def dbginfo(itype,msg,log=None):
if itype.lower() == 'error':
fpr.err( ('-'*(tc-4-len('-- Error --')) + '-- Error --' ))
fpr.info(msg)
if log:
fpr.err('_'*(tc-4))
print
fpr(log)
fpr.err('_'*(tc-4))
fpr.err('-'*(tc-4))
if itype.lower() == 'warrning':
fpr.warn( ('-'*(tc-4-len('-- Warrning --')) + '-- Warrning --' ))
fpr.info(msg)
if log:
fpr.warn('_'*(tc-4))
print
fpr(log)
fpr.warn('_'*(tc-4))
fpr.warn('-'*(tc-4))
if itype.lower() == 'debug':
#from core.data import DEBUG
if not DEBUG:
return 0
fpr.purple( ('-'*(tc-4-len('-- Debug --')) + '-- Debug --' ))
fpr.info(msg)
if log:
fpr.purple('_'*(tc-4))
print
fpr(log)
fpr.purple('_'*(tc-4))
fpr.purple('-'*(tc-4))
def dbglog(s,f=0):
#from core.data import DEBUG
#from pprint import pprint
global tc
if DEBUG:
fpr.purple( ('-'*(tc-4-len('-- DebuG --')) + '-- DebuG --' ))
if type(s) is str:
fpr(s)
else:
if f:
pprint(s)
else:
fpr('%r' % s)
fpr.purple('-'*(tc-4))
def viewSmtpConv(s):
#import re
#import sys
#from StringIO import StringIO
#from core.ui.cless import Less
if s:
if raw_input(
' Would you like to view SMTP conversation [y/N]:> ') not in [
'y', 'Y'
]:
return True
else:
print
dl = len(s.splitlines())
for line in s.splitlines():
if len(line) > tc:
dl += len(line) / tc
if dl > tr:
fpr('SMTP conversation logs are much bigger than your screen (%s lines)'
% dl)
if raw_input(
' Would like to use system pager to view it [y/N]:> ') in [
'y', 'Y'
]:
fpr.blue('_' * (tc - 4))
print
# use Less if output is much bigger than one screen
pager = Less(num_lines=tr)
# fetch output from fancy print as Less input must be a string
# make copy of original stdout han redirect stdout to string
sto = sys.stdout
sys.stdout = StringIO()
for line in s.splitlines():
if re.search('^send:', line):
fpr.cyan(line)
elif re.search('^reply:', line):
fpr.green(line)
elif re.search('^data:', line):
fpr.purple(line)
else:
fpr.info(line)
x = sys.stdout.getvalue()
sys.stdout.close()
sys.stdout = sto
print x | pager
return True
#else:
# fpr.blue( '_'*(tc-4))
# print
# fpr.blue( '_'*(tc-4))
#else:
fpr.blue('_' * (tc - 4))
print
for line in s.splitlines():
if re.search('^send:', line):
fpr.cyan(line)
elif re.search('^reply:', line):
fpr.green(line)
elif re.search('^data:', line):
fpr.purple(line)
else:
fpr.info(line)
fpr.blue('_' * (tc - 4))
def parse_spfHeaders2(h):
from email.message import Message
import re
if not h:
return False
#print type(h)
#print h
#h1 = h.replace('\n','')
#print h1
# re.DOTALL '.'match everything inludinf newline
# re.IGNORECASE is used at the splitHeaders() function first
AUTHRE = re.compile('^(Authentication-Results):(.*)', re.DOTALL)
RECSPF = re.compile('^(Received-SPF):(.*)', re.DOTALL)
m1 = re.match(AUTHRE, h)
m2 = re.match(RECSPF, h)
if DDDEBUG: fpr.purple(h)
dd = {'hn': '', 'hv': ''}
#""" Authentication-Results """
if m1:
dd['hn'] = m1.group(1)
dd['hv'] = m1.group(2)
fpr.info('_' * (tc - 4))
print
fpr('Header-name : %s' % m1.group(1))
fpr('Header-value : %s' % m1.group(2))
fpr.info('_' * (tc - 4))
print
try:
import authres
# FIXME: fast workaround for authres module
#
# remove "d=" tag from dmarc auth method as authres
# does recognize only below ptype
# -> elif ptype.lower() not in ['smtp', 'header', 'body', 'policy']
# and it raise a Syntax error for d=
h = h.replace('\n', '')
h = h.replace('\r', '')
h = h.replace('\t', ' ')
DTAG = re.compile('.*dmarc=.* \(.*\)* d=([a-z0-9\.\-]+)',
re.IGNORECASE)
md = re.match(DTAG, h)
if md:
fpr.warn('Stripping "d=" tag from dmarc method: d=%s' %
md.group(1))
#fpr.green( '%s ---- %s' % (md.group(1), md.group()))
h = re.sub('d=%s' % md.group(1), '', h)
if DDDEBUG: print h
#else:
# print 'no d-tag'
arh = authres.AuthenticationResultsHeader.parse(h)
#if DDDEBUG:
# from pprint import pprint
# pprint(str(arh))
except Exception, e:
fpr.err('Exception: %s' % e)
p = {}
if str(arh.authserv_id):
p['authserv_id'] = str(arh.authserv_id)
print len(arh.results)
for i in arh.results:
if DDDEBUG:
pprint(i)
fpr('method: %s' % str(i.method))
if str(i.method) == 'spf':
p.setdefault('spf', {})
p['spf'].setdefault('mailfrom', {})
p['spf'].setdefault('helo', {})
p['spf'].setdefault('pra', {})
if DDDEBUG:
fpr('result : %s' % str(i.result))
if hasattr(i, 'smtp_mailfrom'):
fpr('smtp.mailfrom : %s' % str(i.smtp_mailfrom))
if hasattr(i, 'smtp_helo'):
fpr('smtp.helo : %s' % str(i.smtp_helo))
if hasattr(i, 'smtp_pra'):
fpr('smtp.pra : %s' % str(i.smtp_pra))
for j in i.properties:
if j.name == 'mailfrom':
p['spf']['mailfrom']['result'] = str(i.result)
p['spf']['mailfrom']['type'] = str(j.type)
p['spf']['mailfrom']['name'] = str(j.name)
p['spf']['mailfrom']['value'] = str(j.value)
if j.name == 'helo':
p['spf']['helo']['result'] = str(i.result)
p['spf']['helo']['type'] = str(j.type)
p['spf']['helo']['name'] = str(j.name)
p['spf']['helo']['value'] = str(j.value)
if j.name == 'pra':
p['spf']['pra']['result'] = str(i.result)
p['spf']['pra']['type'] = str(j.type)
p['spf']['pra']['name'] = str(j.name)
p['spf']['pra']['value'] = str(j.value)
if DDDEBUG:
fpr.green(' type: %s' % str(j.type))
fpr(' name: %s' % str(j.name))
fpr(' value: %s' % str(j.value))
if str(i.method) == 'dkim':
p.setdefault('dkim', {})
p['dkim']['result'] = str(i.result)
if DDDEBUG:
fpr('result : %s' % str(i.result))
fpr('header_i : %s' % str(i.header_i))
for j in i.properties:
# dkim header identity
p['dkim']['header_i'] = str(j.value)
if DDDEBUG:
fpr.green(' type: %s' % str(j.type))
fpr(' name: %s' % str(j.name))
fpr(' value: %s' % str(j.value))
if str(i.method) == 'dmarc':
p.setdefault('dmarc', {})
p['dmarc']['result'] = str(i.result)
if DDDEBUG:
fpr('result : %s' % str(i.result))
p['h_value'] = dd['hv']
return p
def chThrDep(t=None, rpm=None, mpt=None):
#VERIFY: In Python 2.x : int/int --> int and int/float --> float In Python 3.x : int/int can result in a float
from core.data import smtp, fpr, tc, tr
from core.func import waitin
r = get_rcpts('NoR')
#Warunki Konieczne - Essential Conditions
# to met WK1, WK2, WK3
if not t:
t = smtp['replay']['threads'].get('not', None)
elif t and not (1 <= int(t) <= r):
if r > 1:
t = r
if r == 1: #special case
pass
if t:
smtp['replay']['threads']['not'] = int(t)
if not rpm:
rpm = smtp['replay']['threads'].get('rpm', None)
elif rpm and not (1 <= int(rpm) <= r):
rpm = int(r)
if rpm:
fpr.ok('Saving RpM as %s' % rpm)
smtp['replay']['threads']['rpm'] = int(rpm)
if not mpt:
mpt = smtp['replay']['threads'].get('mpt', None)
elif mpt and not (1 <= int(mpt) <= r):
mpt = int(r)
if mpt:
fpr.ok('Saving MpT as %s' % mpt)
smtp['replay']['threads']['mpt'] = int(mpt)
if r:
# specific feature: the result depends from number of recipients
# -------------------------------------------------------------------- #
if t and not rpm and not mpt:
fpr.warn('%s : %s : %s - %s' % (t, rpm, mpt, r))
# allow to set t if no rpm or mpt values and number of rcpt > 1
# but t must be <= r, so if t greater then r => it will be equal to r
if r > 1:
smtp['replay']['threads']['not'] = int(t)
fpr.ok('Saving NoT as %s' % t)
return t
# special case when r == 1 , not related to our Equation
# for r = 1 allow to set T > 1 but do not allow than set rpm or mpt
# in this special case the sam message is flooding a sepcific rcpt
# with this smae message in multiple threads/connection !
if r == 1:
#pass
smtp['replay']['threads']['not'] = int(t)
fpr.ok('Saving NoT as %s' % t)
return t
# set initial
elif rpm and not t and not mpt:
fpr.warn('%s : %s : %s - %s' % (t, rpm, mpt, r))
if r > 1:
smtp['replay']['threads']['rpm'] = int(rpm)
#return rpm
#return True
if r == 1:
fpr.warn('It doesn\'t make sense to define RpM when NoR = 1')
return False
#
elif mpt and not t and not rpm:
fpr.warn('%s : %s : %s - %s' % (t, rpm, mpt, r))
if r > 1:
smtp['replay']['threads']['mpt'] = int(mpt)
#return mpt
#return True
if r == 1:
fpr.warn('It doesn\'t make sense to define MpT when NoR = 1')
return False
else:
fpr.err('Recipients not defined. Build a list of recipients first.')
fpr.err('Flush the values if the recipient list has been modified.')
return
# Some maths :)
#
# rpm - recipient per message
# r - number of recipients (all)
# m - number of messages (all)
#
# rpm = r / m ==> m = r / rpm
# mpt - messages per thread
# t - number of threads
# m - number of messages (all)
#
# mpt = m / t ==> m = mpt * t
# r / rpm = mpt * t
#
# ==> t = r / (rpm * mpt)
#
# ==> rpm = r / (mpt * t)
#
# ==> mpt = r / (rpm * t)
fpr.info('_' * (tc - 4))
print
fpr.warn('Your limits:')
fpr.warn('t = %s : rpm = %s : mpt = %s - r = %s' %
(smtp['replay']['threads'].get(
'not', None), smtp['replay']['threads'].get('rpm', None),
smtp['replay']['threads'].get('mpt', None), r))
print
fpr.err('Maximum possible limits to met Essential Conditions:')
fpr.err('t = %s : rpm = %s : mpt = %s - r = %s' % (t, rpm, mpt, r))
fpr.info('_' * (tc - 4))
print
def chEque():
print
if r:
# compare float
# https://ubuntuforums.org/showthread.php?t=840665
def float_eq(a, b, epsilon=0.00000001):
fpr.cyan('<float_eq> %s' % abs(a - b))
if abs(a - b) < epsilon:
return True
return False
m1 = float(r) / rpm
m2 = mpt * float(t)
fpr.cyan('r/rpm = %s, mpt * t = %s' % (m1, m2))
if float_eq(m1, m2):
fpr.green('Equetion is met')
waitin()
return True
else:
fpr.err('Equetion is false')
waitin()
return False
def setReals(t, rpm, mpt):
if t and rpm and mpt:
smtp['replay']['threads']['reals'].setdefault('not', t)
smtp['replay']['threads']['reals'].setdefault('rpm', rpm)
smtp['replay']['threads']['reals'].setdefault('mpt', mpt)
smtp['replay']['threads']['reals']['not'] = t
smtp['replay']['threads']['reals']['rpm'] = rpm
smtp['replay']['threads']['reals']['mpt'] = mpt
fpr.ok('Reals were set!')
if r:
# count the mpt - based on rpm and t
# -------------------------------------------------------------------- #
if t and rpm and not mpt:
fpr.green('%s : %s : %s - %s' % (t, rpm, mpt, r))
# m = r / rpm
# mpt = m / t
# I - validate MPT - MPT <= R
mpt = float(r) / (rpm * t)
fpr.green('counting mpt = %s' % mpt)
chEque()
# round up - if there is a remainder
if (r % (rpm * t) > 0):
mpt = r / (rpm * t) + (r % (rpm * t) > 0)
fpr.green('rounding up mpt = %s' % mpt)
# find the lowest T for rounded MpT to met RpM
t_new = float(r) / (rpm * mpt) #+ (r % (rpm * mpt) > 0)
fpr.green('counting new t = %s' % t_new)
if (r % (rpm * mpt) > 0): # if remainder
t_new = r / (rpm * mpt) + (r % (rpm * mpt) > 0)
fpr.green('rounding up new t = %s' % t_new)
fpr.err(
'realistic returns would be: *t = %s, rpm = %s, mpt = %s for r = %s'
% (int(t_new), rpm, int(mpt), r))
setReals(int(t_new), rpm, int(mpt))
else:
fpr.err(
'realistic returns would be: t = %s, rpm = %s, mpt = %s for r = %s'
% (t, rpm, int(mpt), r))
setReals(t, rpm, int(mpt))
# count the rpm - for mpt and t
# -------------------------------------------------------------------- #
elif t and mpt and not rpm:
fpr.blue('%s : %s : %s - %s' % (t, rpm, mpt, r))
# m = mpt * t
# m = r / rpm
# TODO
# WK: validate RPM , RPM <= R
rpm = float(r) / (mpt * t)
fpr.blue('counting: rpm = %s' % rpm)
chEque()
# if there is a remainder
if (r % (mpt * t) > 0):
rpm = r / (mpt * t) + (r % (mpt * t) > 0)
fpr.blue('rounding up rpm = %s' % rpm)
# find the lowest T for rounded MpT to met RpM
t_new = float(r) / (rpm * mpt) #+ (r % (rpm * mpt) > 0)
fpr.green('counting new t = %s' % t_new)
if (r % (rpm * mpt) > 0): # if remainder
t_new = r / (rpm * mpt) + (r % (rpm * mpt) > 0)
fpr.green('rounding up new t = %s' % t_new)
fpr.err(
'realistic returns would be: *t = %s, rpm = %s, mpt = %s for r = %s'
% (int(t_new), int(rpm), mpt, r))
setReals(int(t_new), int(rpm), mpt)
else:
fpr.err(
'realistic returns would be: t = %s, rpm = %s, mpt = %s for r = %s'
% (t, int(rpm), mpt, r))
setReals(t, int(rpm), mpt)
# count the mpt ( use t = 1 )
# -------------------------------------------------------------------- #
elif rpm and not t and not mpt:
t = 1
fpr.purple('assuming t eq 1 for equation')
fpr.purple('%s : %s : %s - %s' % (t, rpm, mpt, r))
mpt = float(r) / rpm
fpr.purple('counting: mpt = %s' % mpt)
chEque()
#if there is a remainder
if (r % rpm > 0):
mpt = r / rpm + (r % rpm > 0)
fpr.purple('rounding up mpt = %s' % mpt)
# find the lowest T for rounded MpT to met RpM
t_new = float(r) / (rpm * mpt) #+ (r % (rpm * mpt) > 0)
fpr.green('counting new t = %s' % t_new)
if (r % (rpm * mpt) > 0): # if remainder
t_new = r / (rpm * mpt) + (r % (rpm * mpt) > 0)
fpr.green('rounding up new t = %s' % t_new)
fpr.err(
'realistic returns would be: *t = %s, rpm = %s, mpt = %s for r = %s'
% (int(t_new), rpm, mpt, r))
setReals(int(t_new), rpm, mpt)
else:
fpr.err(
'realistic returns would be: t = %s, rpm = %s, mpt = %s for r = %s'
% (t, rpm, int(mpt), r))
setReals(t, rpm, int(mpt))
# count the rpm ( use t = 1 )
# -------------------------------------------------------------------- #
elif mpt and not t and not rpm:
t = 1
fpr.purple('assuming t eq 1 for equation')
fpr.purple('%s : %s : %s - %s' % (t, rpm, mpt, r))
rpm = float(r) / mpt
fpr.purple('counting: rpm = %s' % rpm)
t = 1
chEque()
#if there is a remainder
if (r % mpt > 0):
rpm = r / mpt + (r % mpt > 0)
fpr.purple('rounding up rpm = %s' % rpm)
# find the lowest T for rounded MpT to met RpM
t_new = float(r) / (rpm * mpt) #+ (r % (rpm * mpt) > 0)
fpr.green('counting new t = %s' % t_new)
if (r % (rpm * mpt) > 0): # if remainder
t_new = r / (rpm * mpt) + (r % (rpm * mpt) > 0)
fpr.green('rounding up new t = %s' % t_new)
fpr.err(
'realistic returns would be: *t = %s, rpm = %s, mpt = %s for r = %s'
% (int(t_new), int(rpm), mpt, r))
setReals(int(t_new), int(rpm), mpt)
else:
fpr.err(
'realistic returns would be: t = %s, rpm = %s, mpt = %s for r = %s'
% (t, int(rpm), mpt, r))
setReals(t, int(rpm), mpt)
# count t - for rpm and mpt
# -------------------------------------------------------------------- #
elif mpt and rpm and not t:
fpr.white('%s : %s : %s - %s' % (t, rpm, mpt, r))
print type(mpt)
# add 1 to round up a result
# (r % (rpm * mpt) > 0) it will return True which is 1
# if there is a remainder and 0 if not
t = float(r) / (rpm * mpt) #+ (r % (rpm * mpt) > 0)
fpr.white('counted: t = %s' % t)
chEque()
# round up
if (r % (rpm * mpt) > 0):
t = r / (rpm * mpt) + (r % (rpm * mpt) > 0)
fpr.white('rounding up t = %s' % t)
# validate WK
# t = <1,r>
# if t < 1
if (float(r) / (rpm * mpt)) < 1:
fpr.info('Now to met equetion for t=1 it is not possible for %s (R) recipients '\
'to send %s (MpT) messeges in one thread with %s (RpM) recipient in message' %
(r,mpt,rpm))
print
fpr.info('New RpM value can be counted based on existing MpT or new MpT ' \
'value can be counted based on existing RpM' )
print
fpr.info('For simplicity it is assumed that RpM limits is more important so MpT ' \
'is going to be recounted to met an equation')
print
mpt_new = float(r) / rpm
fpr.white('New MpT to met equetion is %s' % mpt_new)
mpt = mpt_new
chEque()
# now just round up
mpt_new = r / rpm + (r % rpm > 0)
fpr.white('rounding up new mpt = %s' % mpt_new)
fpr.err(
'realistic returns would be: t = %s, rpm = %s, *mpt = %s for r = %s'
% (int(t), rpm, int(mpt_new), r))
setReals(int(t), rpm, int(mpt_new))
else:
# so if t > 1 and it was counted
fpr.err(
'realistic returns would be: t = %s, rpm = %s, mpt = %s for r = %s'
% (int(t), rpm, int(mpt), r))
setReals(int(t), rpm, int(mpt))
# only true if r / rpm = mpt * t
# -------------------------------------------------------------------- #
elif t and rpm and mpt:
fpr.cyan('%s : %s : %s - %s' % (t, rpm, mpt, r))
if not chEque():
fpr.info('_' * (tc - 4))
print
fpr.warn('It is not recommended trying to set NoT with RpM and MpT. ' \
'Suggested action would be to flush these values.' )
fpr.info('_' * (tc - 4))
print
waitin()
return False
else:
fpr.err(
'realistic returns would be: t = %s, rpm = %s, mpt = %s for r = %s'
% (t, rpm, mpt, r))
setReals(t_new, rpm, mpt)
# for test
waitin()