[thread-cert] refactor case 5.6.1, 5.6.2, 5.6.3, 5.6.4, 5.6.5 using pktverify (#5366)

This commit is contained in:
Jing Ma
2020-09-01 22:44:17 -07:00
committed by GitHub
parent 002cc8e912
commit 63a7a2a80c
5 changed files with 288 additions and 29 deletions
@@ -31,6 +31,9 @@ import unittest
import config
import thread_cert
from pktverify.consts import MLE_ADVERTISEMENT, MLE_LINK_REQUEST, MLE_PARENT_REQUEST, MLE_PARENT_RESPONSE, MLE_CHILD_UPDATE_RESPONSE, MLE_CHILD_ID_REQUEST, MLE_CHILD_ID_RESPONSE, RESPONSE_TLV, LINK_LAYER_FRAME_COUNTER_TLV, MODE_TLV, TIMEOUT_TLV, VERSION_TLV, TLV_REQUEST_TLV, ADDRESS16_TLV, NETWORK_DATA_TLV, ROUTE64_TLV, MODE_TLV, TIMEOUT_TLV, CHALLENGE_TLV, SOURCE_ADDRESS_TLV, LEADER_DATA_TLV, ADDRESS_REGISTRATION_TLV
from pktverify.packet_verifier import PacketVerifier
from pktverify.addrs import Ipv6Addr
LEADER = 1
ROUTER = 2
@@ -43,23 +46,27 @@ MTDS = [ED1, SED1]
class Cert_5_6_1_NetworkDataLeaderAsBr(thread_cert.TestCase):
TOPOLOGY = {
LEADER: {
'name': 'LEADER',
'mode': 'rsdn',
'panid': 0xface,
'whitelist': [ROUTER]
},
ROUTER: {
'name': 'ROUTER',
'mode': 'rsdn',
'panid': 0xface,
'router_selection_jitter': 1,
'whitelist': [LEADER, ED1, SED1]
},
ED1: {
'name': 'MED',
'is_mtd': True,
'mode': 'rsn',
'panid': 0xface,
'whitelist': [ROUTER]
},
SED1: {
'name': 'SED',
'is_mtd': True,
'mode': 's',
'panid': 0xface,
@@ -95,6 +102,7 @@ class Cert_5_6_1_NetworkDataLeaderAsBr(thread_cert.TestCase):
self.simulator.go(5)
self.assertEqual(self.nodes[SED1].get_state(), 'child')
self.collect_rloc16s()
addrs = self.nodes[ED1].get_addrs()
self.assertTrue(any('2001:2:0:1' in addr[0:10] for addr in addrs))
self.assertTrue(any('2001:2:0:2' in addr[0:10] for addr in addrs))
@@ -109,6 +117,62 @@ class Cert_5_6_1_NetworkDataLeaderAsBr(thread_cert.TestCase):
if addr[0:10] == '2001:2:0:1' or addr[0:10] == '2001:2:0:2':
self.assertTrue(self.nodes[LEADER].ping(addr))
def verify(self, pv):
pkts = pv.pkts
pv.summary.show()
ROUTER = pv.vars['ROUTER']
MED = pv.vars['MED']
SED = pv.vars['SED']
_rpkts = pkts.filter_wpan_src64(ROUTER)
_mpkts = pkts.filter_wpan_src64(MED)
_spkts = pkts.filter_wpan_src64(SED)
# Step 3: The DUT MUST request the Network Data TLV during the
# attaching procedure when sending MLE Child ID Request frame
_rpkts.filter_mle_cmd(MLE_CHILD_ID_REQUEST).must_next().must_verify(
lambda p: {
RESPONSE_TLV, LINK_LAYER_FRAME_COUNTER_TLV, MODE_TLV, TIMEOUT_TLV, VERSION_TLV, TLV_REQUEST_TLV,
ADDRESS16_TLV, NETWORK_DATA_TLV, ROUTE64_TLV
} < set(p.mle.tlv.type))
_rpkts_med = _rpkts.copy()
_rpkts_sed = _rpkts.copy()
# Step 6: The DUT MUST send an MLE Child ID Response to SED_1,
# containing only stable Network Data
_rpkts_sed.filter_mle_cmd(MLE_CHILD_ID_RESPONSE).filter_wpan_dst64(SED).must_next().must_verify(
lambda p: {MODE_TLV, TIMEOUT_TLV, CHALLENGE_TLV} == set(p.thread_nwd.tlv.type) and
{Ipv6Addr('2001:2:0:1::')} == set(p.thread_nwd.tlv.prefix) and p.thread_nwd.tlv.border_router.flag.p ==
[1] and p.thread_nwd.tlv.border_router.flag.s == [1] and p.thread_nwd.tlv.border_router.flag.r == [1] and p
.thread_nwd.tlv.border_router.flag.o == [1] and p.thread_nwd.tlv.stable == [1, 1, 1])
# Step 8: The DUT MUST send a MLE Child ID Response to MED_1,
# containing the full Network Data
_rpkts_med.filter_mle_cmd(MLE_CHILD_ID_RESPONSE).filter_wpan_dst64(MED).must_next().must_verify(
lambda p: {Ipv6Addr('2001:2:0:1::'), Ipv6Addr('2001:2:0:2::')} == set(
p.thread_nwd.tlv.prefix) and p.thread_nwd.tlv.border_router.flag.p == [1, 1] and p.thread_nwd.tlv.
border_router.flag.s == [1, 1] and p.thread_nwd.tlv.border_router.flag.r == [1, 1] and p.thread_nwd.tlv.
border_router.flag.o == [1, 1] and p.thread_nwd.tlv.stable == [0, 1, 1, 1, 0, 0, 0])
# Step 10: The DUT MUST send a unicast MLE Child Update
# Response to each of MED_1 and SED_1
_rpkts_med.filter_mle_cmd(MLE_CHILD_UPDATE_RESPONSE).must_next().must_verify(
lambda p: p.wpan.dst64 == MED and
{SOURCE_ADDRESS_TLV, MODE_TLV, LEADER_DATA_TLV, ADDRESS_REGISTRATION_TLV} < set(p.mle.tlv.type))
_rpkts_sed.filter_mle_cmd(MLE_CHILD_UPDATE_RESPONSE).must_next().must_verify(
lambda p: p.wpan.dst64 == SED and
{SOURCE_ADDRESS_TLV, MODE_TLV, LEADER_DATA_TLV, ADDRESS_REGISTRATION_TLV} < set(p.mle.tlv.type))
# Step 11: MED_1 and SED_1 MUST respond to each ICMPv6 Echo Request
# with an ICMPv6 Echo Reply
med_rloc16 = pv.vars['MED_RLOC16']
sed_rloc16 = pv.vars['SED_RLOC16']
router_rloc16 = pv.vars['ROUTER_RLOC16']
_mpkts.range(_rpkts_med.index).filter(
lambda p: p.wpan.src16 == med_rloc16 and p.wpan.dst16 == router_rloc16).filter_ping_reply().must_next()
_spkts.range(_rpkts_sed.index).filter(
lambda p: p.wpan.src16 == sed_rloc16 and p.wpan.dst16 == router_rloc16).filter_ping_reply().must_next()
if __name__ == '__main__':
unittest.main()
@@ -31,6 +31,9 @@ import unittest
import config
import thread_cert
from pktverify.consts import MLE_ADVERTISEMENT, MLE_DATA_RESPONSE, MLE_CHILD_ID_RESPONSE, ADDR_SOL_URI, MLE_CHILD_UPDATE_RESPONSE, MODE_TLV, LEADER_DATA_TLV, ROUTE64_TLV, SOURCE_ADDRESS_TLV, ACTIVE_TIMESTAMP_TLV, ADDRESS16_TLV, NETWORK_DATA_TLV, ADDRESS_REGISTRATION_TLV
from pktverify.packet_verifier import PacketVerifier
from pktverify.addrs import Ipv6Addr
LEADER = 1
ROUTER = 2
@@ -43,23 +46,27 @@ MTDS = [ED1, SED1]
class Cert_5_6_2_NetworkDataRouterAsBr(thread_cert.TestCase):
TOPOLOGY = {
LEADER: {
'name': 'LEADER',
'mode': 'rsdn',
'panid': 0xface,
'whitelist': [ROUTER, ED1, SED1]
},
ROUTER: {
'name': 'ROUTER',
'mode': 'rsdn',
'panid': 0xface,
'router_selection_jitter': 1,
'whitelist': [LEADER]
},
ED1: {
'name': 'MED',
'is_mtd': True,
'mode': 'rsn',
'panid': 0xface,
'whitelist': [LEADER]
},
SED1: {
'name': 'SED',
'is_mtd': True,
'mode': 's',
'panid': 0xface,
@@ -107,6 +114,60 @@ class Cert_5_6_2_NetworkDataRouterAsBr(thread_cert.TestCase):
if addr[0:10] == '2001:2:0:1' or addr[0:10] == '2001:2:0:2':
self.assertTrue(self.nodes[LEADER].ping(addr))
def verify(self, pv):
pkts = pv.pkts
pv.summary.show()
LEADER = pv.vars['LEADER']
ROUTER = pv.vars['ROUTER']
MED = pv.vars['MED']
SED = pv.vars['SED']
_lpkts = pkts.filter_wpan_src64(LEADER)
# Step 1: The DUT MUST send properly formatted MLE Advertisements
_lpkts.filter_mle_cmd(MLE_ADVERTISEMENT).must_next().must_verify(
lambda p: {LEADER_DATA_TLV, ROUTE64_TLV, SOURCE_ADDRESS_TLV} == set(p.mle.tlv.type))
# Step 3: The DUT MUST properly attach Router_1 device to the network,
# and transmit Network Data during the attach phase in the
# Child ID Response frame of the Network Data TLV
_lpkts.filter_mle_cmd(MLE_CHILD_ID_RESPONSE).must_next().must_verify(lambda p: p.wpan.dst64 == ROUTER and {
SOURCE_ADDRESS_TLV, LEADER_DATA_TLV, ACTIVE_TIMESTAMP_TLV, ADDRESS16_TLV, NETWORK_DATA_TLV
} < set(p.mle.tlv.type))
# Step 5: The DUT Automatically sends a CoAP Response frame and
# MLE Data Response message
_lpkts.filter_coap_ack(ADDR_SOL_URI).must_next()
_lpkts.filter_mle_cmd(MLE_DATA_RESPONSE).must_next().must_verify(
lambda p: {Ipv6Addr('2001:2:0:1::'), Ipv6Addr('2001:2:0:2::')} == set(
p.thread_nwd.tlv.prefix) and p.thread_nwd.tlv.border_router.flag.p == [1, 1] and p.thread_nwd.tlv.
border_router.flag.s == [1, 1] and p.thread_nwd.tlv.border_router.flag.r == [1, 1] and p.thread_nwd.tlv.
border_router.flag.o == [1, 1] and p.thread_nwd.tlv.stable == [0, 1, 1, 1, 0, 0, 0])
_lpkts_med = _lpkts.copy()
_lpkts_sed = _lpkts.copy()
# Step 7: The DUT MUST send a MLE Child ID Response to SED_1,
# containing the stable Network Data
_lpkts_sed.filter_mle_cmd(MLE_CHILD_ID_RESPONSE).filter_wpan_dst64(SED).must_next().must_verify(
lambda p: {Ipv6Addr('2001:2:0:1::')} == set(p.thread_nwd.tlv.prefix) and p.thread_nwd.tlv.border_router.
flag.p == [1] and p.thread_nwd.tlv.border_router.flag.s == [1] and p.thread_nwd.tlv.border_router.flag.r ==
[1] and p.thread_nwd.tlv.border_router.flag.o == [1] and p.thread_nwd.tlv.stable == [1, 1, 1])
# Step 9: The DUT MUST send a MLE Child ID Response to MED_1,
# containing the full Network Data
_lpkts_med.filter_mle_cmd(MLE_CHILD_ID_RESPONSE).filter_wpan_dst64(MED).must_next().must_verify(
lambda p: {Ipv6Addr('2001:2:0:1::'), Ipv6Addr('2001:2:0:2::')} == set(
p.thread_nwd.tlv.prefix) and p.thread_nwd.tlv.border_router.flag.p == [1, 1] and p.thread_nwd.tlv.
border_router.flag.s == [1, 1] and p.thread_nwd.tlv.border_router.flag.r == [1, 1] and p.thread_nwd.tlv.
border_router.flag.o == [1, 1] and p.thread_nwd.tlv.stable == [0, 1, 1, 1, 0, 0, 0])
# Step 10: The DUT MUST send a unicast MLE Child Update
# Response to each of MED_1 and SED_1
_lpkts_med.filter_mle_cmd(MLE_CHILD_UPDATE_RESPONSE).filter_wpan_dst64(MED).must_next().must_verify(
lambda p: {SOURCE_ADDRESS_TLV, MODE_TLV, LEADER_DATA_TLV, ADDRESS_REGISTRATION_TLV} < set(p.mle.tlv.type))
_lpkts_sed.filter_mle_cmd(MLE_CHILD_UPDATE_RESPONSE).filter_wpan_dst64(SED).must_next().must_verify(
lambda p: {SOURCE_ADDRESS_TLV, MODE_TLV, LEADER_DATA_TLV, ADDRESS_REGISTRATION_TLV} < set(p.mle.tlv.type))
if __name__ == '__main__':
unittest.main()
@@ -31,6 +31,9 @@ import unittest
import config
import thread_cert
from pktverify.consts import MLE_ADVERTISEMENT, MLE_DATA_RESPONSE, MLE_CHILD_ID_RESPONSE, MLE_CHILD_UPDATE_REQUEST, ADDR_SOL_URI, MLE_CHILD_UPDATE_RESPONSE, MODE_TLV, LEADER_DATA_TLV, ROUTE64_TLV, SOURCE_ADDRESS_TLV, ACTIVE_TIMESTAMP_TLV, ADDRESS16_TLV, NETWORK_DATA_TLV, ADDRESS_REGISTRATION_TLV, LINK_LOCAL_ALL_NODES_MULTICAST_ADDRESS
from pktverify.packet_verifier import PacketVerifier
from pktverify.addrs import Ipv6Addr
LEADER = 1
ROUTER = 2
@@ -43,23 +46,27 @@ MTDS = [ED1, SED1]
class Cert_5_6_3_NetworkDataRegisterAfterAttachLeader(thread_cert.TestCase):
TOPOLOGY = {
LEADER: {
'name': 'LEADER',
'mode': 'rsdn',
'panid': 0xface,
'whitelist': [ROUTER]
},
ROUTER: {
'name': 'ROUTER',
'mode': 'rsdn',
'panid': 0xface,
'router_selection_jitter': 1,
'whitelist': [LEADER, ED1, SED1]
},
ED1: {
'name': 'MED',
'is_mtd': True,
'mode': 'rsn',
'panid': 0xface,
'whitelist': [ROUTER]
},
SED1: {
'name': 'SED',
'is_mtd': True,
'mode': 's',
'panid': 0xface,
@@ -109,6 +116,45 @@ class Cert_5_6_3_NetworkDataRegisterAfterAttachLeader(thread_cert.TestCase):
if addr[0:10] == '2001:2:0:1' or addr[0:10] == '2001:2:0:2':
self.assertTrue(self.nodes[LEADER].ping(addr))
def verify(self, pv):
pkts = pv.pkts
pv.summary.show()
ROUTER = pv.vars['ROUTER']
MED = pv.vars['MED']
SED = pv.vars['SED']
_rpkts = pkts.filter_wpan_src64(ROUTER)
_rpkts_med = _rpkts.copy()
_rpkts_sed = _rpkts.copy()
# Step 3: The DUT MUST multicast a MLE Data Response for each
# prefix sent by the Leader (Prefix 1 and Prefix 2)
_rpkts.filter_mle_cmd(MLE_DATA_RESPONSE).filter_ipv6_dst(LINK_LOCAL_ALL_NODES_MULTICAST_ADDRESS).must_next(
).must_verify(lambda p: {Ipv6Addr('2001:2:0:1::'), Ipv6Addr('2001:2:0:2::')} == set(p.thread_nwd.tlv.prefix)
and p.thread_nwd.tlv.border_router.flag.p == [1, 1] and p.thread_nwd.tlv.border_router.flag.s ==
[1, 1] and p.thread_nwd.tlv.border_router.flag.r == [1, 1] and p.thread_nwd.tlv.border_router.
flag.o == [1, 1] and p.thread_nwd.tlv.stable == [0, 1, 1, 1, 0, 0, 0])
# Step 5: The DUT MUST send a unicast MLE Child Update
# Response to MED_1
_rpkts_med.filter_mle_cmd(MLE_CHILD_UPDATE_RESPONSE).filter_wpan_dst64(MED).must_next().must_verify(
lambda p: {SOURCE_ADDRESS_TLV, MODE_TLV, LEADER_DATA_TLV, ADDRESS_REGISTRATION_TLV} < set(p.mle.tlv.type))
# Step 6: The DUT MUST send a unicast MLE Child Update
# Request to SED_1
_rpkts_sed.filter_mle_cmd(MLE_CHILD_UPDATE_REQUEST).filter_wpan_dst64(SED).must_next().must_verify(
lambda p: {SOURCE_ADDRESS_TLV, LEADER_DATA_TLV, NETWORK_DATA_TLV, ACTIVE_TIMESTAMP_TLV} == set(
p.mle.tlv.type) and {Ipv6Addr('2001:2:0:1::')} == set(p.thread_nwd.tlv.prefix) and p.thread_nwd.tlv.
border_router.flag.p == [1] and p.thread_nwd.tlv.border_router.flag.s == [1] and p.thread_nwd.tlv.
border_router.flag.r == [1] and p.thread_nwd.tlv.border_router.flag.o == [1] and p.thread_nwd.tlv.stable ==
[1, 1, 1] and p.thread_nwd.tlv.border_router_16 == 0xFFFE)
# Step 8: The DUT MUST send a unicast MLE Child Update
# Response to SED_1
_rpkts_sed.filter_mle_cmd(MLE_CHILD_UPDATE_RESPONSE).filter_wpan_dst64(SED).must_next().must_verify(
lambda p: {SOURCE_ADDRESS_TLV, MODE_TLV, LEADER_DATA_TLV, ADDRESS_REGISTRATION_TLV} < set(p.mle.tlv.type))
if __name__ == '__main__':
unittest.main()
@@ -31,6 +31,9 @@ import unittest
import config
import thread_cert
from pktverify.consts import MLE_ADVERTISEMENT, MLE_DATA_RESPONSE, MLE_CHILD_ID_RESPONSE, MLE_CHILD_UPDATE_REQUEST, SVR_DATA_URI, MLE_CHILD_UPDATE_RESPONSE, MODE_TLV, LEADER_DATA_TLV, ROUTE64_TLV, SOURCE_ADDRESS_TLV, ACTIVE_TIMESTAMP_TLV, ADDRESS16_TLV, NETWORK_DATA_TLV, ADDRESS_REGISTRATION_TLV, LINK_LOCAL_ALL_NODES_MULTICAST_ADDRESS
from pktverify.packet_verifier import PacketVerifier
from pktverify.addrs import Ipv6Addr
LEADER = 1
ROUTER = 2
@@ -43,28 +46,32 @@ MTDS = [ED1, SED1]
class Cert_5_6_4_NetworkDataRegisterAfterAttachRouter(thread_cert.TestCase):
TOPOLOGY = {
LEADER: {
'name': 'LEADER',
'mode': 'rsdn',
'panid': 0xface,
'whitelist': [ROUTER]
'whitelist': [ROUTER, ED1, SED1]
},
ROUTER: {
'name': 'ROUTER',
'mode': 'rsdn',
'panid': 0xface,
'router_selection_jitter': 1,
'whitelist': [LEADER, ED1, SED1]
'whitelist': [LEADER]
},
ED1: {
'name': 'MED',
'is_mtd': True,
'mode': 'rsn',
'panid': 0xface,
'whitelist': [ROUTER]
'whitelist': [LEADER]
},
SED1: {
'name': 'SED',
'is_mtd': True,
'mode': 's',
'panid': 0xface,
'timeout': config.DEFAULT_CHILD_TIMEOUT,
'whitelist': [ROUTER]
'whitelist': [LEADER]
},
}
@@ -109,6 +116,52 @@ class Cert_5_6_4_NetworkDataRegisterAfterAttachRouter(thread_cert.TestCase):
if addr[0:10] == '2001:2:0:1' or addr[0:10] == '2001:2:0:2':
self.assertTrue(self.nodes[LEADER].ping(addr))
def verify(self, pv):
pkts = pv.pkts
pv.summary.show()
LEADER = pv.vars['LEADER']
MED = pv.vars['MED']
SED = pv.vars['SED']
_lpkts = pkts.filter_wpan_src64(LEADER)
# Step 1: Ensure the topology is formed correctly
_lpkts.filter_mle_cmd(MLE_CHILD_ID_RESPONSE).filter_wpan_dst64(SED).must_next()
# Step 3: The DUT Automatically sends a CoAP Response frame and
# MLE Data Response message
_lpkts.copy().filter_coap_ack(SVR_DATA_URI).must_next()
_lpkts_med = _lpkts.copy()
_lpkts_sed = _lpkts.copy()
# Step 4: The DUT MUST send a multicast MLE Data Response with
# the new network information collected from Router_1
_lpkts.filter_mle_cmd(MLE_DATA_RESPONSE).filter_ipv6_dst(LINK_LOCAL_ALL_NODES_MULTICAST_ADDRESS).must_next(
).must_verify(lambda p: {Ipv6Addr('2001:2:0:1::'), Ipv6Addr('2001:2:0:2::')} == set(p.thread_nwd.tlv.prefix)
and p.thread_nwd.tlv.border_router.flag.p == [1, 1] and p.thread_nwd.tlv.border_router.flag.s ==
[1, 1] and p.thread_nwd.tlv.border_router.flag.r == [1, 1] and p.thread_nwd.tlv.border_router.
flag.o == [1, 1] and p.thread_nwd.tlv.stable == [0, 1, 1, 1, 0, 0, 0])
# Step 7: The DUT MUST send a unicast MLE Child Update
# Response to MED_1
_lpkts_med.filter_mle_cmd(MLE_CHILD_UPDATE_RESPONSE).filter_wpan_dst64(MED).must_next().must_verify(
lambda p: {SOURCE_ADDRESS_TLV, MODE_TLV, LEADER_DATA_TLV, ADDRESS_REGISTRATION_TLV} < set(p.mle.tlv.type))
# Step 9: The DUT MUST send a unicast MLE Child Update
# Request to SED_1
_lpkts_sed.filter_mle_cmd(MLE_CHILD_UPDATE_REQUEST).filter_wpan_dst64(SED).must_next().must_verify(
lambda p: {SOURCE_ADDRESS_TLV, LEADER_DATA_TLV, NETWORK_DATA_TLV, ACTIVE_TIMESTAMP_TLV} == set(
p.mle.tlv.type) and {Ipv6Addr('2001:2:0:1::')} == set(p.thread_nwd.tlv.prefix) and p.thread_nwd.tlv.
border_router.flag.p == [1] and p.thread_nwd.tlv.border_router.flag.s == [1] and p.thread_nwd.tlv.
border_router.flag.r == [1] and p.thread_nwd.tlv.border_router.flag.o == [1] and p.thread_nwd.tlv.stable ==
[1, 1, 1] and p.thread_nwd.tlv.border_router_16 == 0xFFFE)
# Step 11: The DUT MUST send a unicast MLE Child Update
# Response to SED_1
_lpkts_sed.filter_mle_cmd(MLE_CHILD_UPDATE_RESPONSE).filter_wpan_dst64(SED).must_next().must_verify(
lambda p: {SOURCE_ADDRESS_TLV, MODE_TLV, LEADER_DATA_TLV, ADDRESS_REGISTRATION_TLV} < set(p.mle.tlv.type))
if __name__ == '__main__':
unittest.main()
@@ -31,6 +31,9 @@ import unittest
import config
import thread_cert
from pktverify.consts import MLE_ADVERTISEMENT, MLE_DATA_RESPONSE, MLE_CHILD_ID_RESPONSE, MLE_CHILD_UPDATE_REQUEST, SVR_DATA_URI, MLE_CHILD_UPDATE_RESPONSE, MODE_TLV, LEADER_DATA_TLV, ROUTE64_TLV, SOURCE_ADDRESS_TLV, ACTIVE_TIMESTAMP_TLV, ADDRESS16_TLV, NETWORK_DATA_TLV, ADDRESS_REGISTRATION_TLV, LINK_LOCAL_ALL_NODES_MULTICAST_ADDRESS
from pktverify.packet_verifier import PacketVerifier
from pktverify.addrs import Ipv6Addr
LEADER = 1
ROUTER = 2
@@ -43,28 +46,32 @@ MTDS = [ED1, SED1]
class Cert_5_6_5_NetworkDataRegisterAfterAttachRouter(thread_cert.TestCase):
TOPOLOGY = {
LEADER: {
'name': 'LEADER',
'mode': 'rsdn',
'panid': 0xface,
'whitelist': [ROUTER]
'whitelist': [ROUTER, ED1, SED1]
},
ROUTER: {
'name': 'ROUTER',
'mode': 'rsdn',
'panid': 0xface,
'router_selection_jitter': 1,
'whitelist': [LEADER, ED1, SED1]
'whitelist': [LEADER]
},
ED1: {
'name': 'MED',
'is_mtd': True,
'mode': 'rsn',
'panid': 0xface,
'whitelist': [ROUTER]
'whitelist': [LEADER]
},
SED1: {
'name': 'SED',
'is_mtd': True,
'mode': 's',
'panid': 0xface,
'timeout': config.DEFAULT_CHILD_TIMEOUT,
'whitelist': [ROUTER]
'whitelist': [LEADER]
},
}
@@ -87,32 +94,12 @@ class Cert_5_6_5_NetworkDataRegisterAfterAttachRouter(thread_cert.TestCase):
self.nodes[ROUTER].add_prefix('2001:2:0:1::/64', 'paros')
self.nodes[ROUTER].add_prefix('2001:2:0:2::/64', 'paro')
self.nodes[ROUTER].add_prefix('2001:2:0:3::/64', 'paos')
self.nodes[ROUTER].register_netdata()
# Set lowpan context of sniffer
self.simulator.set_lowpan_context(1, '2001:2:0:1::/64')
self.simulator.set_lowpan_context(2, '2001:2:0:2::/64')
self.simulator.go(10)
addrs = self.nodes[ED1].get_addrs()
self.assertTrue(any('2001:2:0:1' in addr[0:10] for addr in addrs))
self.assertTrue(any('2001:2:0:2' in addr[0:10] for addr in addrs))
for addr in addrs:
if addr[0:3] == '200':
self.assertTrue(self.nodes[LEADER].ping(addr))
addrs = self.nodes[SED1].get_addrs()
self.assertTrue(any('2001:2:0:1' in addr[0:10] for addr in addrs))
self.assertFalse(any('2001:2:0:2' in addr[0:10] for addr in addrs))
for addr in addrs:
if addr[0:3] == '200':
self.assertTrue(self.nodes[LEADER].ping(addr))
self.nodes[ROUTER].add_prefix('2001:2:0:3::/64', 'paos')
self.nodes[ROUTER].register_netdata()
# Set lowpan context of sniffer
self.simulator.set_lowpan_context(3, '2001:2:0:3::/64')
self.simulator.go(10)
@@ -133,6 +120,54 @@ class Cert_5_6_5_NetworkDataRegisterAfterAttachRouter(thread_cert.TestCase):
if addr[0:3] == '200':
self.assertTrue(self.nodes[LEADER].ping(addr))
def verify(self, pv):
pkts = pv.pkts
pv.summary.show()
LEADER = pv.vars['LEADER']
MED = pv.vars['MED']
SED = pv.vars['SED']
_lpkts = pkts.filter_wpan_src64(LEADER)
# Step 1: Ensure the topology is formed correctly
_lpkts.filter_mle_cmd(MLE_CHILD_ID_RESPONSE).filter_wpan_dst64(SED).must_next()
# Step 3: The DUT Automatically sends a CoAP Response frame and
# MLE Data Response message
_lpkts.copy().filter_coap_ack(SVR_DATA_URI).must_next()
_lpkts_med = _lpkts.copy()
_lpkts_sed = _lpkts.copy()
# Step 4: The DUT MUST send a multicast MLE Data Response with
# the new network information collected from Router_1
_lpkts.filter_mle_cmd(MLE_DATA_RESPONSE).filter_ipv6_dst(LINK_LOCAL_ALL_NODES_MULTICAST_ADDRESS).must_next(
).must_verify(lambda p: {Ipv6Addr('2001:2:0:1::'),
Ipv6Addr('2001:2:0:2::'),
Ipv6Addr('2001:2:0:3::')} == set(p.thread_nwd.tlv.prefix) and p.thread_nwd.tlv.
border_router.flag.p == [1, 1, 1] and p.thread_nwd.tlv.border_router.flag.s == [1, 1, 1] and p.
thread_nwd.tlv.border_router.flag.r == [1, 1, 0] and p.thread_nwd.tlv.border_router.flag.o ==
[1, 1, 1] and p.thread_nwd.tlv.stable == [0, 1, 1, 1, 0, 0, 0, 1, 1, 1])
# Step 7: The DUT MUST send a unicast MLE Child Update
# Response to MED_1
_lpkts_med.filter_mle_cmd(MLE_CHILD_UPDATE_RESPONSE).filter_wpan_dst64(MED).must_next().must_verify(
lambda p: {SOURCE_ADDRESS_TLV, MODE_TLV, LEADER_DATA_TLV, ADDRESS_REGISTRATION_TLV} < set(p.mle.tlv.type))
# Step 8: The DUT MUST send a unicast MLE Child Update
# Request to SED_1
_lpkts_sed.filter_mle_cmd(MLE_CHILD_UPDATE_REQUEST).filter_wpan_dst64(SED).must_next().must_verify(
lambda p: {SOURCE_ADDRESS_TLV, LEADER_DATA_TLV, NETWORK_DATA_TLV, ACTIVE_TIMESTAMP_TLV} == set(
p.mle.tlv.type) and {Ipv6Addr('2001:2:0:1::'), Ipv6Addr('2001:2:0:3::')} == set(
p.thread_nwd.tlv.prefix) and p.thread_nwd.tlv.border_router.flag.p == [1, 1] and p.thread_nwd.tlv.
border_router.flag.s == [1, 1] and p.thread_nwd.tlv.border_router.flag.r == [1, 0] and p.thread_nwd.tlv.
border_router.flag.o == [1, 1] and p.thread_nwd.tlv.stable == [1, 1, 1, 1, 1, 1])
# Step 10: The DUT MUST send a unicast MLE Child Update
# Response to SED_1
_lpkts_sed.filter_mle_cmd(MLE_CHILD_UPDATE_RESPONSE).filter_wpan_dst64(SED).must_next().must_verify(
lambda p: {SOURCE_ADDRESS_TLV, MODE_TLV, LEADER_DATA_TLV, ADDRESS_REGISTRATION_TLV} < set(p.mle.tlv.type))
if __name__ == '__main__':
unittest.main()