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path: root/vlib-api/vlibmemory/memory_client.c
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/*
 *------------------------------------------------------------------
 * memory_client.c - API message handling, client code.
 *
 * Copyright (c) 2010 Cisco and/or its affiliates.
 * Licensed under the Apache License, Version 2.0 (the "License");
 * you may not use this file except in compliance with the License.
 * You may obtain a copy of the License at:
 *
 *     http://www.apache.org/licenses/LICENSE-2.0
 *
 * Unless required by applicable law or agreed to in writing, software
 * distributed under the License is distributed on an "AS IS" BASIS,
 * WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
 * See the License for the specific language governing permissions and
 * limitations under the License.
 *------------------------------------------------------------------
 */

#include <stdio.h>
#include <stdlib.h>
#include <setjmp.h>
#include <sys/types.h>
#include <sys/mman.h>
#include <sys/stat.h>
#include <netinet/in.h>
#include <signal.h>
#include <pthread.h>
#include <unistd.h>
#include <time.h>
#include <fcntl.h>
#include <string.h>
#include <vppinfra/clib.h>
#include <vppinfra/vec.h>
#include <vppinfra/hash.h>
#include <vppinfra/bitmap.h>
#include <vppinfra/fifo.h>
#include <vppinfra/time.h>
#include <vppinfra/mheap.h>
#include <vppinfra/heap.h>
#include <vppinfra/pool.h>
#include <vppinfra/format.h>

#include <vlib/vlib.h>
#include <vlib/unix/unix.h>
#include <vlibmemory/api.h>

#include <vlibmemory/vl_memory_msg_enum.h>

#define vl_typedefs		/* define message structures */
#include <vlibmemory/vl_memory_api_h.h>
#undef vl_typedefs

#define vl_endianfun		/* define message structures */
#include <vlibmemory/vl_memory_api_h.h>
#undef vl_endianfun

/* instantiate all the print functions we know about */
#define vl_print(handle, ...) clib_warning (__VA_ARGS__)
#define vl_printfun
#include <vlibmemory/vl_memory_api_h.h>
#undef vl_printfun

typedef struct
{
  u8 rx_thread_jmpbuf_valid;
  u8 connected_to_vlib;
  jmp_buf rx_thread_jmpbuf;
  pthread_t rx_thread_handle;
  /* Plugin message base lookup scheme */
  volatile u8 first_msg_id_reply_ready;
  u16 first_msg_id_reply;
} memory_client_main_t;

memory_client_main_t memory_client_main;

static void *
rx_thread_fn (void *arg)
{
  unix_shared_memory_queue_t *q;
  memory_client_main_t *mm = &memory_client_main;
  api_main_t *am = &api_main;

  q = am->vl_input_queue;

  /* So we can make the rx thread terminate cleanly */
  if (setjmp (mm->rx_thread_jmpbuf) == 0)
    {
      mm->rx_thread_jmpbuf_valid = 1;
      while (1)
	{
	  vl_msg_api_queue_handler (q);
	}
    }
  pthread_exit (0);
}

static void
vl_api_rx_thread_exit_t_handler (vl_api_rx_thread_exit_t * mp)
{
  memory_client_main_t *mm = &memory_client_main;
  vl_msg_api_free (mp);
  longjmp (mm->rx_thread_jmpbuf, 1);
}

static void
noop_handler (void *notused)
{
}

#define foreach_api_msg						\
_(RX_THREAD_EXIT, rx_thread_exit)

static int
connect_to_vlib_internal (char *svm_name, char *client_name,
			  int rx_queue_size, int want_pthread)
{
  int rv = 0;
  memory_client_main_t *mm = &memory_client_main;

  if ((rv = vl_client_api_map (svm_name)))
    {
      clib_warning ("vl_client_api map rv %d", rv);
      return rv;
    }

#define _(N,n)                                                  \
    vl_msg_api_set_handlers(VL_API_##N, #n,                     \
                            vl_api_##n##_t_handler,             \
                            noop_handler,                       \
                            vl_api_##n##_t_endian,              \
                            vl_api_##n##_t_print,               \
                            sizeof(vl_api_##n##_t), 1);
  foreach_api_msg;
#undef _

  if (vl_client_connect (client_name, 0 /* punt quota */ ,
			 rx_queue_size /* input queue */ ) < 0)
    {
      vl_client_api_unmap ();
      return -1;
    }

  /* Start the rx queue thread */

  if (want_pthread)
    {
      rv = pthread_create (&mm->rx_thread_handle,
			   NULL /*attr */ , rx_thread_fn, 0);
      if (rv)
	clib_warning ("pthread_create returned %d", rv);
    }

  mm->connected_to_vlib = 1;
  return 0;
}

int
vl_client_connect_to_vlib (char *svm_name, char *client_name,
			   int rx_queue_size)
{
  return connect_to_vlib_internal (svm_name, client_name, rx_queue_size,
				   1 /* want pthread */ );
}

int
vl_client_connect_to_vlib_no_rx_pthread (char *svm_name, char *client_name,
					 int rx_queue_size)
{
  return connect_to_vlib_internal (svm_name, client_name, rx_queue_size,
				   0 /* want pthread */ );
}

void
vl_client_disconnect_from_vlib (void)
{
  memory_client_main_t *mm = &memory_client_main;
  api_main_t *am = &api_main;
  uword junk;

  if (mm->rx_thread_jmpbuf_valid)
    {
      vl_api_rx_thread_exit_t *ep;
      ep = vl_msg_api_alloc (sizeof (*ep));
      ep->_vl_msg_id = ntohs (VL_API_RX_THREAD_EXIT);
      vl_msg_api_send_shmem (am->vl_input_queue, (u8 *) & ep);
      pthread_join (mm->rx_thread_handle, (void **) &junk);
    }
  if (mm->connected_to_vlib)
    {
      vl_client_disconnect ();
      vl_client_api_unmap ();
    }
  memset (mm, 0, sizeof (*mm));
}

static void vl_api_get_first_msg_id_reply_t_handler
  (vl_api_get_first_msg_id_reply_t * mp)
{
  memory_client_main_t *mm = &memory_client_main;
  i32 retval = ntohl (mp->retval);

  mm->first_msg_id_reply = (retval >= 0) ? ntohs (mp->first_msg_id) : ~0;
  mm->first_msg_id_reply_ready = 1;
}

u16
vl_client_get_first_plugin_msg_id (char *plugin_name)
{
  vl_api_get_first_msg_id_t *mp;
  api_main_t *am = &api_main;
  memory_client_main_t *mm = &memory_client_main;
  f64 timeout;
  void *old_handler;
  clib_time_t clib_time;
  u16 rv = ~0;

  if (strlen (plugin_name) + 1 > sizeof (mp->name))
    return (rv);

  memset (&clib_time, 0, sizeof (clib_time));
  clib_time_init (&clib_time);

  /* Push this plugin's first_msg_id_reply handler */
  old_handler = am->msg_handlers[VL_API_GET_FIRST_MSG_ID_REPLY];
  am->msg_handlers[VL_API_GET_FIRST_MSG_ID_REPLY] = (void *)
    vl_api_get_first_msg_id_reply_t_handler;

  /* Ask the data-plane for the message-ID base of the indicated plugin */
  mm->first_msg_id_reply_ready = 0;

  mp = vl_msg_api_alloc (sizeof (*mp));
  memset (mp, 0, sizeof (*mp));
  mp->_vl_msg_id = ntohs (VL_API_GET_FIRST_MSG_ID);
  mp->client_index = am->my_client_index;
  strncpy ((char *) mp->name, plugin_name, sizeof (mp->name) - 1);

  vl_msg_api_send_shmem (am->shmem_hdr->vl_input_queue, (u8 *) & mp);

  /* Synchronously wait for the answer */
  do
    {
      timeout = clib_time_now (&clib_time) + 1.0;

      while (clib_time_now (&clib_time) < timeout)
	{
	  if (mm->first_msg_id_reply_ready == 1)
	    {
	      rv = mm->first_msg_id_reply;
	      goto result;
	    }
	}
      /* Restore old handler */
      am->msg_handlers[VL_API_GET_FIRST_MSG_ID_REPLY] = old_handler;

      return rv;
    }
  while (0);

result:

  /* Restore the old handler */
  am->msg_handlers[VL_API_GET_FIRST_MSG_ID_REPLY] = old_handler;

  if (rv == (u16) ~ 0)
    clib_warning ("plugin '%s' not registered", plugin_name);

  return rv;
}

void
vlib_node_sync_stats (vlib_main_t * vm, vlib_node_t * n)
{
  clib_warning ("STUB called...");
}

/*
 * fd.io coding-style-patch-verification: ON
 *
 * Local Variables:
 * eval: (c-set-style "gnu")
 * End:
 */
ss="k">if self.acl_active_table == 'mac_inout': self.output_acl_set_interface( self.pg1, self.acl_tbl_idx.get(self.acl_active_table), 0) self.input_acl_set_interface( self.pg0, self.acl_tbl_idx.get(self.acl_active_table), 0) self.acl_active_table = '' elif self.acl_active_table == 'mac_out': self.output_acl_set_interface( self.pg1, self.acl_tbl_idx.get(self.acl_active_table), 0) self.acl_active_table = '' elif self.acl_active_table == 'mac_in': self.input_acl_set_interface( self.pg0, self.acl_tbl_idx.get(self.acl_active_table), 0) self.acl_active_table = '' super(TestClassifyAcl, self).tearDown() def show_commands_at_teardown(self): self.logger.info(self.vapi.ppcli("show inacl type l2")) self.logger.info(self.vapi.ppcli("show outacl type l2")) self.logger.info(self.vapi.ppcli("show classify tables verbose")) self.logger.info(self.vapi.ppcli("show bridge-domain %s detail" % self.bd_id)) @staticmethod def build_mac_mask(dst_mac='', src_mac='', ether_type=''): """Build MAC ACL mask data with hexstring format :param str dst_mac: source MAC address <0-ffffffffffff> :param str src_mac: destination MAC address <0-ffffffffffff> :param str ether_type: ethernet type <0-ffff> """ return ('{!s:0>12}{!s:0>12}{!s:0>4}'.format( dst_mac, src_mac, ether_type)).rstrip('0') @staticmethod def build_mac_match(dst_mac='', src_mac='', ether_type=''): """Build MAC ACL match data with hexstring format :param str dst_mac: source MAC address <x:x:x:x:x:x> :param str src_mac: destination MAC address <x:x:x:x:x:x> :param str ether_type: ethernet type <0-ffff> """ if dst_mac: dst_mac = dst_mac.replace(':', '') if src_mac: src_mac = src_mac.replace(':', '') return ('{!s:0>12}{!s:0>12}{!s:0>4}'.format( dst_mac, src_mac, ether_type)).rstrip('0') def create_classify_table(self, key, mask, data_offset=0, is_add=1): """Create Classify Table :param str key: key for classify table (ex, ACL name). :param str mask: mask value for interested traffic. :param int match_n_vectors: :param int is_add: option to configure classify table. - create(1) or delete(0) """ r = self.vapi.classify_add_del_table( is_add, binascii.unhexlify(mask), match_n_vectors=(len(mask) - 1) // 32 + 1, miss_next_index=0, current_data_flag=1, current_data_offset=data_offset) self.assertIsNotNone(r, 'No response msg for add_del_table') self.acl_tbl_idx[key] = r.new_table_index def create_classify_session(self, intf, table_index, match, hit_next_index=0xffffffff, is_add=1): """Create Classify Session :param VppInterface intf: Interface to apply classify session. :param int table_index: table index to identify classify table. :param str match: matched value for interested traffic. :param int pbr_action: enable/disable PBR feature. :param int vrfid: VRF id. :param int is_add: option to configure classify session. - create(1) or delete(0) """ r = self.vapi.classify_add_del_session( is_add, table_index, binascii.unhexlify(match), hit_next_index=hit_next_index) self.assertIsNotNone(r, 'No response msg for add_del_session') def input_acl_set_interface(self, intf, table_index, is_add=1): """Configure Input ACL interface :param VppInterface intf: Interface to apply Input ACL feature. :param int table_index: table index to identify classify table. :param int is_add: option to configure classify session. - enable(1) or disable(0) """ r = self.vapi.input_acl_set_interface( is_add, intf.sw_if_index, l2_table_index=table_index) self.assertIsNotNone(r, 'No response msg for acl_set_interface') def output_acl_set_interface(self, intf, table_index, is_add=1): """Configure Output ACL interface :param VppInterface intf: Interface to apply Output ACL feature. :param int table_index: table index to identify classify table. :param int is_add: option to configure classify session. - enable(1) or disable(0) """ r = self.vapi.output_acl_set_interface( is_add, intf.sw_if_index, l2_table_index=table_index) self.assertIsNotNone(r, 'No response msg for acl_set_interface') def create_hosts(self, count, start=0): """ Create required number of host MAC addresses and distribute them among interfaces. Create host IPv4 address for every host MAC address. :param int count: Number of hosts to create MAC/IPv4 addresses for. :param int start: Number to start numbering from. """ n_int = len(self.pg_interfaces) macs_per_if = count / n_int i = -1 for pg_if in self.pg_interfaces: i += 1 start_nr = macs_per_if * i + start end_nr = count + start if i == (n_int - 1) \ else macs_per_if * (i + 1) + start hosts = self.hosts_by_pg_idx[pg_if.sw_if_index] for j in range(start_nr, end_nr): host = Host( "00:00:00:ff:%02x:%02x" % (pg_if.sw_if_index, j), "172.17.1%02x.%u" % (pg_if.sw_if_index, j), "2017:dead:%02x::%u" % (pg_if.sw_if_index, j)) hosts.append(host) def create_upper_layer(self, packet_index, proto, ports=0): p = self.proto_map[proto] if p == 'UDP': if ports == 0: return UDP(sport=random.randint(self.udp_sport_from, self.udp_sport_to), dport=random.randint(self.udp_dport_from, self.udp_dport_to)) else: return UDP(sport=ports, dport=ports) elif p == 'TCP': if ports == 0: return TCP(sport=random.randint(self.tcp_sport_from, self.tcp_sport_to), dport=random.randint(self.tcp_dport_from, self.tcp_dport_to)) else: return TCP(sport=ports, dport=ports) return '' def create_stream(self, src_if, packet_sizes, traffic_type=0, ipv6=0, proto=-1, ports=0, fragments=False, pkt_raw=True, etype=-1): """ Create input packet stream for defined interface using hosts or deleted_hosts list. :param object src_if: Interface to create packet stream for. :param list packet_sizes: List of required packet sizes. :param traffic_type: 1: ICMP packet, 2: IPv6 with EH, 0: otherwise. :return: Stream of packets. """ pkts = [] if self.flows.__contains__(src_if): src_hosts = self.hosts_by_pg_idx[src_if.sw_if_index] for dst_if in self.flows[src_if]: dst_hosts = self.hosts_by_pg_idx[dst_if.sw_if_index] n_int = len(dst_hosts) * len(src_hosts) for i in range(0, n_int): dst_host = dst_hosts[i / len(src_hosts)] src_host = src_hosts[i % len(src_hosts)] pkt_info = self.create_packet_info(src_if, dst_if) if ipv6 == 1: pkt_info.ip = 1 elif ipv6 == 0: pkt_info.ip = 0 else: pkt_info.ip = random.choice([0, 1]) if proto == -1: pkt_info.proto = random.choice(self.proto[self.IP]) else: pkt_info.proto = proto payload = self.info_to_payload(pkt_info) p = Ether(dst=dst_host.mac, src=src_host.mac) if etype > 0: p = Ether(dst=dst_host.mac, src=src_host.mac, type=etype) if pkt_info.ip: p /= IPv6(dst=dst_host.ip6, src=src_host.ip6) if fragments: p /= IPv6ExtHdrFragment(offset=64, m=1) else: if fragments: p /= IP(src=src_host.ip4, dst=dst_host.ip4, flags=1, frag=64) else: p /= IP(src=src_host.ip4, dst=dst_host.ip4) if traffic_type == self.ICMP: if pkt_info.ip: p /= ICMPv6EchoRequest(type=self.icmp6_type, code=self.icmp6_code) else: p /= ICMP(type=self.icmp4_type, code=self.icmp4_code) else: p /= self.create_upper_layer(i, pkt_info.proto, ports) if pkt_raw: p /= Raw(payload) pkt_info.data = p.copy() if pkt_raw: size = random.choice(packet_sizes) self.extend_packet(p, size) pkts.append(p) return pkts def verify_capture(self, pg_if, capture, traffic_type=0, ip_type=0, etype=-1): """ Verify captured input packet stream for defined interface. :param object pg_if: Interface to verify captured packet stream for. :param list capture: Captured packet stream. :param traffic_type: 1: ICMP packet, 2: IPv6 with EH, 0: otherwise. """ last_info = dict() for i in self.pg_interfaces: last_info[i.sw_if_index] = None dst_sw_if_index = pg_if.sw_if_index for packet in capture: if etype > 0: if packet[Ether].type != etype: self.logger.error(ppp("Unexpected ethertype in packet:", packet)) else: continue try: # Raw data for ICMPv6 are stored in ICMPv6EchoRequest.data if traffic_type == self.ICMP and ip_type == self.IPV6: payload_info = self.payload_to_info( packet[ICMPv6EchoRequest].data) payload = packet[ICMPv6EchoRequest] else: payload_info = self.payload_to_info(packet[Raw]) payload = packet[self.proto_map[payload_info.proto]] except: self.logger.error(ppp("Unexpected or invalid packet " "(outside network):", packet)) raise if ip_type != 0: self.assertEqual(payload_info.ip, ip_type) if traffic_type == self.ICMP: try: if payload_info.ip == 0: self.assertEqual(payload.type, self.icmp4_type) self.assertEqual(payload.code, self.icmp4_code) else: self.assertEqual(payload.type, self.icmp6_type) self.assertEqual(payload.code, self.icmp6_code) except: self.logger.error(ppp("Unexpected or invalid packet " "(outside network):", packet)) raise else: try: ip_version = IPv6 if payload_info.ip == 1 else IP ip = packet[ip_version] packet_index = payload_info.index self.assertEqual(payload_info.dst, dst_sw_if_index) self.logger.debug("Got packet on port %s: src=%u (id=%u)" % (pg_if.name, payload_info.src, packet_index)) next_info = self.get_next_packet_info_for_interface2( payload_info.src, dst_sw_if_index, last_info[payload_info.src]) last_info[payload_info.src] = next_info self.assertTrue(next_info is not None) self.assertEqual(packet_index, next_info.index) saved_packet = next_info.data # Check standard fields self.assertEqual(ip.src, saved_packet[ip_version].src) self.assertEqual(ip.dst, saved_packet[ip_version].dst) p = self.proto_map[payload_info.proto] if p == 'TCP': tcp = packet[TCP] self.assertEqual(tcp.sport, saved_packet[ TCP].sport) self.assertEqual(tcp.dport, saved_packet[ TCP].dport) elif p == 'UDP': udp = packet[UDP] self.assertEqual(udp.sport, saved_packet[ UDP].sport) self.assertEqual(udp.dport, saved_packet[ UDP].dport) except: self.logger.error(ppp("Unexpected or invalid packet:", packet)) raise for i in self.pg_interfaces: remaining_packet = self.get_next_packet_info_for_interface2( i, dst_sw_if_index, last_info[i.sw_if_index]) self.assertTrue( remaining_packet is None, "Port %u: Packet expected from source %u didn't arrive" % (dst_sw_if_index, i.sw_if_index)) def run_traffic_no_check(self): # Test # Create incoming packet streams for packet-generator interfaces for i in self.pg_interfaces: if self.flows.__contains__(i): pkts = self.create_stream(i, self.pg_if_packet_sizes) if len(pkts) > 0: i.add_stream(pkts) # Enable packet capture and start packet sending self.pg_enable_capture(self.pg_interfaces) self.pg_start() def run_verify_test(self, traffic_type=0, ip_type=0, proto=-1, ports=0, frags=False, pkt_raw=True, etype=-1): # Test # Create incoming packet streams for packet-generator interfaces pkts_cnt = 0 for i in self.pg_interfaces: if self.flows.__contains__(i): pkts = self.create_stream(i, self.pg_if_packet_sizes, traffic_type, ip_type, proto, ports, frags, pkt_raw, etype) if len(pkts) > 0: i.add_stream(pkts) pkts_cnt += len(pkts) # Enable packet capture and start packet sendingself.IPV self.pg_enable_capture(self.pg_interfaces) self.pg_start() # Verify # Verify outgoing packet streams per packet-generator interface for src_if in self.pg_interfaces: if self.flows.__contains__(src_if): for dst_if in self.flows[src_if]: capture = dst_if.get_capture(pkts_cnt) self.logger.info("Verifying capture on interface %s" % dst_if.name) self.verify_capture(dst_if, capture, traffic_type, ip_type, etype) def run_verify_negat_test(self, traffic_type=0, ip_type=0, proto=-1, ports=0, frags=False, etype=-1): # Test self.reset_packet_infos() for i in self.pg_interfaces: if self.flows.__contains__(i): pkts = self.create_stream(i, self.pg_if_packet_sizes, traffic_type, ip_type, proto, ports, frags, True, etype) if len(pkts) > 0: i.add_stream(pkts) # Enable packet capture and start packet sending self.pg_enable_capture(self.pg_interfaces) self.pg_start() # Verify # Verify outgoing packet streams per packet-generator interface for src_if in self.pg_interfaces: if self.flows.__contains__(src_if): for dst_if in self.flows[src_if]: self.logger.info("Verifying capture on interface %s" % dst_if.name) capture = dst_if.get_capture(0) self.assertEqual(len(capture), 0) def build_classify_table(self, src_mac='', dst_mac='', ether_type='', etype='', key='mac', hit_next_index=0xffffffff): # Basic ACL testing a_mask = self.build_mac_mask(src_mac=src_mac, dst_mac=dst_mac, ether_type=ether_type) self.create_classify_table(key, a_mask) for host in self.hosts_by_pg_idx[self.pg0.sw_if_index]: s_mac = host.mac if src_mac else '' if dst_mac: for dst_if in self.flows[self.pg0]: for dst_host in self.hosts_by_pg_idx[dst_if.sw_if_index]: self.create_classify_session( self.pg0, self.acl_tbl_idx.get(key), self.build_mac_match(src_mac=s_mac, dst_mac=dst_host.mac, ether_type=etype), hit_next_index=hit_next_index) else: self.create_classify_session( self.pg0, self.acl_tbl_idx.get(key), self.build_mac_match(src_mac=s_mac, dst_mac='', ether_type=etype), hit_next_index=hit_next_index) def test_0000_warmup_test(self): """ Learn the MAC addresses """ self.create_hosts(2) self.run_traffic_no_check() def test_0010_inacl_permit_src_mac(self): """ Input L2 ACL test - permit source MAC Test scenario for basic IP ACL with source IP - Create IPv4 stream for pg0 -> pg1 interface. - Create ACL with source MAC address. - Send and verify received packets on pg1 interface. """ key = 'mac_in' self.build_classify_table(src_mac='ffffffffffff', key=key) self.input_acl_set_interface(self.pg0, self.acl_tbl_idx.get(key)) self.acl_active_table = key self.run_verify_test(self.IP, self.IPV4, -1) def test_0011_inacl_permit_dst_mac(self): """ Input L2 ACL test - permit destination MAC Test scenario for basic IP ACL with source IP - Create IPv4 stream for pg0 -> pg1 interface. - Create ACL with destination MAC address. - Send and verify received packets on pg1 interface. """ key = 'mac_in' self.build_classify_table(dst_mac='ffffffffffff', key=key) self.input_acl_set_interface(self.pg0, self.acl_tbl_idx.get(key)) self.acl_active_table = key self.run_verify_test(self.IP, self.IPV4, -1) def test_0012_inacl_permit_src_dst_mac(self): """ Input L2 ACL test - permit source and destination MAC Test scenario for basic IP ACL with source IP - Create IPv4 stream for pg0 -> pg1 interface. - Create ACL with source and destination MAC addresses. - Send and verify received packets on pg1 interface. """ key = 'mac_in' self.build_classify_table( src_mac='ffffffffffff', dst_mac='ffffffffffff', key=key) self.input_acl_set_interface(self.pg0, self.acl_tbl_idx.get(key)) self.acl_active_table = key self.run_verify_test(self.IP, self.IPV4, -1) def test_0013_inacl_permit_ether_type(self): """ Input L2 ACL test - permit ether_type Test scenario for basic IP ACL with source IP - Create IPv4 stream for pg0 -> pg1 interface. - Create ACL with destination MAC address. - Send and verify received packets on pg1 interface. """ key = 'mac_in' self.build_classify_table( ether_type='ffff', etype=hex(ETH_P_IP)[2:], key=key) self.input_acl_set_interface(self.pg0, self.acl_tbl_idx.get(key)) self.acl_active_table = key self.run_verify_test(self.IP, self.IPV4, -1) def test_0015_inacl_deny(self): """ Input L2 ACL test - deny Test scenario for basic IP ACL with source IP - Create IPv4 stream for pg0 -> pg1 interface. - Create ACL with source MAC address. - Send and verify no received packets on pg1 interface. """ key = 'mac_in' self.build_classify_table( src_mac='ffffffffffff', hit_next_index=0, key=key) self.input_acl_set_interface(self.pg0, self.acl_tbl_idx.get(key)) self.acl_active_table = key self.run_verify_negat_test(self.IP, self.IPV4, -1) def test_0020_outacl_permit(self): """ Output L2 ACL test - permit Test scenario for basic IP ACL with source IP - Create IPv4 stream for pg0 -> pg1 interface. - Create ACL with source MAC address. - Send and verify received packets on pg1 interface. """ key = 'mac_out' self.build_classify_table(src_mac='ffffffffffff', key=key) self.output_acl_set_interface(self.pg1, self.acl_tbl_idx.get(key)) self.acl_active_table = key self.run_verify_test(self.IP, self.IPV4, -1) def test_0025_outacl_deny(self): """ Output L2 ACL test - deny Test scenario for basic IP ACL with source IP - Create IPv4 stream for pg0 -> pg1 interface. - Create ACL with source MAC address. - Send and verify no received packets on pg1 interface. """ key = 'mac_out' self.build_classify_table( src_mac='ffffffffffff', hit_next_index=0, key=key) self.output_acl_set_interface(self.pg1, self.acl_tbl_idx.get(key)) self.acl_active_table = key self.run_verify_negat_test(self.IP, self.IPV4, -1) def test_0030_inoutacl_permit(self): """ Input+Output L2 ACL test - permit Test scenario for basic IP ACL with source IP - Create IPv4 stream for pg0 -> pg1 interface. - Create ACLs with source MAC address. - Send and verify received packets on pg1 interface. """ key = 'mac_inout' self.build_classify_table(src_mac='ffffffffffff', key=key) self.output_acl_set_interface(self.pg1, self.acl_tbl_idx.get(key)) self.input_acl_set_interface(self.pg0, self.acl_tbl_idx.get(key)) self.acl_active_table = key self.run_verify_test(self.IP, self.IPV4, -1) if __name__ == '__main__': unittest.main(testRunner=VppTestRunner)