check_digit = [6, 5, 7, 2, 3, 4, 5, 6, 7] check_digit = 0 for i in range(0, 9): check_digit += weights_for_check_digit[i] * digits[i] check_digit %= 11 return check_digit
<SYSTEM_TASK:> Returns a dictionary. <END_TASK> <USER_TASK:> Description: def pydict(self, nb_elements=10, variable_nb_elements=True, *value_types): """ Returns a dictionary. :nb_elements: number of elements for dictionary :variable_nb_elements: is use variable number of elements for di...
if variable_nb_elements: nb_elements = self.randomize_nb_elements(nb_elements, min=1) return dict(zip( self.generator.words(nb_elements), self._pyiterable(nb_elements, False, *value_types), ))
<SYSTEM_TASK:> Calculate and return control digit for given list of digits based on <END_TASK> <USER_TASK:> Description: def checksum(digits): """ Calculate and return control digit for given list of digits based on ISO7064, MOD 11,10 standard. """
remainder = 10 for digit in digits: remainder = (remainder + digit) % 10 if remainder == 0: remainder = 10 remainder = (remainder * 2) % 11 control_digit = 11 - remainder if control_digit == 10: control_digit = 0 return control_digit
<SYSTEM_TASK:> Calculate checksum of Estonian personal identity code. <END_TASK> <USER_TASK:> Description: def checksum(digits): """Calculate checksum of Estonian personal identity code. Checksum is calculated with "Modulo 11" method using level I or II scale: Level I scale: 1 2 3 4 5 6 7 8 9 1 Level I...
sum_mod11 = sum(map(operator.mul, digits, Provider.scale1)) % 11 if sum_mod11 < 10: return sum_mod11 sum_mod11 = sum(map(operator.mul, digits, Provider.scale2)) % 11 return 0 if sum_mod11 == 10 else sum_mod11
<SYSTEM_TASK:> Optionally center the coord and pick a point within radius. <END_TASK> <USER_TASK:> Description: def coordinate(self, center=None, radius=0.001): """ Optionally center the coord and pick a point within radius. """
if center is None: return Decimal(str(self.generator.random.randint(-180000000, 180000000) / 1000000.0)).quantize( Decimal(".000001"), ) else: center = float(center) radius = float(radius) geo = self.generator.random.uniform(ce...
<SYSTEM_TASK:> Calculates and returns a control digit for given list of digits basing on PESEL standard. <END_TASK> <USER_TASK:> Description: def checksum(digits): """ Calculates and returns a control digit for given list of digits basing on PESEL standard. """
weights_for_check_digit = [9, 7, 3, 1, 9, 7, 3, 1, 9, 7] check_digit = 0 for i in range(0, 10): check_digit += weights_for_check_digit[i] * digits[i] check_digit %= 10 return check_digit
<SYSTEM_TASK:> Calculates and returns a month number basing on PESEL standard. <END_TASK> <USER_TASK:> Description: def calculate_month(birth_date): """ Calculates and returns a month number basing on PESEL standard. """
year = int(birth_date.strftime('%Y')) month = int(birth_date.strftime('%m')) + ((int(year / 100) - 14) % 5) * 20 return month
<SYSTEM_TASK:> Returns a random integer between two values. <END_TASK> <USER_TASK:> Description: def random_int(self, min=0, max=9999, step=1): """ Returns a random integer between two values. :param min: lower bound value (inclusive; default=0) :param max: upper bound value (inclusive;...
return self.generator.random.randrange(min, max + 1, step)
<SYSTEM_TASK:> Returns a list of random, non-unique elements from a passed object. <END_TASK> <USER_TASK:> Description: def random_choices(self, elements=('a', 'b', 'c'), length=None): """ Returns a list of random, non-unique elements from a passed object. If `elements` is a dictionary, the val...
return self.random_elements(elements, length, unique=False)
<SYSTEM_TASK:> Returns a list of random unique elements for the specified length. <END_TASK> <USER_TASK:> Description: def random_sample(self, elements=('a', 'b', 'c'), length=None): """ Returns a list of random unique elements for the specified length. Multiple occurrences of the same value inc...
return self.random_elements(elements, length, unique=True)
<SYSTEM_TASK:> Returns a random value near number. <END_TASK> <USER_TASK:> Description: def randomize_nb_elements( self, number=10, le=False, ge=False, min=None, max=None): """ Returns a random value near number. :param num...
if le and ge: return number _min = 100 if ge else 60 _max = 100 if le else 140 nb = int(number * self.generator.random.randint(_min, _max) / 100) if min is not None and nb < min: nb = min if max is not None and nb > min: nb = max ...
<SYSTEM_TASK:> Replaces all placeholders with random numbers and letters. <END_TASK> <USER_TASK:> Description: def bothify(self, text='## ??', letters=string.ascii_letters): """ Replaces all placeholders with random numbers and letters. :param text: string to be parsed :returns: string ...
return self.lexify(self.numerify(text), letters=letters)
<SYSTEM_TASK:> Calculate checksum of Norwegian personal identity code. <END_TASK> <USER_TASK:> Description: def checksum(digits, scale): """ Calculate checksum of Norwegian personal identity code. Checksum is calculated with "Module 11" method using a scale. The digits of the personal code are multipli...
chk_nbr = 11 - (sum(map(operator.mul, digits, scale)) % 11) if chk_nbr == 11: return 0 return chk_nbr
<SYSTEM_TASK:> Returns the century code for a given year <END_TASK> <USER_TASK:> Description: def _get_century_code(year): """Returns the century code for a given year"""
if 2000 <= year < 3000: separator = 'A' elif 1900 <= year < 2000: separator = '-' elif 1800 <= year < 1900: separator = '+' else: raise ValueError('Finnish SSN do not support people born before the year 1800 or after the year 2999') ...
<SYSTEM_TASK:> Returns a 10 digit Swedish SSN, "Personnummer". <END_TASK> <USER_TASK:> Description: def ssn(self, min_age=18, max_age=90): """ Returns a 10 digit Swedish SSN, "Personnummer". It consists of 10 digits in the form YYMMDD-SSGQ, where YYMMDD is the date of birth, SSS is a se...
def _luhn_checksum(number): def digits_of(n): return [int(d) for d in str(n)] digits = digits_of(number) odd_digits = digits[-1::-2] even_digits = digits[-2::-2] checksum = 0 checksum += sum(odd_digits) for d in...
<SYSTEM_TASK:> Generates a basic profile with personal informations <END_TASK> <USER_TASK:> Description: def simple_profile(self, sex=None): """ Generates a basic profile with personal informations """
SEX = ["F", "M"] if sex not in SEX: sex = self.random_element(SEX) if sex == 'F': name = self.generator.name_female() elif sex == 'M': name = self.generator.name_male() return { "username": self.generator.user_name(), "...
<SYSTEM_TASK:> Generates a complete profile. <END_TASK> <USER_TASK:> Description: def profile(self, fields=None, sex=None): """ Generates a complete profile. If "fields" is not empty, only the fields in the list will be returned """
if fields is None: fields = [] d = { "job": self.generator.job(), "company": self.generator.company(), "ssn": self.generator.ssn(), "residence": self.generator.address(), "current_location": (self.generator.latitude(), self.genera...
<SYSTEM_TASK:> Generate a safe datetime from a datetime.date or datetime.datetime object. <END_TASK> <USER_TASK:> Description: def new_datetime(d): """ Generate a safe datetime from a datetime.date or datetime.datetime object. """
kw = [d.year, d.month, d.day] if isinstance(d, real_datetime): kw.extend([d.hour, d.minute, d.second, d.microsecond, d.tzinfo]) return datetime(*kw)
<SYSTEM_TASK:> Generate a random United States Taxpayer Identification Number of the specified type. <END_TASK> <USER_TASK:> Description: def ssn(self, taxpayer_identification_number_type=SSN_TYPE): """ Generate a random United States Taxpayer Identification Number of the specified type. If no type is ...
if taxpayer_identification_number_type == self.ITIN_TYPE: return self.itin() elif taxpayer_identification_number_type == self.EIN_TYPE: return self.ein() elif taxpayer_identification_number_type == self.SSN_TYPE: # Certain numbers are invalid for United Sta...
<SYSTEM_TASK:> Takes two DateTime objects and returns a random datetime between the two <END_TASK> <USER_TASK:> Description: def date_time_between_dates( self, datetime_start=None, datetime_end=None, tzinfo=None): """ Takes two DateTime objects and returns...
if datetime_start is None: datetime_start = datetime.now(tzinfo) if datetime_end is None: datetime_end = datetime.now(tzinfo) timestamp = self.generator.random.randint( datetime_to_timestamp(datetime_start), datetime_to_timestamp(datetime_end), ...
<SYSTEM_TASK:> Gets a DateTime object for the current century. <END_TASK> <USER_TASK:> Description: def date_time_this_century( self, before_now=True, after_now=False, tzinfo=None): """ Gets a DateTime object for the current century. :param before...
now = datetime.now(tzinfo) this_century_start = datetime( now.year - (now.year % 100), 1, 1, tzinfo=tzinfo) next_century_start = datetime( min(this_century_start.year + 100, MAXYEAR), 1, 1, tzinfo=tzinfo) if before_now and after_now: return self.date...
<SYSTEM_TASK:> Gets a DateTime object for the decade year. <END_TASK> <USER_TASK:> Description: def date_time_this_decade( self, before_now=True, after_now=False, tzinfo=None): """ Gets a DateTime object for the decade year. :param before_now: inc...
now = datetime.now(tzinfo) this_decade_start = datetime( now.year - (now.year % 10), 1, 1, tzinfo=tzinfo) next_decade_start = datetime( min(this_decade_start.year + 10, MAXYEAR), 1, 1, tzinfo=tzinfo) if before_now and after_now: return self.date_time...
<SYSTEM_TASK:> Gets a DateTime object for the current year. <END_TASK> <USER_TASK:> Description: def date_time_this_year( self, before_now=True, after_now=False, tzinfo=None): """ Gets a DateTime object for the current year. :param before_now: inc...
now = datetime.now(tzinfo) this_year_start = now.replace( month=1, day=1, hour=0, minute=0, second=0, microsecond=0) next_year_start = datetime(now.year + 1, 1, 1, tzinfo=tzinfo) if before_now and after_now: return self.date_time_between_dates( t...
<SYSTEM_TASK:> Gets a DateTime object for the current month. <END_TASK> <USER_TASK:> Description: def date_time_this_month( self, before_now=True, after_now=False, tzinfo=None): """ Gets a DateTime object for the current month. :param before_now: ...
now = datetime.now(tzinfo) this_month_start = now.replace( day=1, hour=0, minute=0, second=0, microsecond=0) next_month_start = this_month_start + \ relativedelta.relativedelta(months=1) if before_now and after_now: return self.date_time_between_date...
<SYSTEM_TASK:> Gets a Date object for the current century. <END_TASK> <USER_TASK:> Description: def date_this_century(self, before_today=True, after_today=False): """ Gets a Date object for the current century. :param before_today: include days in current century before today :param aft...
today = date.today() this_century_start = date(today.year - (today.year % 100), 1, 1) next_century_start = date(this_century_start.year + 100, 1, 1) if before_today and after_today: return self.date_between_dates( this_century_start, next_century_start) ...
<SYSTEM_TASK:> Gets a Date object for the decade year. <END_TASK> <USER_TASK:> Description: def date_this_decade(self, before_today=True, after_today=False): """ Gets a Date object for the decade year. :param before_today: include days in current decade before today :param after_today: ...
today = date.today() this_decade_start = date(today.year - (today.year % 10), 1, 1) next_decade_start = date(this_decade_start.year + 10, 1, 1) if before_today and after_today: return self.date_between_dates(this_decade_start, next_decade_start) elif not before_toda...
<SYSTEM_TASK:> Gets a Date object for the current year. <END_TASK> <USER_TASK:> Description: def date_this_year(self, before_today=True, after_today=False): """ Gets a Date object for the current year. :param before_today: include days in current year before today :param after_today: in...
today = date.today() this_year_start = today.replace(month=1, day=1) next_year_start = date(today.year + 1, 1, 1) if before_today and after_today: return self.date_between_dates(this_year_start, next_year_start) elif not before_today and after_today: ret...
<SYSTEM_TASK:> Gets a Date object for the current month. <END_TASK> <USER_TASK:> Description: def date_this_month(self, before_today=True, after_today=False): """ Gets a Date object for the current month. :param before_today: include days in current month before today :param after_today...
today = date.today() this_month_start = today.replace(day=1) next_month_start = this_month_start + \ relativedelta.relativedelta(months=1) if before_today and after_today: return self.date_between_dates(this_month_start, next_month_start) elif not before...
<SYSTEM_TASK:> Generate a random date of birth represented as a Date object, <END_TASK> <USER_TASK:> Description: def date_of_birth(self, tzinfo=None, minimum_age=0, maximum_age=115): """ Generate a random date of birth represented as a Date object, constrained by optional miminimum_age and maxi...
if not isinstance(minimum_age, int): raise TypeError("minimum_age must be an integer.") if not isinstance(maximum_age, int): raise TypeError("maximum_age must be an integer.") if (maximum_age < 0): raise ValueError("maximum_age must be greater than or equa...
<SYSTEM_TASK:> Adds two or more dicts together. Common keys will have their values added. <END_TASK> <USER_TASK:> Description: def add_dicts(*args): """ Adds two or more dicts together. Common keys will have their values added. For example:: >>> t1 = {'a':1, 'b':2} >>> t2 = {'b':1, 'c':3} ...
counters = [Counter(arg) for arg in args] return dict(reduce(operator.add, counters))
<SYSTEM_TASK:> Returns the provider's name of the credit card. <END_TASK> <USER_TASK:> Description: def credit_card_provider(self, card_type=None): """ Returns the provider's name of the credit card. """
if card_type is None: card_type = self.random_element(self.credit_card_types.keys()) return self._credit_card_type(card_type).name
<SYSTEM_TASK:> Returns a valid credit card number. <END_TASK> <USER_TASK:> Description: def credit_card_number(self, card_type=None): """ Returns a valid credit card number. """
card = self._credit_card_type(card_type) prefix = self.random_element(card.prefixes) number = self._generate_number(self.numerify(prefix), card.length) return number
<SYSTEM_TASK:> Returns a random credit card type instance. <END_TASK> <USER_TASK:> Description: def _credit_card_type(self, card_type=None): """ Returns a random credit card type instance. """
if card_type is None: card_type = self.random_element(self.credit_card_types.keys()) elif isinstance(card_type, CreditCard): return card_type return self.credit_card_types[card_type]
<SYSTEM_TASK:> Returns a 11 digits Belgian SSN called "rijksregisternummer" as a string <END_TASK> <USER_TASK:> Description: def ssn(self): """ Returns a 11 digits Belgian SSN called "rijksregisternummer" as a string The first 6 digits represent the birthdate with (in order) year, month and day...
# see http://nl.wikipedia.org/wiki/Burgerservicenummer (in Dutch) def _checksum(digits): res = 97 - (digits % 97) return res # Generate a date (random) mydate = self.generator.date() # Convert it to an int elms = mydate.split("-") # Adjus...
<SYSTEM_TASK:> Determine validity of a Canadian Social Insurance Number. <END_TASK> <USER_TASK:> Description: def checksum(sin): """ Determine validity of a Canadian Social Insurance Number. Validation is performed using a modified Luhn Algorithm. To check the Every second digit of the SIN is doubled a...
# Remove spaces and create a list of digits. checksumCollection = list(sin.replace(' ', '')) checksumCollection = [int(i) for i in checksumCollection] # Discard the last digit, we will be calculating it later. checksumCollection[-1] = 0 # Iterate over the provided SIN and double every second...
<SYSTEM_TASK:> Produce a hostname with specified number of subdomain levels. <END_TASK> <USER_TASK:> Description: def hostname(self, levels=1): """ Produce a hostname with specified number of subdomain levels. >>> hostname() db-01.nichols-phillips.com >>> hostname(0) lap...
if levels < 1: return self.random_element(self.hostname_prefixes) + '-' + self.numerify('##') return self.random_element(self.hostname_prefixes) + '-' + self.numerify('##') + '.' + self.domain_name(levels)
<SYSTEM_TASK:> Produce an Internet domain name with the specified number of <END_TASK> <USER_TASK:> Description: def domain_name(self, levels=1): """ Produce an Internet domain name with the specified number of subdomain levels. >>> domain_name() nichols-phillips.com >>>...
if levels < 1: raise ValueError("levels must be greater than or equal to 1") if levels == 1: return self.domain_word() + '.' + self.tld() else: return self.domain_word() + '.' + self.domain_name(levels - 1)
<SYSTEM_TASK:> Produces a random IPv4 address or network with a valid CIDR <END_TASK> <USER_TASK:> Description: def _random_ipv4_address_from_subnet(self, subnet, network=False): """ Produces a random IPv4 address or network with a valid CIDR from within a given subnet. :param subnet: I...
address = str( subnet[self.generator.random.randint( 0, subnet.num_addresses - 1, )], ) if network: address += '/' + str(self.generator.random.randint( subnet.prefixlen, subnet.max_prefixlen, )) ...
<SYSTEM_TASK:> Exclude the list of networks from another list of networks <END_TASK> <USER_TASK:> Description: def _exclude_ipv4_networks(self, networks, networks_to_exclude): """ Exclude the list of networks from another list of networks and return a flat list of new networks. :param n...
for network_to_exclude in networks_to_exclude: def _exclude_ipv4_network(network): """ Exclude a single network from another single network and return a list of networks. Network to exclude comes from the outer scope. ...
<SYSTEM_TASK:> Produce a random IPv4 address or network with a valid CIDR. <END_TASK> <USER_TASK:> Description: def ipv4(self, network=False, address_class=None, private=None): """ Produce a random IPv4 address or network with a valid CIDR. :param network: Network address :param address...
if private is True: return self.ipv4_private(address_class=address_class, network=network) elif private is False: return self.ipv4_public(address_class=address_class, network=network) # if neither ...
<SYSTEM_TASK:> Returns a private IPv4. <END_TASK> <USER_TASK:> Description: def ipv4_private(self, network=False, address_class=None): """ Returns a private IPv4. :param network: Network address :param address_class: IPv4 address class (a, b, or c) :returns: Private IPv4 ...
# compute private networks from given class supernet = _IPv4Constants._network_classes[ address_class or self.ipv4_network_class() ] private_networks = [ subnet for subnet in _IPv4Constants._private_networks if subnet.overlaps(supernet) ] ...
<SYSTEM_TASK:> Returns a public IPv4 excluding private blocks. <END_TASK> <USER_TASK:> Description: def ipv4_public(self, network=False, address_class=None): """ Returns a public IPv4 excluding private blocks. :param network: Network address :param address_class: IPv4 address class (a, ...
# compute public networks public_networks = [_IPv4Constants._network_classes[ address_class or self.ipv4_network_class() ]] # exclude private and excluded special networks public_networks = self._exclude_ipv4_networks( public_networks, _IPv4C...
<SYSTEM_TASK:> Produce a random IPv6 address or network with a valid CIDR <END_TASK> <USER_TASK:> Description: def ipv6(self, network=False): """Produce a random IPv6 address or network with a valid CIDR"""
address = str(ip_address(self.generator.random.randint( 2 ** IPV4LENGTH, (2 ** IPV6LENGTH) - 1))) if network: address += '/' + str(self.generator.random.randint(0, IPV6LENGTH)) address = str(ip_network(address, strict=False)) return address
<SYSTEM_TASK:> This is a secure way to make a fake from another Provider. <END_TASK> <USER_TASK:> Description: def format(self, formatter, *args, **kwargs): """ This is a secure way to make a fake from another Provider. """
# TODO: data export? return self.get_formatter(formatter)(*args, **kwargs)
<SYSTEM_TASK:> Perform a forward execution and perform alias analysis. Note that this analysis is fast, light-weight, and by no <END_TASK> <USER_TASK:> Description: def _alias_analysis(self, mock_sp=True, mock_bp=True): """ Perform a forward execution and perform alias analysis. Note that this analysis ...
state = SimLightState( regs={ self._arch.sp_offset: self._arch.initial_sp, self._arch.bp_offset: self._arch.initial_sp + 0x2000, # TODO: take care of the relation between sp and bp }, temps={}, options={ 'mock_sp': moc...
<SYSTEM_TASK:> Prepare the address space with the data necessary to perform relocations pointing to the given symbol. <END_TASK> <USER_TASK:> Description: def prepare_function_symbol(self, symbol_name, basic_addr=None): """ Prepare the address space with the data necessary to perform relocations pointin...
if self.project.loader.main_object.is_ppc64_abiv1: if basic_addr is not None: pointer = self.project.loader.memory.unpack_word(basic_addr) return pointer, basic_addr pseudo_hookaddr = self.project.loader.extern_object.get_pseudo_addr(symbol_name) ...
<SYSTEM_TASK:> Set the fs register in the angr to the value of the fs register in the concrete process <END_TASK> <USER_TASK:> Description: def initialize_segment_register_x64(self, state, concrete_target): """ Set the fs register in the angr to the value of the fs register in the concrete process ...
_l.debug("Synchronizing fs segment register") state.regs.fs = self._read_fs_register_x64(concrete_target)
<SYSTEM_TASK:> Create a GDT in the state memory and populate the segment registers. <END_TASK> <USER_TASK:> Description: def initialize_gdt_x86(self,state,concrete_target): """ Create a GDT in the state memory and populate the segment registers. Rehook the vsyscall address using the real value i...
_l.debug("Creating fake Global Descriptor Table and synchronizing gs segment register") gs = self._read_gs_register_x86(concrete_target) gdt = self.generate_gdt(0x0, gs) self.setup_gdt(state, gdt) # Synchronize the address of vsyscall in simprocedures dictionary with the concre...
<SYSTEM_TASK:> Merges this node with the other, returning a new node that spans the both. <END_TASK> <USER_TASK:> Description: def merge(self, other): """ Merges this node with the other, returning a new node that spans the both. """
new_node = self.copy() new_node.size += other.size new_node.instruction_addrs += other.instruction_addrs # FIXME: byte_string should never be none, but it is sometimes # like, for example, patcherex test_cfg.py:test_fullcfg_properties if new_node.byte_string is None or o...
<SYSTEM_TASK:> Allocates a new array in memory and returns the reference to the base. <END_TASK> <USER_TASK:> Description: def new_array(state, element_type, size): """ Allocates a new array in memory and returns the reference to the base. """
size_bounded = SimSootExpr_NewArray._bound_array_size(state, size) # return the reference of the array base # => elements getting lazy initialized in the javavm memory return SimSootValue_ArrayBaseRef(heap_alloc_id=state.javavm_memory.get_new_uuid(), ...
<SYSTEM_TASK:> Convert recovered reaching conditions from claripy ASTs to ailment Expressions <END_TASK> <USER_TASK:> Description: def _convert_claripy_bool_ast(self, cond): """ Convert recovered reaching conditions from claripy ASTs to ailment Expressions :return: None """
if isinstance(cond, ailment.Expr.Expression): return cond if cond.op == "BoolS" and claripy.is_true(cond): return cond if cond in self._condition_mapping: return self._condition_mapping[cond] _mapping = { 'Not': lambda cond_: ailment.Ex...
<SYSTEM_TASK:> Extract goto targets from a Jump or a ConditionalJump statement. <END_TASK> <USER_TASK:> Description: def _extract_jump_targets(stmt): """ Extract goto targets from a Jump or a ConditionalJump statement. :param stmt: The statement to analyze. :return: A list of ...
targets = [ ] # FIXME: We are assuming all jump targets are concrete targets. They may not be. if isinstance(stmt, ailment.Stmt.Jump): targets.append(stmt.target.value) elif isinstance(stmt, ailment.Stmt.ConditionalJump): targets.append(stmt.true_target.value)...
<SYSTEM_TASK:> A somewhat faithful implementation of libc `malloc`. <END_TASK> <USER_TASK:> Description: def malloc(self, sim_size): """ A somewhat faithful implementation of libc `malloc`. :param sim_size: the amount of memory (in bytes) to be allocated :returns: the address of ...
raise NotImplementedError("%s not implemented for %s" % (self.malloc.__func__.__name__, self.__class__.__name__))
<SYSTEM_TASK:> A somewhat faithful implementation of libc `free`. <END_TASK> <USER_TASK:> Description: def free(self, ptr): #pylint:disable=unused-argument """ A somewhat faithful implementation of libc `free`. :param ptr: the location in memory to be freed """
raise NotImplementedError("%s not implemented for %s" % (self.free.__func__.__name__, self.__class__.__name__))
<SYSTEM_TASK:> A somewhat faithful implementation of libc `calloc`. <END_TASK> <USER_TASK:> Description: def calloc(self, sim_nmemb, sim_size): """ A somewhat faithful implementation of libc `calloc`. :param sim_nmemb: the number of elements to allocated :param sim_size: the siz...
raise NotImplementedError("%s not implemented for %s" % (self.calloc.__func__.__name__, self.__class__.__name__))
<SYSTEM_TASK:> A somewhat faithful implementation of libc `realloc`. <END_TASK> <USER_TASK:> Description: def realloc(self, ptr, size): """ A somewhat faithful implementation of libc `realloc`. :param ptr: the location in memory to be reallocated :param size: the new size desired for t...
raise NotImplementedError("%s not implemented for %s" % (self.realloc.__func__.__name__, self.__class__.__name__))
<SYSTEM_TASK:> Initialize register values within the state <END_TASK> <USER_TASK:> Description: def set_regs(self, regs_dump): """ Initialize register values within the state :param regs_dump: The output of ``info registers`` in gdb. """
if self.real_stack_top == 0 and self.adjust_stack is True: raise SimStateError("You need to set the stack first, or set" "adjust_stack to False. Beware that in this case, sp and bp won't be updated") data = self._read_data(regs_dump) rdata = re.split(b"\n", dat...
<SYSTEM_TASK:> Adjust bp and sp w.r.t. stack difference between GDB session and angr. <END_TASK> <USER_TASK:> Description: def _adjust_regs(self): """ Adjust bp and sp w.r.t. stack difference between GDB session and angr. This matches sp and bp registers, but there is a high risk of pointers inc...
if not self.adjust_stack: return bp = self.state.arch.register_names[self.state.arch.bp_offset] sp = self.state.arch.register_names[self.state.arch.sp_offset] stack_shift = self.state.arch.initial_sp - self.real_stack_top self.state.registers.store(sp, self.state.r...
<SYSTEM_TASK:> Create a Loop object for a strongly connected graph, and any strongly <END_TASK> <USER_TASK:> Description: def _parse_loop_graph(self, subg, bigg): """ Create a Loop object for a strongly connected graph, and any strongly connected subgraphs, if possible. :param subg: ...
loop_body_nodes = list(subg.nodes())[:] entry_edges = [] break_edges = [] continue_edges = [] entry_node = None for node in loop_body_nodes: for pred_node in bigg.predecessors(node): if pred_node not in loop_body_nodes: if ...
<SYSTEM_TASK:> Return all Loop instances that can be extracted from a graph. <END_TASK> <USER_TASK:> Description: def _parse_loops_from_graph(self, graph): """ Return all Loop instances that can be extracted from a graph. :param graph: The graph to analyze. :return: A list of ...
outtop = [] outall = [] for subg in networkx.strongly_connected_component_subgraphs(graph): if len(subg.nodes()) == 1: if len(list(subg.successors(list(subg.nodes())[0]))) == 0: continue thisloop, allloops = self._parse_loop_graph(subg...
<SYSTEM_TASK:> Resolve the field within the given state. <END_TASK> <USER_TASK:> Description: def get_ref(cls, state, obj_alloc_id, field_class_name, field_name, field_type): """ Resolve the field within the given state. """
# resolve field field_class = state.javavm_classloader.get_class(field_class_name) field_id = resolve_field(state, field_class, field_name, field_type) # return field ref return cls.from_field_id(obj_alloc_id, field_id)
<SYSTEM_TASK:> This function calculates the levenshtein distance but allows for elements in the lists to be different by any number <END_TASK> <USER_TASK:> Description: def _normalized_levenshtein_distance(s1, s2, acceptable_differences): """ This function calculates the levenshtein distance but allows for elem...
if len(s1) > len(s2): s1, s2 = s2, s1 acceptable_differences = set(-i for i in acceptable_differences) distances = range(len(s1) + 1) for index2, num2 in enumerate(s2): new_distances = [index2 + 1] for index1, num1 in enumerate(s1): if num2 - num1 in acceptable_d...
<SYSTEM_TASK:> Compares two basic blocks and finds all the constants that differ from the first block to the second. <END_TASK> <USER_TASK:> Description: def differing_constants(block_a, block_b): """ Compares two basic blocks and finds all the constants that differ from the first block to the second. :par...
statements_a = [s for s in block_a.vex.statements if s.tag != "Ist_IMark"] + [block_a.vex.next] statements_b = [s for s in block_b.vex.statements if s.tag != "Ist_IMark"] + [block_b.vex.next] if len(statements_a) != len(statements_b): raise UnmatchedStatementsException("Blocks have different number...
<SYSTEM_TASK:> Compare two functions and return True if they appear identical. <END_TASK> <USER_TASK:> Description: def functions_probably_identical(self, func_a_addr, func_b_addr, check_consts=False): """ Compare two functions and return True if they appear identical. :param func_a_addr: The a...
if self.cfg_a.project.is_hooked(func_a_addr) and self.cfg_b.project.is_hooked(func_b_addr): return self.cfg_a.project._sim_procedures[func_a_addr] == self.cfg_b.project._sim_procedures[func_b_addr] func_diff = self.get_function_diff(func_a_addr, func_b_addr) if check_consts: ...
<SYSTEM_TASK:> Load a new project based on a string of raw bytecode. <END_TASK> <USER_TASK:> Description: def load_shellcode(shellcode, arch, start_offset=0, load_address=0): """ Load a new project based on a string of raw bytecode. :param shellcode: The data to load :param arch: The n...
return Project( BytesIO(shellcode), main_opts={ 'backend': 'blob', 'arch': arch, 'entry_point': start_offset, 'base_addr': load_address, } )
<SYSTEM_TASK:> Has symbol name `f` been marked for exclusion by any of the user <END_TASK> <USER_TASK:> Description: def _check_user_blacklists(self, f): """ Has symbol name `f` been marked for exclusion by any of the user parameters? """
return not self._should_use_sim_procedures or \ f in self._exclude_sim_procedures_list or \ f in self._ignore_functions or \ (self._exclude_sim_procedures_func is not None and self._exclude_sim_procedures_func(f))
<SYSTEM_TASK:> Hook a section of code with a custom function. This is used internally to provide symbolic <END_TASK> <USER_TASK:> Description: def hook(self, addr, hook=None, length=0, kwargs=None, replace=False): """ Hook a section of code with a custom function. This is used internally to provide symb...
if hook is None: # if we haven't been passed a thing to hook with, assume we're being used as a decorator return self._hook_decorator(addr, length=length, kwargs=kwargs) if kwargs is None: kwargs = {} l.debug('hooking %s with %s', self._addr_to_str(addr), str(hook)) ...
<SYSTEM_TASK:> Returns the current hook for `addr`. <END_TASK> <USER_TASK:> Description: def hooked_by(self, addr): """ Returns the current hook for `addr`. :param addr: An address. :returns: None if the address is not hooked. """
if not self.is_hooked(addr): l.warning("Address %s is not hooked", self._addr_to_str(addr)) return None return self._sim_procedures[addr]
<SYSTEM_TASK:> Remove a hook. <END_TASK> <USER_TASK:> Description: def unhook(self, addr): """ Remove a hook. :param addr: The address of the hook. """
if not self.is_hooked(addr): l.warning("Address %s not hooked", self._addr_to_str(addr)) return del self._sim_procedures[addr]
<SYSTEM_TASK:> Resolve a dependency in a binary. Looks up the address of the given symbol, and then hooks that <END_TASK> <USER_TASK:> Description: def hook_symbol(self, symbol_name, simproc, kwargs=None, replace=None): """ Resolve a dependency in a binary. Looks up the address of the given symbol, and ...
if type(symbol_name) is not int: sym = self.loader.find_symbol(symbol_name) if sym is None: # it could be a previously unresolved weak symbol..? new_sym = None for reloc in self.loader.find_relevant_relocations(symbol_name): ...
<SYSTEM_TASK:> Check if a symbol is already hooked. <END_TASK> <USER_TASK:> Description: def is_symbol_hooked(self, symbol_name): """ Check if a symbol is already hooked. :param str symbol_name: Name of the symbol. :return: True if the symbol can be resolved and is hooked, False otherwi...
sym = self.loader.find_symbol(symbol_name) if sym is None: l.warning("Could not find symbol %s", symbol_name) return False hook_addr, _ = self.simos.prepare_function_symbol(symbol_name, basic_addr=sym.rebased_addr) return self.is_hooked(hook_addr)
<SYSTEM_TASK:> Remove the hook on a symbol. <END_TASK> <USER_TASK:> Description: def unhook_symbol(self, symbol_name): """ Remove the hook on a symbol. This function will fail if the symbol is provided by the extern object, as that would result in a state where analysis would be unable t...
sym = self.loader.find_symbol(symbol_name) if sym is None: l.warning("Could not find symbol %s", symbol_name) return False if sym.owner is self.loader._extern_object: l.warning("Refusing to unhook external symbol %s, replace it with another hook if you want t...
<SYSTEM_TASK:> Indicates if the project's main binary is a Java Archive. <END_TASK> <USER_TASK:> Description: def is_java_project(self): """ Indicates if the project's main binary is a Java Archive. """
if self._is_java_project is None: self._is_java_project = isinstance(self.arch, ArchSoot) return self._is_java_project
<SYSTEM_TASK:> Register a preset instance with the class of the hub it corresponds to. This allows individual plugin objects to <END_TASK> <USER_TASK:> Description: def register_preset(cls, name, preset): """ Register a preset instance with the class of the hub it corresponds to. This allows individual ...
if cls._presets is None: cls._presets = {} cls._presets[name] = preset
<SYSTEM_TASK:> Apply a preset to the hub. If there was a previously active preset, discard it. <END_TASK> <USER_TASK:> Description: def use_plugin_preset(self, preset): """ Apply a preset to the hub. If there was a previously active preset, discard it. Preset can be either the string name of a ...
if isinstance(preset, str): try: preset = self._presets[preset] except (AttributeError, KeyError): raise AngrNoPluginError("There is no preset named %s" % preset) elif not isinstance(preset, PluginPreset): raise ValueError("Argument m...
<SYSTEM_TASK:> Discard the current active preset. Will release any active plugins that could have come from the old preset. <END_TASK> <USER_TASK:> Description: def discard_plugin_preset(self): """ Discard the current active preset. Will release any active plugins that could have come from the old prese...
if self.has_plugin_preset: for name, plugin in list(self._active_plugins.items()): if id(plugin) in self._provided_by_preset: self.release_plugin(name) self._active_preset.deactivate(self) self._active_preset = None
<SYSTEM_TASK:> Get the plugin named ``name``. If no such plugin is currently active, try to activate a new <END_TASK> <USER_TASK:> Description: def get_plugin(self, name): """ Get the plugin named ``name``. If no such plugin is currently active, try to activate a new one using the current preset...
if name in self._active_plugins: return self._active_plugins[name] elif self.has_plugin_preset: plugin_cls = self._active_preset.request_plugin(name) plugin = self._init_plugin(plugin_cls) # Remember that this plugin was provided by preset. ...
<SYSTEM_TASK:> Add a new plugin ``plugin`` with name ``name`` to the active plugins. <END_TASK> <USER_TASK:> Description: def register_plugin(self, name, plugin): """ Add a new plugin ``plugin`` with name ``name`` to the active plugins. """
if self.has_plugin(name): self.release_plugin(name) self._active_plugins[name] = plugin setattr(self, name, plugin) return plugin
<SYSTEM_TASK:> Deactivate and remove the plugin with name ``name``. <END_TASK> <USER_TASK:> Description: def release_plugin(self, name): """ Deactivate and remove the plugin with name ``name``. """
plugin = self._active_plugins[name] if id(plugin) in self._provided_by_preset: self._provided_by_preset.remove(id(plugin)) del self._active_plugins[name] delattr(self, name)
<SYSTEM_TASK:> Grabs the concretized result so we can add the constraint ourselves. <END_TASK> <USER_TASK:> Description: def _grab_concretization_results(cls, state): """ Grabs the concretized result so we can add the constraint ourselves. """
# only grab ones that match the constrained addrs if cls._should_add_constraints(state): addr = state.inspect.address_concretization_expr result = state.inspect.address_concretization_result if result is None: l.warning("addr concretization result is ...
<SYSTEM_TASK:> Check to see if the current address concretization variable is any of the registered <END_TASK> <USER_TASK:> Description: def _should_add_constraints(cls, state): """ Check to see if the current address concretization variable is any of the registered constrained_addrs we want to ...
expr = state.inspect.address_concretization_expr hit_indices = cls._to_indices(state, expr) for action in state.preconstrainer._constrained_addrs: var_indices = cls._to_indices(state, action.addr) if var_indices == hit_indices: return True return...
<SYSTEM_TASK:> The actual allocation primitive for this heap implementation. Increases the position of the break to allocate <END_TASK> <USER_TASK:> Description: def allocate(self, sim_size): """ The actual allocation primitive for this heap implementation. Increases the position of the break to allocat...
size = self._conc_alloc_size(sim_size) addr = self.state.heap.heap_location self.state.heap.heap_location += size l.debug("Allocating %d bytes at address %#08x", size, addr) return addr
<SYSTEM_TASK:> The memory release primitive for this heap implementation. Decreases the position of the break to deallocate <END_TASK> <USER_TASK:> Description: def release(self, sim_size): """ The memory release primitive for this heap implementation. Decreases the position of the break to deallocate ...
requested = self._conc_alloc_size(sim_size) used = self.heap_location - self.heap_base released = requested if requested <= used else used self.heap_location -= released l.debug("Releasing %d bytes from the heap (%d bytes were requested to be released)", released, requested)
<SYSTEM_TASK:> Get the function name from a C-style function declaration string. <END_TASK> <USER_TASK:> Description: def get_function_name(s): """ Get the function name from a C-style function declaration string. :param str s: A C-style function declaration string. :return: The function name. ...
s = s.strip() if s.startswith("__attribute__"): # Remove "__attribute__ ((foobar))" if "))" not in s: raise ValueError("__attribute__ is present, but I cannot find double-right parenthesis in the function " "declaration string.") s = s[s.index(...
<SYSTEM_TASK:> Convert a C-style function declaration string to its corresponding SimTypes-based Python representation. <END_TASK> <USER_TASK:> Description: def convert_cproto_to_py(c_decl): """ Convert a C-style function declaration string to its corresponding SimTypes-based Python representation. :param ...
s = [ ] try: s.append('# %s' % c_decl) # comment string parsed = parse_file(c_decl) parsed_decl = parsed[0] if not parsed_decl: raise ValueError('Cannot parse the function prototype.') func_name, func_proto = next(iter(parsed_decl.items())) s.ap...
<SYSTEM_TASK:> Returns a concrete state of the flag indicating whether the previous chunk is free or not. Issues a warning if <END_TASK> <USER_TASK:> Description: def is_prev_free(self): """ Returns a concrete state of the flag indicating whether the previous chunk is free or not. Issues a warning if ...
flag = self.state.memory.load(self.base + self._chunk_size_t_size, self._chunk_size_t_size) & CHUNK_P_MASK def sym_flag_handler(flag): l.warning("A chunk's P flag is symbolic; assuming it is not set") return self.state.solver.min_int(flag) flag = concretize(flag, self....
<SYSTEM_TASK:> Returns the chunk following this chunk in the list of free chunks. If this chunk is not free, then it resides in <END_TASK> <USER_TASK:> Description: def fwd_chunk(self): """ Returns the chunk following this chunk in the list of free chunks. If this chunk is not free, then it resides in ...
if self.is_free(): base = self.state.memory.load(self.base + 2 * self._chunk_size_t_size, self._chunk_size_t_size) return PTChunk(base, self.state) else: raise SimHeapError("Attempted to access the forward chunk of an allocated chunk")
<SYSTEM_TASK:> Simply finds the free chunk that would be the backwards chunk relative to the chunk at ptr. Hence, the free head <END_TASK> <USER_TASK:> Description: def _find_bck(self, chunk): """ Simply finds the free chunk that would be the backwards chunk relative to the chunk at ptr. Hence, the free...
cur = self.free_head_chunk if cur is None: return None fwd = cur.fwd_chunk() if cur == fwd: return cur # At this point there should be at least two free chunks in the heap if cur < chunk: while cur < fwd < chunk: cur = ...
<SYSTEM_TASK:> Sets the freedom of the final chunk. Since no proper chunk follows the final chunk, the heap itself manages <END_TASK> <USER_TASK:> Description: def _set_final_freeness(self, flag): """ Sets the freedom of the final chunk. Since no proper chunk follows the final chunk, the heap itself man...
if flag: self.state.memory.store(self.heap_base + self.heap_size - self._chunk_size_t_size, ~CHUNK_P_MASK) else: self.state.memory.store(self.heap_base + self.heap_size - self._chunk_size_t_size, CHUNK_P_MASK)
<SYSTEM_TASK:> Takes an allocation size as requested by the user and modifies it to be a suitable chunk size. <END_TASK> <USER_TASK:> Description: def _make_chunk_size(self, req_size): """ Takes an allocation size as requested by the user and modifies it to be a suitable chunk size. """
size = req_size size += 2 * self._chunk_size_t_size # Two size fields size = self._chunk_min_size if size < self._chunk_min_size else size if size & self._chunk_align_mask: # If the chunk would not be aligned size = (size & ~self._chu...
<SYSTEM_TASK:> Allocate and initialize a new string in the context of the state passed. <END_TASK> <USER_TASK:> Description: def new_string(state, value): """ Allocate and initialize a new string in the context of the state passed. The method returns the reference to the newly allocated string ...
str_ref = SimSootValue_StringRef(state.memory.get_new_uuid()) state.memory.store(str_ref, value) return str_ref
<SYSTEM_TASK:> loads a number from addr, and returns a condition that addr must start with the prefix <END_TASK> <USER_TASK:> Description: def _load_num_with_prefix(prefix, addr, region, state, base, signed, read_length=None): """ loads a number from addr, and returns a condition that addr must start wi...
length = len(prefix) read_length = (read_length-length) if read_length else None condition, value, num_bytes = strtol._string_to_int(addr+length, state, region, base, signed, read_length) # the prefix must match if len(prefix) > 0: loaded_prefix = region.load(addr, ...
<SYSTEM_TASK:> reads values from s and generates the symbolic number that it would equal <END_TASK> <USER_TASK:> Description: def _string_to_int(s, state, region, base, signed, read_length=None): """ reads values from s and generates the symbolic number that it would equal the first char is eith...
# if length wasn't provided, read the maximum bytes length = state.libc.max_strtol_len if read_length is None else read_length # expression whether or not it was valid at all expression, _ = strtol._char_to_val(region.load(s, 1), base) cases = [] # to detect overflow...
<SYSTEM_TASK:> converts a symbolic char to a number in the given base <END_TASK> <USER_TASK:> Description: def _char_to_val(char, base): """ converts a symbolic char to a number in the given base returns expression, result expression is a symbolic boolean indicating whether or not it was...
cases = [] # 0-9 max_digit = claripy.BVV(b"9") min_digit = claripy.BVV(b"0") if base < 10: max_digit = claripy.BVV(ord("0") + base, 8) is_digit = claripy.And(char >= min_digit, char <= max_digit) # return early here so we don't add unnecessary stateme...
<SYSTEM_TASK:> Implement printf - based on the stored format specifier information, format the values from the arg getter function `args` into a string. <END_TASK> <USER_TASK:> Description: def replace(self, startpos, args): """ Implement printf - based on the stored format specifier information, format...
argpos = startpos string = None for component in self.components: # if this is just concrete data if isinstance(component, bytes): string = self._add_to_string(string, self.parser.state.solver.BVV(component)) elif isinstance(component, str):...
<SYSTEM_TASK:> All specifiers and their lengths. <END_TASK> <USER_TASK:> Description: def _all_spec(self): """ All specifiers and their lengths. """
base = self._mod_spec for spec in self.basic_spec: base[spec] = self.basic_spec[spec] return base
<SYSTEM_TASK:> match the string `nugget` to a format specifier. <END_TASK> <USER_TASK:> Description: def _match_spec(self, nugget): """ match the string `nugget` to a format specifier. """
# TODO: handle positional modifiers and other similar format string tricks. all_spec = self._all_spec # iterate through nugget throwing away anything which is an int # TODO store this in a size variable original_nugget = nugget length_str = [ ] length_spec = No...