def test2_ipv6_to_longs(self):
ip_upper_str = "aFFF:FaFF:FFaF:FFFa"
ip_lower_str = "0000:0000:0000:0000"
ip_upper, ip_lower = ipv6_to_longs(ip_upper_str + ":" + ip_lower_str)
self.assertEqual(hex(ip_upper).lower(), "0x%sl" % (ip_upper_str.lower()
.replace(':', '')))
self.assertEqual(hex(ip_lower).lower(), "0x0l")
def _do_generic_update_test(self, record, new_name, new_ip, ip_type):
if new_ip:
if ip_type == '4':
ip_upper, ip_lower = 0, ipaddr.IPv4Address(new_ip).__int__()
else:
ip_upper, ip_lower = ipv6_to_longs(new_ip)
else:
ip_upper, ip_lower = record.ip_upper, record.ip_lower
if new_name is not None and new_ip is not None:
aret = AddressRecord.objects.filter(
label=new_name, ip_upper=ip_upper,
ip_lower=ip_lower, ip_type=ip_type)[0]
elif new_name is not None:
# Just new_name
aret = AddressRecord.objects.filter(
label=new_name, ip_upper=ip_upper,
ip_lower=ip_lower, ip_type=ip_type)[0]
else:
# Just new_ip
aret = AddressRecord.objects.filter(
label=new_name, ip_upper=ip_upper,
ip_lower=ip_lower, ip_type=ip_type)[0]
if new_name:
self.assertEqual(aret.label, new_name)
if new_ip:
if ip_type == '4':
self.assertEqual(
aret.ip_str, ipaddr.IPv4Address(new_ip).__str__())
else:
self.assertEqual(
aret.ip_str, ipaddr.IPv6Address(new_ip).__str__())
def redirect_to_range_from_ip(request):
ip_str = request.GET.get('ip_str')
ip_type = request.GET.get('ip_type')
if not (ip_str and ip_type):
return HttpResponse(json.dumps({'failure': "Slob"}))
if ip_type == '4':
try:
ip_upper, ip_lower = 0, int(ipaddr.IPv4Address(ip_str))
except ipaddr.AddressValueError:
return HttpResponse(json.dumps(
{'success': False,
'message': "Failure to recognize {0} as an IPv4 "
"Address.".format(ip_str)}))
else:
try:
ip_upper, ip_lower = ipv6_to_longs(ip_str)
except ValidationError:
return HttpResponse(json.dumps({'success': False,
'message': 'Invalid IP'}))
range_ = Range.objects.filter(
start_upper__lte=ip_upper, start_lower__lte=ip_lower,
end_upper__gte=ip_upper, end_lower__gte=ip_lower)
if not len(range_) == 1:
return HttpResponse(json.dumps({'failure': "Failture to find range"}))
else:
return HttpResponse(json.dumps(
{'success': True,
'redirect_url': range_[0].get_detail_url()}))
def migrate_AAAA(zone, root_domain, soa, views):
for (name, ttl, rdata) in zone.iterate_rdatas('AAAA'):
name = name.to_text().strip('.')
print str(name) + " AAAA " + str(rdata)
exists_domain = Domain.objects.filter(name=name)
if exists_domain:
label = ''
domain = exists_domain[0]
else:
label = name.split('.')[0]
if label.startswith('unused'):
continue
domain_name = '.'.join(name.split('.')[1:])
domain = ensure_domain(domain_name, force=True)
ip_upper, ip_lower = ipv6_to_longs(rdata.to_text())
if AddressRecord.objects.filter(label=label,
domain=domain, ip_upper=ip_upper, ip_lower=ip_lower,
ip_type='6').exists():
a = AddressRecord.objects.get(label=label,
domain=domain, ip_type='6', ip_upper=ip_upper,
ip_lower=ip_lower)
else:
a = AddressRecord(label=label, domain=domain,
ip_str=rdata.to_text(), ip_type='6')
a.clean()
a.save()
for view in views:
a.views.add(view)
a.save()
def _do_generic_update_test(self, record, new_name, new_ip, ip_type):
if new_ip:
if ip_type == '4':
ip_upper, ip_lower = 0, ipaddr.IPv4Address(new_ip).__int__()
else:
ip_upper, ip_lower = ipv6_to_longs(new_ip)
else:
ip_upper, ip_lower = record.ip_upper, record.ip_lower
if new_name is not None and new_ip is not None:
aret = AddressRecord.objects.filter(label=new_name,
ip_upper=ip_upper,
ip_lower=ip_lower,
ip_type=ip_type)[0]
elif new_name is not None:
# Just new_name
aret = AddressRecord.objects.filter(label=new_name,
ip_upper=ip_upper,
ip_lower=ip_lower,
ip_type=ip_type)[0]
else:
# Just new_ip
aret = AddressRecord.objects.filter(label=new_name,
ip_upper=ip_upper,
ip_lower=ip_lower,
ip_type=ip_type)[0]
if new_name:
self.assertEqual(aret.label, new_name)
if new_ip:
if ip_type == '4':
self.assertEqual(aret.ip_str,
ipaddr.IPv4Address(new_ip).__str__())
else:
self.assertEqual(aret.ip_str,
ipaddr.IPv6Address(new_ip).__str__())
def test_add_remove_reverse_ipv6_domains(self):
osu_block = "2620:105:F000"
rd0 = boot_strap_ipv6_reverse_domain("2.6.2.0.0.1.0.5.f.0.0.0")
ip1 = self.add_ptr_ipv6(osu_block + ":8000::1")
self.assertEqual(ip1.reverse_domain, rd0)
ip2 = self.add_ptr_ipv6(osu_block + ":8000::2")
self.assertEqual(ip2.reverse_domain, rd0)
ip3 = self.add_ptr_ipv6(osu_block + ":8000::3")
self.assertEqual(ip3.reverse_domain, rd0)
ip4 = self.add_ptr_ipv6(osu_block + ":8000::4")
rd1 = self.create_domain(name="2.6.2.0.0.1.0.5.f.0.0.0.8", ip_type='6')
rd1.save()
ip_upper, ip_lower = ipv6_to_longs(osu_block + ":8000::1")
ptr1 = PTR.objects.filter(ip_upper=ip_upper,
ip_lower=ip_lower,
ip_type='6')[0]
self.assertEqual(ptr1.reverse_domain, rd1)
ip_upper, ip_lower = ipv6_to_longs(osu_block + ":8000::2")
ptr2 = PTR.objects.filter(ip_upper=ip_upper,
ip_lower=ip_lower,
ip_type='6')[0]
self.assertEqual(ptr2.reverse_domain, rd1)
ip_upper, ip_lower = ipv6_to_longs(osu_block + ":8000::3")
ptr3 = PTR.objects.filter(ip_upper=ip_upper,
ip_lower=ip_lower,
ip_type='6')[0]
self.assertEqual(ptr3.reverse_domain, rd1)
ip_upper, ip_lower = ipv6_to_longs(osu_block + ":8000::4")
ptr4 = PTR.objects.filter(ip_upper=ip_upper,
ip_lower=ip_lower,
ip_type='6')[0]
self.assertEqual(ptr4.reverse_domain, rd1)
rd1.delete()
ip_upper, ip_lower = ipv6_to_longs(osu_block + ":8000::1")
ptr1 = PTR.objects.filter(ip_upper=ip_upper,
ip_lower=ip_lower,
ip_type='6')[0]
self.assertEqual(ptr1.reverse_domain, rd0)
ip_upper, ip_lower = ipv6_to_longs(osu_block + ":8000::2")
ptr2 = PTR.objects.filter(ip_upper=ip_upper,
ip_lower=ip_lower,
ip_type='6')[0]
self.assertEqual(ptr2.reverse_domain, rd0)
ip_upper, ip_lower = ipv6_to_longs(osu_block + ":8000::3")
ptr3 = PTR.objects.filter(ip_upper=ip_upper,
ip_lower=ip_lower,
ip_type='6')[0]
self.assertEqual(ptr3.reverse_domain, rd0)
ip_upper, ip_lower = ipv6_to_longs(osu_block + ":8000::4")
ptr4 = PTR.objects.filter(ip_upper=ip_upper,
ip_lower=ip_lower,
ip_type='6')[0]
self.assertEqual(ptr4.reverse_domain, rd0)
def test3_ipv6_to_longs(self):
ip_upper_str = "aFFF:FaFF:FFaF:FFFa"
ip_lower_str = "0000:0000:0000:0000"
ip_upper, ip_lower = ipv6_to_longs(ip_upper_str + ":" + ip_lower_str)
self.assertEqual(
hex(ip_upper).lower(),
"0x%sl" % (ip_upper_str.lower().replace(':', '')))
self.assertEqual(hex(ip_lower).lower(), "0x0l")
def test_ipv6_str(self):
rd = boot_strap_ipv6_reverse_domain('1.2.3.4')
ip_str = '1234:1234:1243:1243:1243::'
new_ip = Ip(ip_str=ip_str, ip_type='6')
new_ip.clean_ip()
ip_upper, ip_lower = ipv6_to_longs(ip_str)
self.assertEqual(new_ip.ip_upper, ip_upper)
self.assertEqual(new_ip.ip_lower, ip_lower)
ip_str = '1234:432:3:0:3414:22::'
new_ip = Ip(ip_str=ip_str, ip_type='6')
new_ip.clean_ip()
ip_upper, ip_lower = ipv6_to_longs(ip_str)
self.assertEqual(new_ip.ip_upper, ip_upper)
self.assertEqual(new_ip.ip_lower, ip_lower)
def test_ipv6_str(self):
boot_strap_ipv6_reverse_domain('1.2.3.4')
ip_str = '1234:1234:1243:1243:1243::'
new_ip = Ip(ip_str=ip_str, ip_type='6')
new_ip.clean_ip()
ip_upper, ip_lower = ipv6_to_longs(ip_str)
self.assertEqual(new_ip.ip_upper, ip_upper)
self.assertEqual(new_ip.ip_lower, ip_lower)
ip_str = '1234:432:3:0:3414:22::'
new_ip = Ip(ip_str=ip_str, ip_type='6')
new_ip.clean_ip()
ip_upper, ip_lower = ipv6_to_longs(ip_str)
self.assertEqual(new_ip.ip_upper, ip_upper)
self.assertEqual(new_ip.ip_lower, ip_lower)
def test2_create_ipv6(self):
s = Network.objects.create(
network_str='ffff:ffff:ffff:ffff:ffff:ffff:ffff:ffff/24',
ip_type='6')
str(s)
s.__repr__()
ip_upper, ip_lower = ipv6_to_longs(
'ffff:ff00:0000:0000:0000:0000:0000:0000')
# Network address was canonicalized.
self.assertEqual(s.ip_upper, ip_upper)
self.assertEqual(s.ip_lower, ip_lower)
def test2_create_ipv6(self):
s = Network.objects.create(
network_str='ffff:ffff:ffff:ffff:ffff:ffff:ffff:ffff/24',
ip_type='6')
str(s)
s.__repr__()
ip_upper, ip_lower = ipv6_to_longs(
'ffff:ff00:0000:0000:0000:0000:0000:0000')
# Network address was canonicalized.
self.assertEqual(s.ip_upper, ip_upper)
self.assertEqual(s.ip_lower, ip_lower)
def test2_create_ipv6(self):
network = "ffff:ffff:ffff:ffff:ffff:ffff:ffff:ffff"
prefixlen = "24"
kwargs = {'network': network, 'prefixlen': prefixlen, 'ip_type': '6'}
s = self.do_basic_add(**kwargs)
str(s)
s.__repr__()
self.assertTrue(s)
ip_upper, ip_lower = ipv6_to_longs(network)
self.assertEqual(s.ip_upper, ip_upper)
self.assertEqual(s.ip_lower, ip_lower)
def test2_create_ipv6(self):
network = "ffff:ffff:ffff:ffff:ffff:ffff:ffff:ffff"
prefixlen = "24"
kwargs = {'network': network, 'prefixlen': prefixlen, 'ip_type': '6'}
s = self.do_basic_add(**kwargs)
str(s)
s.__repr__()
self.assertTrue(s)
ip_upper, ip_lower = ipv6_to_longs(network)
self.assertEqual(s.ip_upper, ip_upper)
self.assertEqual(s.ip_lower, ip_lower)
def test_large_ipv6(self):
rd = create_reverse_domain('f', ip_type='6')
ip_str = 'ffff:ffff:ffff:ffff:ffff:ffff:ffff:ffff'
ip = ipaddr.IPv6Address(ip_str)
ip_upper, ip_lower = ipv6_to_longs(ip_str)
self.assertEqual(ip.__int__(), (2 ** 64) * ip_upper + ip_lower)
new_ip = Ip(ip_str=ip_str, ip_upper=ip_upper,
ip_lower=ip_lower, ip_type='6')
new_ip.clean_ip()
self.assertEqual(ip_str, new_ip.ip_str)
self.assertEqual(ip.__int__(), new_ip.__int__())
def test_large_ipv6(self):
rd = create_reverse_domain('f', ip_type='6')
ip_str = 'ffff:ffff:ffff:ffff:ffff:ffff:ffff:ffff'
ip = ipaddr.IPv6Address(ip_str)
ip_upper, ip_lower = ipv6_to_longs(ip_str)
self.assertEqual(ip.__int__(), (2**64) * ip_upper + ip_lower)
new_ip = Ip(ip_str=ip_str,
ip_upper=ip_upper,
ip_lower=ip_lower,
ip_type='6')
new_ip.clean_ip()
self.assertEqual(ip_str, new_ip.ip_str)
self.assertEqual(ip.__int__(), new_ip.__int__())
def test_add_remove_reverse_ipv6_domains(self):
osu_block = "2620:105:F000"
rd0 = boot_strap_ipv6_reverse_domain("2.6.2.0.0.1.0.5.f.0.0.0")
ip1 = self.add_ptr_ipv6(osu_block + ":8000::1")
self.assertEqual(ip1.reverse_domain, rd0)
ip2 = self.add_ptr_ipv6(osu_block + ":8000::2")
self.assertEqual(ip2.reverse_domain, rd0)
ip3 = self.add_ptr_ipv6(osu_block + ":8000::3")
self.assertEqual(ip3.reverse_domain, rd0)
ip4 = self.add_ptr_ipv6(osu_block + ":8000::4")
rd1 = self.create_domain(name="2.6.2.0.0.1.0.5.f.0.0.0.8", ip_type='6')
rd1.save()
ip_upper, ip_lower = ipv6_to_longs(osu_block + ":8000::1")
ptr1 = PTR.objects.filter(
ip_upper=ip_upper, ip_lower=ip_lower, ip_type='6')[0]
self.assertEqual(ptr1.reverse_domain, rd1)
ip_upper, ip_lower = ipv6_to_longs(osu_block + ":8000::2")
ptr2 = PTR.objects.filter(
ip_upper=ip_upper, ip_lower=ip_lower, ip_type='6')[0]
self.assertEqual(ptr2.reverse_domain, rd1)
ip_upper, ip_lower = ipv6_to_longs(osu_block + ":8000::3")
ptr3 = PTR.objects.filter(
ip_upper=ip_upper, ip_lower=ip_lower, ip_type='6')[0]
self.assertEqual(ptr3.reverse_domain, rd1)
ip_upper, ip_lower = ipv6_to_longs(osu_block + ":8000::4")
ptr4 = PTR.objects.filter(
ip_upper=ip_upper, ip_lower=ip_lower, ip_type='6')[0]
self.assertEqual(ptr4.reverse_domain, rd1)
rd1.delete()
ip_upper, ip_lower = ipv6_to_longs(osu_block + ":8000::1")
ptr1 = PTR.objects.filter(
ip_upper=ip_upper, ip_lower=ip_lower, ip_type='6')[0]
self.assertEqual(ptr1.reverse_domain, rd0)
ip_upper, ip_lower = ipv6_to_longs(osu_block + ":8000::2")
ptr2 = PTR.objects.filter(
ip_upper=ip_upper, ip_lower=ip_lower, ip_type='6')[0]
self.assertEqual(ptr2.reverse_domain, rd0)
ip_upper, ip_lower = ipv6_to_longs(osu_block + ":8000::3")
ptr3 = PTR.objects.filter(
ip_upper=ip_upper, ip_lower=ip_lower, ip_type='6')[0]
self.assertEqual(ptr3.reverse_domain, rd0)
ip_upper, ip_lower = ipv6_to_longs(osu_block + ":8000::4")
ptr4 = PTR.objects.filter(
ip_upper=ip_upper, ip_lower=ip_lower, ip_type='6')[0]
self.assertEqual(ptr4.reverse_domain, rd0)
def test_large_ipv6(self):
try:
rd = boot_strap_ipv6_reverse_domain('f')
rd.save()
except ValidationError:
pass
ip_str = 'ffff:ffff:ffff:ffff:ffff:ffff:ffff:ffff'
ip = ipaddr.IPv6Address(ip_str)
ip_upper, ip_lower = ipv6_to_longs(ip_str)
self.assertEqual(ip.__int__(), (2 ** 64) * ip_upper + ip_lower)
new_ip = Ip(ip_str=ip_str, ip_upper=ip_upper,
ip_lower=ip_lower, ip_type='6')
new_ip.clean_ip()
self.assertEqual(ip_str, new_ip.ip_str)
self.assertEqual(ip.__int__(), new_ip.__int__())
def check_valid_range(self):
# Look at all ranges that claim to be in this subnet, are they actually
# in the subnet?
self.update_network()
fail = False
for range_ in self.range_set.all():
# TODO
"""
I was writing checks to make sure that subnets wouldn't orphan
ranges. IPv6 needs support.
"""
# Check the start addresses.
if range_.start_upper < self.ip_upper:
fail = True
break
elif (range_.start_upper > self.ip_upper and range_.start_lower <
self.ip_lower):
fail = True
break
elif (range_.start_upper == self.ip_upper and range_.start_lower <
self.ip_lower):
fail = True
break
if self.ip_type == IP_TYPE_4:
brdcst_upper, brdcst_lower = 0, int(self.network.broadcast)
else:
brdcst_upper, brdcst_lower = ipv6_to_longs(str(
self.network.broadcast))
# Check the end addresses.
if range_.end_upper > brdcst_upper:
fail = True
break
elif (range_.end_upper < brdcst_upper and range_.end_lower >
brdcst_lower):
fail = True
break
elif (range_.end_upper == brdcst_upper and range_.end_lower
> brdcst_lower):
fail = True
if fail:
raise ValidationError("Resizing this subnet to the requested "
"network prefix would orphan existing "
"ranges.")
def check_valid_range(self):
# Look at all ranges that claim to be in this subnet, are they actually
# in the subnet?
self.update_network()
fail = False
for range_ in self.range_set.all():
# TODO
"""
I was writing checks to make sure that subnets wouldn't orphan
ranges. IPv6 needs support.
"""
# Check the start addresses.
if range_.start_upper < self.ip_upper:
fail = True
break
elif (range_.start_upper > self.ip_upper and range_.start_lower <
self.ip_lower):
fail = True
break
elif (range_.start_upper == self.ip_upper and range_.start_lower <
self.ip_lower):
fail = True
break
if self.ip_type == IP_TYPE_4:
brdcst_upper, brdcst_lower = 0, int(self.network.broadcast)
else:
brdcst_upper, brdcst_lower = ipv6_to_longs(str(
self.network.broadcast))
# Check the end addresses.
if range_.end_upper > brdcst_upper:
fail = True
break
elif (range_.end_upper < brdcst_upper and range_.end_lower >
brdcst_lower):
fail = True
break
elif (range_.end_upper == brdcst_upper and range_.end_lower
> brdcst_lower):
fail = True
if fail:
raise ValidationError("Resizing this subnet to the requested "
"network prefix would orphan existing "
"ranges.")
def test_large_ipv6(self):
try:
rd = boot_strap_ipv6_reverse_domain('f')
rd.save()
except ValidationError:
pass
ip_str = 'ffff:ffff:ffff:ffff:ffff:ffff:ffff:ffff'
ip = ipaddr.IPv6Address(ip_str)
ip_upper, ip_lower = ipv6_to_longs(ip_str)
self.assertEqual(ip.__int__(), (2**64) * ip_upper + ip_lower)
new_ip = Ip(ip_str=ip_str,
ip_upper=ip_upper,
ip_lower=ip_lower,
ip_type='6')
new_ip.clean_ip()
self.assertEqual(ip_str, new_ip.ip_str)
self.assertEqual(ip.__int__(), new_ip.__int__())
def network_wizard1(request):
if request.method == 'POST':
action = request.POST.get('action', '')
if action == "network":
# return the allocate network block page.
form = NetworkForm_network(request.POST)
try:
ip_type = form.data.get('ip_type')
if ip_type not in ('4', '6'):
raise ValidationError("IP type must be either IPv4 or "
"IPv6.")
network_str = form.data.get('network', '')
try:
if ip_type == '4':
network = ipaddr.IPv4Network(network_str)
elif ip_type == '6':
network = ipaddr.IPv6Network(network_str)
except ipaddr.AddressValueError, e:
raise ValidationError("Bad Ip address {0}".format(e))
except ipaddr.NetmaskValueError, e:
raise ValidationError("Bad Netmask {0}".format(e))
# Make sure this network doesn't exist.
if ip_type == '4':
ip_upper, ip_lower = 0, int(network.network)
else:
ip_upper, ip_lower = ipv6_to_longs(network.network)
if (Network.objects.filter(ip_upper=ip_upper,
ip_lower=ip_lower).exists()):
raise ValidationError("This network has already been "
"allocated.")
except ValidationError, e:
form = NetworkForm_network(request.POST)
if form._errors is None:
form._errors = ErrorDict()
form._errors['__all__'] = ErrorList(e.messages)
return render(request, 'network/wizard_form.html', {
'form': form,
'action': 'network'
})
def network_wizard1(request):
if request.method == 'POST':
action = request.POST.get('action', '')
if action == "network":
# return the allocate network block page.
form = NetworkForm_network(request.POST)
try:
ip_type = form.data.get('ip_type')
if ip_type not in ('4', '6'):
raise ValidationError("IP type must be either IPv4 or "
"IPv6.")
network_str = form.data.get('network', '')
try:
if ip_type == '4':
network = ipaddr.IPv4Network(network_str)
elif ip_type == '6':
network = ipaddr.IPv6Network(network_str)
except ipaddr.AddressValueError, e:
raise ValidationError("Bad Ip address {0}".format(e))
except ipaddr.NetmaskValueError, e:
raise ValidationError("Bad Netmask {0}".format(e))
# Make sure this network doesn't exist.
if ip_type == '4':
ip_upper, ip_lower = 0, int(network.network)
else:
ip_upper, ip_lower = ipv6_to_longs(network.network)
if (Network.objects.filter(ip_upper=ip_upper,
ip_lower=ip_lower).exists()):
raise ValidationError("This network has already been "
"allocated.")
except ValidationError, e:
form = NetworkForm_network(request.POST)
if form._errors is None:
form._errors = ErrorDict()
form._errors['__all__'] = ErrorList(e.messages)
return render(request, 'network/wizard_form.html', {
'form': form,
'action': 'network'
})
def check_valid_range(self):
# Look at all ranges that claim to be in this subnet, are they actually
# in the subnet?
self.update_network()
fail = False
for range_ in self.range_set.all():
# Check the start addresses.
if range_.start_upper < self.ip_upper:
break
elif (range_.start_upper > self.ip_upper
and range_.start_lower < self.ip_lower):
break
elif (range_.start_upper == self.ip_upper
and range_.start_lower < self.ip_lower):
break
if self.ip_type == IP_TYPE_4:
brdcst_upper, brdcst_lower = 0, int(self.network.broadcast)
else:
brdcst_upper, brdcst_lower = ipv6_to_longs(
str(self.network.broadcast))
# Check the end addresses.
if range_.end_upper > brdcst_upper:
break
elif (range_.end_upper < brdcst_upper
and range_.end_lower > brdcst_lower):
break
elif (range_.end_upper == brdcst_upper
and range_.end_lower > brdcst_lower):
break
else: # All ranges are valid.
return
raise ValidationError(
"Resizing this subnet to the requested network prefix would "
"orphan existing ranges.")
def check_valid_range(self):
# Look at all ranges that claim to be in this subnet, are they actually
# in the subnet?
self.update_network()
fail = False
for range_ in self.range_set.all():
# Check the start addresses.
if range_.start_upper < self.ip_upper:
break
elif (range_.start_upper > self.ip_upper and range_.start_lower <
self.ip_lower):
break
elif (range_.start_upper == self.ip_upper and range_.start_lower <
self.ip_lower):
break
if self.ip_type == IP_TYPE_4:
brdcst_upper, brdcst_lower = 0, int(self.network.broadcast)
else:
brdcst_upper, brdcst_lower = ipv6_to_longs(str(
self.network.broadcast))
# Check the end addresses.
if range_.end_upper > brdcst_upper:
break
elif (range_.end_upper < brdcst_upper and range_.end_lower >
brdcst_lower):
break
elif (range_.end_upper == brdcst_upper and range_.end_lower
> brdcst_lower):
break
else: # All ranges are valid.
return
raise ValidationError(
"Resizing this subnet to the requested network prefix would "
"orphan existing ranges.")
def migrate_AAAA(zone, root_domain, soa, views):
for (name, ttl, rdata) in zone.iterate_rdatas('AAAA'):
name = name.to_text().strip('.')
print str(name) + " AAAA " + str(rdata)
exists_domain = Domain.objects.filter(name=name)
if exists_domain:
label = ''
domain = exists_domain[0]
else:
label = name.split('.')[0]
if label.startswith('unused'):
continue
domain_name = '.'.join(name.split('.')[1:])
domain = ensure_domain(domain_name, force=True)
ip_upper, ip_lower = ipv6_to_longs(rdata.to_text())
if AddressRecord.objects.filter(label=label,
domain=domain,
ip_upper=ip_upper,
ip_lower=ip_lower,
ip_type='6').exists():
a = AddressRecord.objects.get(label=label,
domain=domain,
ip_type='6',
ip_upper=ip_upper,
ip_lower=ip_lower)
else:
a = AddressRecord(label=label,
domain=domain,
ip_str=rdata.to_text(),
ip_type='6')
a.clean()
a.save()
for view in views:
a.views.add(view)
a.save()
def create_ipv4_interface(label,
vlan_str,
site_str,
system,
mac,
domain_suffix,
network_str=None):
"""This is an api for creating an interface.
:param label: The label of the interface.
:type lavel: str
:param vlan_str: The name of the vlan the interface should be put into.
:type vlan_str: str
:param site_str: The Datacenter (and possibly the Buisness Unit)
the vlan is in.
:type site_str: str
:param system: The system the interface belongs to.
:type system: :class:`System`
:param mac: The mac address of the new interface.
:type mac: str
:param domain_suffix: The suffix of the domain. This is usually
'mozilla.com'.
:type domain_suffix: str
:param network_str: This is an optional paramter. If you get a
:class:`MultipleObjectsReturned` error when trying to find a network,
you can specify which network to use by passing the network's name
using this kwarg. E.g. ``network="10.22.9.0/24"``
:type network_str: str
This function returns two values. The first value is the
:class:`StaticInterface` instance. If the interface was succesfully created
the second return value is meaningless. If there were errors while creating
the interface the first value is None and the second return value is an
ErrorDict containing errors that should be displayed to the user. Always
check the first return value for being a NoneType.
Using this function requires that certain objects exist in the database.
*Understanding these objects before using this function is a good thing*.
::
<label> (.<BU>) .<DC> . <domain_suffix>
1. This function starts by looking for a site in the site table that has a
site path (i.e. `<BU>.<DC>` like 'relenge.scl3' or just 'scl3') equal
to the 'site_str' paramter.
If you get errors from this step (i.e. There is a 'site' key in the
errors dictionary), create the site you are trying to use in the Web
UI.
2. The function then looks in the site found in Step 1 for a :class:`Vlan`
instance with a name equal to the 'vlan_str' parameter.
If you get errors from this step (i.e. There is a 'vlan' key in the
errors dictionary), create the vlan you are trying to use in the Web
UI.
3. Using the :class:`Site` and :class:`Vlan` instance found in Step 1 & 2
and the `domain_suffix` paramter, the function constructs the following
string.::
<vlan>.<site>.<domain_suffix>
As an example, imaging we were using::
site = relenge.scl3
vlan = db
domain_suffix = mozilla.com
The constructed string would be::
db.relenge.scl3.mozilla.com
The function will now use this constructed string as the domain name
for creating the interface's A/PTR records. For this reason *a domain
with the constructed name _must_ be in the database*.
If you get errors from this step (i.e. There is a 'domain' key in the
errors dictionary), create the domain you are trying to use in the Web
UI.
4. The function then looks at the networks associated with that vlan found
in Step 2 and chooses the networks that are associated to the site
found in Step 1.
If you get errors from this step (i.e. There is a 'network' key in the
errors dictionary), create the network you are trying to use in the Web
UI and associate it with the vlan *and* site you are trying to use.
5. The function then looks for ranges within the networks found in Step 4.
If the function finds more than one range it does not make a choice for
you and returns an error. If the function finds only one range it looks
for a free IP in that range while returning an error if no free IP is
found.
6. Using the 'label', 'system', 'mac', and IP address found in Step 4, a
new StaticInterface is created. If there are errors while creating the
Interface those errors are returned. If there are no errors while
creating the Interface the Interface is returned.
"""
errors = ErrorDict()
if not label:
errors['label'] = ErrorList(["Please supply a label."])
return None, errors
if not system:
errors['system'] = ErrorList(
"Please supply a system.".format(site_str))
return None, errors
site = None
for s in Site.objects.all():
if '.'.join(s.get_site_path().split('.')) == site_str:
site = s
break
if not site:
errors['site'] = ErrorList(
["Site {0} does not exist".format(site_str)])
return None, errors
try:
vlan = Vlan.objects.get(name=vlan_str)
except ObjectDoesNotExist:
errors['vlan'] = ErrorList(
["Vlan {0} does not exist.".format(vlan_str)])
return None, errors
tmp_site_str = '.'.join(s.get_site_path().split('.'))
domain_name = vlan.name + "." + tmp_site_str + "." + domain_suffix
try:
domain = Domain.objects.get(name=domain_name)
except ObjectDoesNotExist:
errors['domain'] = ErrorList(
["Could not find domain "
"{0}".format(domain_name)])
return None, errors
if not network_str:
try:
network = vlan.network_set.get(site=site)
except MultipleObjectsReturned:
networks = vlan.network_set.filter(site=site)
errors['network'] = ErrorList([
"There were too many networks "
"associated with vlan {0} in {1}. "
"Manually specify which network to "
"use. Your choces are {2}".format(
vlan, site, ", ".join([n.network_str for n in networks]))
])
return None, errors
except ObjectDoesNotExist:
errors['network'] = "No network for vlan {0} in {1}.".format(
vlan, site)
return None, errors
else:
try:
# Guess which type of network it is.
try:
if network_str.find(':') > -1:
ip_type = '6'
tmp_network = ipaddr.IPv6Network(network_str)
ip_upper, ip_lower = ipv6_to_longs(tmp_network)
else:
ip_type = '4'
tmp_network = ipaddr.IPv4Network(network_str)
ip_upper, ip_lower = 0, int(tmp_network)
except ipaddr.AddressValueError:
errors['network'] = ErrorList([
"The network {0} is not a "
"valid IPv{1} network.".format(network_str, ip_type)
])
return None, errors
# Now try to find a network that matches the query. Error out if we
# can't find one and recommend the user create it.
network = Network.objects.get(ip_type=ip_type,
ip_upper=ip_upper,
ip_lower=ip_lower,
prefixlen=tmp_network.prefixlen)
except ObjectDoesNotExist:
errors['network'] = ErrorList([
"The network {0} was not found. "
"Consider creating it in the web "
"UI.".format(network_str)
])
return None, errors
if not network.range_set.all().exists():
errors['range'] = ErrorList([
"No range for network {0} in vlan {1} in "
"site {0}. Create it via the web UI too "
"many networks associated with vlan "
"{0} in {1}".format(network, vlan, site)
])
return None, errors
if network.range_set.all().count() > 1:
errors['ip'] = ErrorList([
"Too many ranges. In the face of ambiguity, "
"*this script* has refused the temptation "
"to guess which range you want to put the "
"interface in."
])
return None, errors
range_ = network.range_set.all()[0]
return _create_ipv4_intr_from_range(label, domain.name, system, mac,
range_.start_lower, range_.end_lower)
def redirect_to_range_from_ip(request):
ip_str = request.GET.get('ip_str')
ip_type = request.GET.get('ip_type')
if not (ip_str and ip_type):
return HttpResonse(json.dumps({'failure': "Slob"}))
if ip_type == '4':
try:
ip_upper, ip_lower = 0, int(ipaddr.IPv4Address(ip_str))
except ipaddr.AddressValueError, e:
return HttpResonse(json.dumps({'success': False,
'message': "Failure to recognize {0} as an IPv4 "
"Address.".format(ip_str)}))
else:
try:
ip_upper, ip_lower = ipv6_to_longs(ip_str)
except ValidationError, e:
return HttpResponse(json.dumps({'success': False,
'message': 'Invalid IP'}))
range_ = Range.objects.filter(start_upper__lte=ip_upper,
start_lower__lte=ip_lower, end_upper__gte=ip_upper,
end_lower__gte=ip_lower)
if not len(range_) == 1:
return HttpResponse(json.dumps({'failure': "Failture to find range"}))
else:
return HttpResponse(json.dumps(
{'success': True,
'redirect_url': range_[0].get_detail_url()}))
def test_ipv6_to_longs(self):
ip = ipaddr.IPv6Address('2001:0db8:85a3:0000:0000:8a2e:0370:733')
ret = ipv6_to_longs(ip.__str__())
self.assertEqual(ret, (2306139570357600256, 151930230802227))
domain_name)
for a in clober_objects:
a.domain = domain
a.clean()
try:
a.save()
except Exception, e:
pdb.set_trace()
pass
if created and domain.master_domain and domain.master_domain.soa:
#domain.soa = domain.master_domain.soa
#domain.save()
null_all_soas(domain)
set_all_soas(domain, domain.master_domain.soa)
ip_upper, ip_lower = ipv6_to_longs(rdata.to_text())
if AddressRecord.objects.filter(label=label,
domain=domain, ip_upper=ip_upper, ip_lower=ip_lower,
ip_type='6').exists():
a = AddressRecord.objects.get(label=label,
domain=domain, ip_type='6', ip_upper=ip_upper,
ip_lower=ip_lower)
else:
a, _ = AddressRecord.objects.get_or_create(label=label,
domain=domain, ip_str=rdata.to_text(), ip_type='6')
if views:
for view in views:
a.views.add(view)
try:
a.save()
except Exception, e:
class SimpleTest(TestCase):
def setUp(self):
self.arpa = self.create_domain(name='arpa')
self.arpa.save()
self.i_arpa = self.create_domain(name='in-addr.arpa')
self.i_arpa.save()
self.i6_arpa = self.create_domain(name='ipv6.arpa')
self.i6_arpa.save()
rd = self.create_domain(name='66', ip_type='4')
rd.save()
def create_domain(self, name, ip_type=None, delegated=False):
if ip_type is None:
ip_type = '4'
if name in ('arpa', 'in-addr.arpa', 'ipv6.arpa'):
pass
else:
name = ip_to_domain_name(name, ip_type=ip_type)
d = Domain(name=name, delegated=delegated)
d.clean()
self.assertTrue(d.is_reverse)
return d
def test_ipv4_str(self):
rd = self.create_domain(name='192', ip_type='4')
rd.save()
ip_str = '192.168.1.1'
ip = ipaddr.IPv4Address(ip_str)
Ip(ip_str=ip_str, ip_type='4').clean_ip()
rd = self.create_domain(name='128', ip_type='4')
rd.save()
ip_str = '128.168.1.1'
ip = ipaddr.IPv4Address(ip_str)
Ip(ip_str=ip_str, ip_type='4').clean_ip()
def test_update_ipv4_str(self):
ip_str = '66.168.1.1'
v_ip = ipaddr.IPv4Address(ip_str)
ip = Ip(ip_str=ip_str, ip_type='4')
ip.clean_ip()
self.assertEqual(ip.ip_upper, 0)
self.assertEqual(ip.ip_lower, int(v_ip))
# Make sure ip_lower is update.
ip_str = '66.213.1.9'
v_ip = ipaddr.IPv4Address(ip_str)
ip.ip_str = ip_str
ip.clean_ip()
self.assertEqual(ip.ip_upper, 0)
self.assertEqual(ip.ip_lower, int(v_ip))
def test_ipv6_str(self):
rd = boot_strap_ipv6_reverse_domain('1.2.3.4')
ip_str = '1234:1234:1243:1243:1243::'
new_ip = Ip(ip_str=ip_str, ip_type='6')
new_ip.clean_ip()
ip_upper, ip_lower = ipv6_to_longs(ip_str)
self.assertEqual(new_ip.ip_upper, ip_upper)
self.assertEqual(new_ip.ip_lower, ip_lower)
ip_str = '1234:432:3:0:3414:22::'
new_ip = Ip(ip_str=ip_str, ip_type='6')
new_ip.clean_ip()
ip_upper, ip_lower = ipv6_to_longs(ip_str)
self.assertEqual(new_ip.ip_upper, ip_upper)
self.assertEqual(new_ip.ip_lower, ip_lower)
def test_large_ipv6(self):
try:
rd = boot_strap_ipv6_reverse_domain('f')
rd.save()
except ValidationError, e:
pass
ip_str = 'ffff:ffff:ffff:ffff:ffff:ffff:ffff:ffff'
ip = ipaddr.IPv6Address(ip_str)
ip_upper, ip_lower = ipv6_to_longs(ip_str)
self.assertEqual(ip.__int__(), (2**64) * ip_upper + ip_lower)
new_ip = Ip(ip_str=ip_str,
ip_upper=ip_upper,
ip_lower=ip_lower,
ip_type='6')
new_ip.clean_ip()
self.assertEqual(ip_str, new_ip.ip_str)
self.assertEqual(ip.__int__(), new_ip.__int__())
def search_ip(request):
if request.method == "POST":
form = IpSearchForm(request.POST)
try:
if form.is_valid():
ip_type = form.cleaned_data['ip_type']
search_ip = form.cleaned_data['search_ip']
try:
if ip_type == '4':
network = ipaddr.IPv4Network(search_ip)
if ip_type == '6':
network = ipaddr.IPv6Network(search_ip)
except ipaddr.AddressValueError, e:
form._errors['__all__'] = ErrorList(
["Bad IPv{0} Address {1}".format(ip_type, search_ip)])
return render(request, 'cydhcp/cydhcp_form.html', {
'form': form
})
try:
network = Network.objects.get(network_str=search_ip)
search_ip = network
found_exact = True
except ObjectDoesNotExist:
found_exact = False
network = Network(ip_type, network_str=search_ip,
ip_type=ip_type)
parent = calc_parent(network)
eldars, sub_networks = calc_networks(network)
if ip_type == '6':
sip_upper, sip_lower = ipv6_to_longs(network.network.ip)
eip_upper, eip_lower = ipv6_to_longs(
network.network.broadcast)
else:
sip_upper, sip_lower = 0, int(network.network.ip)
eip_upper, eip_lower = 0, int(network.network.broadcast)
addrs_count = AddressRecord.objects.filter(
ip_upper__gte=sip_upper,
ip_lower__gte=sip_lower,
ip_upper__lte=eip_upper,
ip_lower__lte=eip_lower).count()
if addrs_count > 100:
addrs = None # This is too much
else:
addrs = AddressRecord.objects.filter(
ip_upper__gte=sip_upper,
ip_lower__gte=sip_lower,
ip_upper__lte=eip_upper,
ip_lower__lte=eip_lower)
ptrs_count = PTR.objects.filter(
ip_upper__gte=sip_upper,
ip_lower__gte=sip_lower,
ip_upper__lte=eip_upper,
ip_lower__lte=eip_lower).count()
if ptrs_count > 100:
ptrs = None # This is too much
else:
ptrs = PTR.objects.filter(
ip_upper__gte=sip_upper,
ip_lower__gte=sip_lower,
ip_upper__lte=eip_upper,
ip_lower__lte=eip_lower)
return render(request, 'cydhcp/cydhcp_results.html', {
'search_ip': search_ip,
'found_exact': found_exact,
'addrs': addrs,
'addrs_count': addrs_count,
'ptrs_count': ptrs_count,
'ptrs': ptrs,
'parent': parent,
'eldars': eldars,
'sub_networks': sub_networks,
})
except ValidationError, e:
form._errors['__all__'] = ErrorList(e.messages)
return render(request, 'cydhcp/cydhcp_form.html', {
'form': form
})
def test_ipv6_to_longs(self):
ip = ipaddr.IPv6Address('2001:0db8:85a3:0000:0000:8a2e:0370:733')
ret = ipv6_to_longs(str(ip))
self.assertEqual(ret, (2306139570357600256, 151930230802227))
def create_ipv4_interface(label, vlan_str, site_str, system,
mac, domain_suffix, network_str=None):
"""This is an api for creating an interface.
:param label: The label of the interface.
:type lavel: str
:param vlan_str: The name of the vlan the interface should be put into.
:type vlan_str: str
:param site_str: The Datacenter (and possibly the Buisness Unit)
the vlan is in.
:type site_str: str
:param system: The system the interface belongs to.
:type system: :class:`System`
:param mac: The mac address of the new interface.
:type mac: str
:param domain_suffix: The suffix of the domain. This is usually
'mozilla.com'.
:type domain_suffix: str
:param network_str: This is an optional paramter. If you get a
:class:`MultipleObjectsReturned` error when trying to find a network,
you can specify which network to use by passing the network's name
using this kwarg. E.g. ``network="10.22.9.0/24"``
:type network_str: str
This function returns two values. The first value is the
:class:`StaticInterface` instance. If the interface was succesfully created
the second return value is meaningless. If there were errors while creating
the interface the first value is None and the second return value is an
ErrorDict containing errors that should be displayed to the user. Always
check the first return value for being a NoneType.
Using this function requires that certain objects exist in the database.
*Understanding these objects before using this function is a good thing*.
::
<label> (.<BU>) .<DC> . <domain_suffix>
1. This function starts by looking for a site in the site table that has a
site path (i.e. `<BU>.<DC>` like 'relenge.scl3' or just 'scl3') equal
to the 'site_str' paramter.
If you get errors from this step (i.e. There is a 'site' key in the
errors dictionary), create the site you are trying to use in the Web
UI.
2. The function then looks in the site found in Step 1 for a :class:`Vlan`
instance with a name equal to the 'vlan_str' parameter.
If you get errors from this step (i.e. There is a 'vlan' key in the
errors dictionary), create the vlan you are trying to use in the Web
UI.
3. Using the :class:`Site` and :class:`Vlan` instance found in Step 1 & 2
and the `domain_suffix` paramter, the function constructs the following
string.::
<vlan>.<site>.<domain_suffix>
As an example, imaging we were using::
site = relenge.scl3
vlan = db
domain_suffix = mozilla.com
The constructed string would be::
db.relenge.scl3.mozilla.com
The function will now use this constructed string as the domain name
for creating the interface's A/PTR records. For this reason *a domain
with the constructed name _must_ be in the database*.
If you get errors from this step (i.e. There is a 'domain' key in the
errors dictionary), create the domain you are trying to use in the Web
UI.
4. The function then looks at the networks associated with that vlan found
in Step 2 and chooses the networks that are associated to the site
found in Step 1.
If you get errors from this step (i.e. There is a 'network' key in the
errors dictionary), create the network you are trying to use in the Web
UI and associate it with the vlan *and* site you are trying to use.
5. The function then looks for ranges within the networks found in Step 4.
If the function finds more than one range it does not make a choice for
you and returns an error. If the function finds only one range it looks
for a free IP in that range while returning an error if no free IP is
found.
6. Using the 'label', 'system', 'mac', and IP address found in Step 4, a
new StaticInterface is created. If there are errors while creating the
Interface those errors are returned. If there are no errors while
creating the Interface the Interface is returned.
"""
errors = ErrorDict()
if not label:
errors['label'] = ErrorList(["Please supply a label."])
return None, errors
if not system:
errors['system'] = ErrorList(
"Please supply a system.".format(site_str))
return None, errors
site = None
for s in Site.objects.all():
if '.'.join(s.get_site_path().split('.')) == site_str:
site = s
break
if not site:
errors['site'] = ErrorList(
["Site {0} does not exist".format(site_str)])
return None, errors
try:
vlan = Vlan.objects.get(name=vlan_str)
except ObjectDoesNotExist:
errors['vlan'] = ErrorList(["Vlan {0} does not exist.".format(
vlan_str)])
return None, errors
tmp_site_str = '.'.join(s.get_site_path().split('.'))
domain_name = vlan.name + "." + tmp_site_str + "." + domain_suffix
try:
domain = Domain.objects.get(name=domain_name)
except ObjectDoesNotExist:
errors['domain'] = ErrorList(["Could not find domain "
"{0}".format(domain_name)])
return None, errors
if not network_str:
try:
network = vlan.network_set.get(site=site)
except MultipleObjectsReturned:
networks = vlan.network_set.filter(site=site)
errors['network'] = ErrorList(["There were too many networks "
"associated with vlan {0} in {1}. "
"Manually specify which network to "
"use. Your choces are {2}".format(
vlan, site,
", ".join([n.network_str
for n in networks]))])
return None, errors
except ObjectDoesNotExist:
errors['network'] = "No network for vlan {0} in {1}.".format(
vlan, site)
return None, errors
else:
try:
# Guess which type of network it is.
try:
if network_str.find(':') > -1:
ip_type = '6'
tmp_network = ipaddr.IPv6Network(network_str)
ip_upper, ip_lower = ipv6_to_longs(tmp_network)
else:
ip_type = '4'
tmp_network = ipaddr.IPv4Network(network_str)
ip_upper, ip_lower = 0, int(tmp_network)
except ipaddr.AddressValueError:
errors['network'] = ErrorList(["The network {0} is not a "
"valid IPv{1} network.".format(
network_str, ip_type)])
return None, errors
# Now try to find a network that matches the query. Error out if we
# can't find one and recommend the user create it.
network = Network.objects.get(ip_type=ip_type, ip_upper=ip_upper,
ip_lower=ip_lower,
prefixlen=tmp_network.prefixlen)
except ObjectDoesNotExist:
errors['network'] = ErrorList(["The network {0} was not found. "
"Consider creating it in the web "
"UI.".format(network_str)])
return None, errors
if not network.range_set.all().exists():
errors['range'] = ErrorList(["No range for network {0} in vlan {1} in "
"site {0}. Create it via the web UI too "
"many networks associated with vlan "
"{0} in {1}".format(network, vlan, site)])
return None, errors
if network.range_set.all().count() > 1:
errors['ip'] = ErrorList(["Too many ranges. In the face of ambiguity, "
"*this script* has refused the temptation "
"to guess which range you want to put the "
"interface in."])
return None, errors
range_ = network.range_set.all()[0]
return _create_ipv4_intr_from_range(label,
domain.name,
system,
mac,
range_.start_lower,
range_.end_lower)
def search_ip(request):
if request.method == "POST":
form = IpSearchForm(request.POST)
try:
if form.is_valid():
ip_type = form.cleaned_data['ip_type']
search_ip = form.cleaned_data['search_ip']
try:
if ip_type == '4':
network = ipaddr.IPv4Network(search_ip)
if ip_type == '6':
network = ipaddr.IPv6Network(search_ip)
except ipaddr.AddressValueError, e:
form._errors['__all__'] = ErrorList(
["Bad IPv{0} Address {1}".format(ip_type, search_ip)])
return render(request, 'cydhcp/cydhcp_form.html',
{'form': form})
try:
network = Network.objects.get(network_str=search_ip)
search_ip = network
found_exact = True
except ObjectDoesNotExist:
found_exact = False
network = Network(ip_type,
network_str=search_ip,
ip_type=ip_type)
parent = calc_parent(network)
eldars, sub_networks = calc_networks(network)
if ip_type == '6':
sip_upper, sip_lower = ipv6_to_longs(network.network.ip)
eip_upper, eip_lower = ipv6_to_longs(
network.network.broadcast)
else:
sip_upper, sip_lower = 0, int(network.network.ip)
eip_upper, eip_lower = 0, int(network.network.broadcast)
addrs_count = AddressRecord.objects.filter(
ip_upper__gte=sip_upper,
ip_lower__gte=sip_lower,
ip_upper__lte=eip_upper,
ip_lower__lte=eip_lower).count()
if addrs_count > 100:
addrs = None # This is too much
else:
addrs = AddressRecord.objects.filter(
ip_upper__gte=sip_upper,
ip_lower__gte=sip_lower,
ip_upper__lte=eip_upper,
ip_lower__lte=eip_lower)
ptrs_count = PTR.objects.filter(
ip_upper__gte=sip_upper,
ip_lower__gte=sip_lower,
ip_upper__lte=eip_upper,
ip_lower__lte=eip_lower).count()
if ptrs_count > 100:
ptrs = None # This is too much
else:
ptrs = PTR.objects.filter(ip_upper__gte=sip_upper,
ip_lower__gte=sip_lower,
ip_upper__lte=eip_upper,
ip_lower__lte=eip_lower)
return render(
request, 'cydhcp/cydhcp_results.html', {
'search_ip': search_ip,
'found_exact': found_exact,
'addrs': addrs,
'addrs_count': addrs_count,
'ptrs_count': ptrs_count,
'ptrs': ptrs,
'parent': parent,
'eldars': eldars,
'sub_networks': sub_networks,
})
except ValidationError, e:
form._errors['__all__'] = ErrorList(e.messages)
return render(request, 'cydhcp/cydhcp_form.html', {'form': form})
name=domain_name)
for a in clober_objects:
a.domain = domain
a.clean()
try:
a.save()
except Exception, e:
pdb.set_trace()
pass
if created and domain.master_domain and domain.master_domain.soa:
#domain.soa = domain.master_domain.soa
#domain.save()
null_all_soas(domain)
set_all_soas(domain, domain.master_domain.soa)
ip_upper, ip_lower = ipv6_to_longs(rdata.to_text())
if AddressRecord.objects.filter(label=label,
domain=domain,
ip_upper=ip_upper,
ip_lower=ip_lower,
ip_type='6').exists():
a = AddressRecord.objects.get(label=label,
domain=domain,
ip_type='6',
ip_upper=ip_upper,
ip_lower=ip_lower)
else:
a, _ = AddressRecord.objects.get_or_create(label=label,
domain=domain,
ip_str=rdata.to_text(),
ip_type='6')
def test1_ipv6_to_longs(self):
ip_str = "FFFF:FFFF:FFFF:FFFF:FFFF:FFFF:FFFF:FFFF"
ip_upper, ip_lower = ipv6_to_longs(ip_str)
self.assertEqual(hex(ip_upper).lower(), "0xffffffffffffffffl")
self.assertEqual(hex(ip_lower).lower(), "0xffffffffffffffffl")
def test1_ipv6_to_longs(self):
ip_str = "FFFF:FFFF:FFFF:FFFF:FFFF:FFFF:FFFF:FFFF"
ip_upper, ip_lower = ipv6_to_longs(ip_str)
self.assertEqual(hex(ip_upper).lower(), "0xffffffffffffffffl")
self.assertEqual(hex(ip_lower).lower(), "0xffffffffffffffffl")