| OPT_P_MESSAGES
| OPT_P_EXPLICIT_NOTIFY
| OPT_P_ECHO
- | OPT_P_PULL_MODE;
+ | OPT_P_PULL_MODE
+ | OPT_P_PEER_ID;
if (!c->options.route_nopull)
flags |= (OPT_P_ROUTE | OPT_P_IPWIN32);
msg (D_PUSH, "OPTIONS IMPORT: --ip-win32 and/or --dhcp-option options modified");
if (found & OPT_P_SETENV)
msg (D_PUSH, "OPTIONS IMPORT: environment modified");
+
+#ifdef ENABLE_SSL
+ if (found & OPT_P_PEER_ID)
+ {
+ msg (D_PUSH, "OPTIONS IMPORT: peer-id set");
+ c->c2.tls_multi->use_peer_id = true;
+ c->c2.tls_multi->peer_id = c->options.peer_id;
+ }
+#endif
}
/*
bool show_net_up;
int route_method;
#endif
+
+ bool use_peer_id;
+ uint32_t peer_id;
};
#define streq(x, y) (!strcmp((x), (y)))
#define OPT_P_SOCKBUF (1<<25)
#define OPT_P_SOCKFLAGS (1<<26)
#define OPT_P_CONNECTION (1<<27)
+#define OPT_P_PEER_ID (1<<28)
#define OPT_P_DEFAULT (~(OPT_P_INSTANCE|OPT_P_PULL_MODE))
return "P_ACK_V1";
case P_DATA_V1:
return "P_DATA_V1";
+ case P_DATA_V2:
+ return "P_DATA_V2";
default:
return "P_???";
}
ret->key_scan[1] = &ret->session[TM_ACTIVE].key[KS_LAME_DUCK];
ret->key_scan[2] = &ret->session[TM_LAME_DUCK].key[KS_LAME_DUCK];
+ /* By default not use P_DATA_V2 */
+ ret->use_peer_id = false;
+
return ret;
}
#ifdef ENABLE_LZO_STUB
buf_printf (&out, "IV_LZO_STUB=1\n");
#endif
+ /* support for P_DATA_V2 */
+ buf_printf(&out, "IV_PROTO=2\n");
if (session->opt->push_peer_info_detail >= 2)
{
key_id = c & P_KEY_ID_MASK;
}
- if (op == P_DATA_V1)
- { /* data channel packet */
+ if ((op == P_DATA_V1) || (op == P_DATA_V2))
+ {
+ /* data channel packet */
for (i = 0; i < KEY_SCAN_SIZE; ++i)
{
struct key_state *ks = multi->key_scan[i];
opt->pid_persist = NULL;
opt->flags &= multi->opt.crypto_flags_and;
opt->flags |= multi->opt.crypto_flags_or;
+
ASSERT (buf_advance (buf, 1));
+ if (op == P_DATA_V2)
+ {
+ if (buf->len < 4)
+ {
+ msg (D_TLS_ERRORS, "Protocol error: received P_DATA_V2 from %s but length is < 4",
+ print_link_socket_actual (from, &gc));
+ goto error;
+ }
+ ASSERT (buf_advance (buf, 3));
+ }
+
++ks->n_packets;
ks->n_bytes += buf->len;
dmsg (D_TLS_KEYSELECT,
{
struct key_state *ks;
uint8_t *op;
+ uint32_t peer;
ks = multi->save_ks;
multi->save_ks = NULL;
if (buf->len > 0)
{
ASSERT (ks);
- ASSERT (op = buf_prepend (buf, 1));
- *op = (P_DATA_V1 << P_OPCODE_SHIFT) | ks->key_id;
+
+ if (!multi->opt.server && multi->use_peer_id)
+ {
+ peer = htonl(((P_DATA_V2 << P_OPCODE_SHIFT) | ks->key_id) << 24 | (multi->peer_id & 0xFFFFFF));
+ ASSERT (buf_write_prepend (buf, &peer, 4));
+ }
+ else
+ {
+ ASSERT (op = buf_prepend (buf, 1));
+ *op = (P_DATA_V1 << P_OPCODE_SHIFT) | ks->key_id;
+ }
++ks->n_packets;
ks->n_bytes += buf->len;
}
key_id = c & P_KEY_ID_MASK;
buf_printf (&out, "%s kid=%d", packet_opcode_name (op), key_id);
- if (op == P_DATA_V1)
+ if ((op == P_DATA_V1) || (op == P_DATA_V2))
goto print_data;
/*
#define P_CONTROL_V1 4 /* control channel packet (usually TLS ciphertext) */
#define P_ACK_V1 5 /* acknowledgement for packets received */
#define P_DATA_V1 6 /* data channel packet */
+#define P_DATA_V2 9 /* data channel packet with peer-id */
/* indicates key_method >= 2 */
#define P_CONTROL_HARD_RESET_CLIENT_V2 7 /* initial key from client, forget previous state */
/* define the range of legal opcodes */
#define P_FIRST_OPCODE 1
-#define P_LAST_OPCODE 8
+#define P_LAST_OPCODE 9
/* Should we aggregate TLS
* acknowledgements, and tack them onto