ieee80211_freebsd.h revision 191571
1/*- 2 * Copyright (c) 2003-2008 Sam Leffler, Errno Consulting 3 * All rights reserved. 4 * 5 * Redistribution and use in source and binary forms, with or without 6 * modification, are permitted provided that the following conditions 7 * are met: 8 * 1. Redistributions of source code must retain the above copyright 9 * notice, this list of conditions and the following disclaimer. 10 * 2. Redistributions in binary form must reproduce the above copyright 11 * notice, this list of conditions and the following disclaimer in the 12 * documentation and/or other materials provided with the distribution. 13 * 14 * THIS SOFTWARE IS PROVIDED BY THE AUTHOR ``AS IS'' AND ANY EXPRESS OR 15 * IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES 16 * OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE DISCLAIMED. 17 * IN NO EVENT SHALL THE AUTHOR BE LIABLE FOR ANY DIRECT, INDIRECT, 18 * INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT 19 * NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, 20 * DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY 21 * THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT 22 * (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF 23 * THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. 24 * 25 * $FreeBSD: head/sys/net80211/ieee80211_freebsd.h 191571 2009-04-27 17:39:41Z sam $ 26 */ 27#ifndef _NET80211_IEEE80211_FREEBSD_H_ 28#define _NET80211_IEEE80211_FREEBSD_H_ 29 30#ifdef _KERNEL 31#include <sys/param.h> 32#include <sys/lock.h> 33#include <sys/mutex.h> 34#include <sys/rwlock.h> 35 36/* 37 * Common state locking definitions. 38 */ 39typedef struct { 40 char name[16]; /* e.g. "ath0_com_lock" */ 41 struct mtx mtx; 42} ieee80211_com_lock_t; 43#define IEEE80211_LOCK_INIT(_ic, _name) do { \ 44 ieee80211_com_lock_t *cl = &(_ic)->ic_comlock; \ 45 snprintf(cl->name, sizeof(cl->name), "%s_com_lock", _name); \ 46 mtx_init(&cl->mtx, cl->name, NULL, MTX_DEF | MTX_RECURSE); \ 47} while (0) 48#define IEEE80211_LOCK_OBJ(_ic) (&(_ic)->ic_comlock.mtx) 49#define IEEE80211_LOCK_DESTROY(_ic) mtx_destroy(IEEE80211_LOCK_OBJ(_ic)) 50#define IEEE80211_LOCK(_ic) mtx_lock(IEEE80211_LOCK_OBJ(_ic)) 51#define IEEE80211_UNLOCK(_ic) mtx_unlock(IEEE80211_LOCK_OBJ(_ic)) 52#define IEEE80211_LOCK_ASSERT(_ic) \ 53 mtx_assert(IEEE80211_LOCK_OBJ(_ic), MA_OWNED) 54 55/* 56 * Node locking definitions. 57 */ 58typedef struct { 59 char name[16]; /* e.g. "ath0_node_lock" */ 60 struct mtx mtx; 61} ieee80211_node_lock_t; 62#define IEEE80211_NODE_LOCK_INIT(_nt, _name) do { \ 63 ieee80211_node_lock_t *nl = &(_nt)->nt_nodelock; \ 64 snprintf(nl->name, sizeof(nl->name), "%s_node_lock", _name); \ 65 mtx_init(&nl->mtx, nl->name, NULL, MTX_DEF | MTX_RECURSE); \ 66} while (0) 67#define IEEE80211_NODE_LOCK_OBJ(_nt) (&(_nt)->nt_nodelock.mtx) 68#define IEEE80211_NODE_LOCK_DESTROY(_nt) \ 69 mtx_destroy(IEEE80211_NODE_LOCK_OBJ(_nt)) 70#define IEEE80211_NODE_LOCK(_nt) \ 71 mtx_lock(IEEE80211_NODE_LOCK_OBJ(_nt)) 72#define IEEE80211_NODE_IS_LOCKED(_nt) \ 73 mtx_owned(IEEE80211_NODE_LOCK_OBJ(_nt)) 74#define IEEE80211_NODE_UNLOCK(_nt) \ 75 mtx_unlock(IEEE80211_NODE_LOCK_OBJ(_nt)) 76#define IEEE80211_NODE_LOCK_ASSERT(_nt) \ 77 mtx_assert(IEEE80211_NODE_LOCK_OBJ(_nt), MA_OWNED) 78 79/* 80 * Node table iteration locking definitions; this protects the 81 * scan generation # used to iterate over the station table 82 * while grabbing+releasing the node lock. 83 */ 84typedef struct { 85 char name[16]; /* e.g. "ath0_scan_lock" */ 86 struct mtx mtx; 87} ieee80211_scan_lock_t; 88#define IEEE80211_NODE_ITERATE_LOCK_INIT(_nt, _name) do { \ 89 ieee80211_scan_lock_t *sl = &(_nt)->nt_scanlock; \ 90 snprintf(sl->name, sizeof(sl->name), "%s_scan_lock", _name); \ 91 mtx_init(&sl->mtx, sl->name, NULL, MTX_DEF); \ 92} while (0) 93#define IEEE80211_NODE_ITERATE_LOCK_OBJ(_nt) (&(_nt)->nt_scanlock.mtx) 94#define IEEE80211_NODE_ITERATE_LOCK_DESTROY(_nt) \ 95 mtx_destroy(IEEE80211_NODE_ITERATE_LOCK_OBJ(_nt)) 96#define IEEE80211_NODE_ITERATE_LOCK(_nt) \ 97 mtx_lock(IEEE80211_NODE_ITERATE_LOCK_OBJ(_nt)) 98#define IEEE80211_NODE_ITERATE_UNLOCK(_nt) \ 99 mtx_unlock(IEEE80211_NODE_ITERATE_LOCK_OBJ(_nt)) 100 101#define _AGEQ_ENQUEUE(_ifq, _m, _qlen, _age) do { \ 102 (_m)->m_nextpkt = NULL; \ 103 if ((_ifq)->ifq_tail != NULL) { \ 104 _age -= M_AGE_GET((_ifq)->ifq_head); \ 105 (_ifq)->ifq_tail->m_nextpkt = (_m); \ 106 } else { \ 107 (_ifq)->ifq_head = (_m); \ 108 } \ 109 M_AGE_SET(_m, _age); \ 110 (_ifq)->ifq_tail = (_m); \ 111 (_qlen) = ++(_ifq)->ifq_len; \ 112} while (0) 113 114/* 115 * Power-save queue definitions. 116 */ 117typedef struct mtx ieee80211_psq_lock_t; 118#define IEEE80211_PSQ_INIT(_psq, _name) \ 119 mtx_init(&(_psq)->psq_lock, _name, "802.11 ps q", MTX_DEF); 120#define IEEE80211_PSQ_DESTROY(_psq) mtx_destroy(&(_psq)->psq_lock) 121#define IEEE80211_PSQ_LOCK(_psq) mtx_lock(&(_psq)->psq_lock) 122#define IEEE80211_PSQ_UNLOCK(_psq) mtx_unlock(&(_psq)->psq_lock) 123 124#ifndef IF_PREPEND_LIST 125#define _IF_PREPEND_LIST(ifq, mhead, mtail, mcount) do { \ 126 (mtail)->m_nextpkt = (ifq)->ifq_head; \ 127 if ((ifq)->ifq_tail == NULL) \ 128 (ifq)->ifq_tail = (mtail); \ 129 (ifq)->ifq_head = (mhead); \ 130 (ifq)->ifq_len += (mcount); \ 131} while (0) 132#define IF_PREPEND_LIST(ifq, mhead, mtail, mcount) do { \ 133 IF_LOCK(ifq); \ 134 _IF_PREPEND_LIST(ifq, mhead, mtail, mcount); \ 135 IF_UNLOCK(ifq); \ 136} while (0) 137#endif /* IF_PREPEND_LIST */ 138 139/* XXX temporary */ 140#define IEEE80211_NODE_WDSQ_INIT(_ni, _name) do { \ 141 mtx_init(&(_ni)->ni_wdsq.ifq_mtx, _name, "802.11 wds queue", MTX_DEF);\ 142 (_ni)->ni_wdsq.ifq_maxlen = IEEE80211_PS_MAX_QUEUE; \ 143} while (0) 144#define IEEE80211_NODE_WDSQ_DESTROY(_ni) do { \ 145 mtx_destroy(&(_ni)->ni_wdsq.ifq_mtx); \ 146} while (0) 147#define IEEE80211_NODE_WDSQ_QLEN(_ni) _IF_QLEN(&(_ni)->ni_wdsq) 148#define IEEE80211_NODE_WDSQ_LOCK(_ni) IF_LOCK(&(_ni)->ni_wdsq) 149#define IEEE80211_NODE_WDSQ_UNLOCK(_ni) IF_UNLOCK(&(_ni)->ni_wdsq) 150#define _IEEE80211_NODE_WDSQ_DEQUEUE_HEAD(_ni, _m) do { \ 151 _IF_DEQUEUE(&(_ni)->ni_wdsq, m); \ 152} while (0) 153#define _IEEE80211_NODE_WDSQ_ENQUEUE(_ni, _m, _qlen, _age) do { \ 154 _AGEQ_ENQUEUE(&ni->ni_wdsq, _m, _qlen, _age); \ 155} while (0) 156 157/* 158 * 802.1x MAC ACL database locking definitions. 159 */ 160typedef struct mtx acl_lock_t; 161#define ACL_LOCK_INIT(_as, _name) \ 162 mtx_init(&(_as)->as_lock, _name, "802.11 ACL", MTX_DEF) 163#define ACL_LOCK_DESTROY(_as) mtx_destroy(&(_as)->as_lock) 164#define ACL_LOCK(_as) mtx_lock(&(_as)->as_lock) 165#define ACL_UNLOCK(_as) mtx_unlock(&(_as)->as_lock) 166#define ACL_LOCK_ASSERT(_as) \ 167 mtx_assert((&(_as)->as_lock), MA_OWNED) 168 169/* 170 * Node reference counting definitions. 171 * 172 * ieee80211_node_initref initialize the reference count to 1 173 * ieee80211_node_incref add a reference 174 * ieee80211_node_decref remove a reference 175 * ieee80211_node_dectestref remove a reference and return 1 if this 176 * is the last reference, otherwise 0 177 * ieee80211_node_refcnt reference count for printing (only) 178 */ 179#include <machine/atomic.h> 180 181#define ieee80211_node_initref(_ni) \ 182 do { ((_ni)->ni_refcnt = 1); } while (0) 183#define ieee80211_node_incref(_ni) \ 184 atomic_add_int(&(_ni)->ni_refcnt, 1) 185#define ieee80211_node_decref(_ni) \ 186 atomic_subtract_int(&(_ni)->ni_refcnt, 1) 187struct ieee80211_node; 188int ieee80211_node_dectestref(struct ieee80211_node *ni); 189#define ieee80211_node_refcnt(_ni) (_ni)->ni_refcnt 190 191struct ifqueue; 192struct ieee80211vap; 193void ieee80211_drain_ifq(struct ifqueue *); 194void ieee80211_flush_ifq(struct ifqueue *, struct ieee80211vap *); 195 196void ieee80211_vap_destroy(struct ieee80211vap *); 197 198#define IFNET_IS_UP_RUNNING(_ifp) \ 199 (((_ifp)->if_flags & IFF_UP) && \ 200 ((_ifp)->if_drv_flags & IFF_DRV_RUNNING)) 201 202#define msecs_to_ticks(ms) (((ms)*hz)/1000) 203#define ticks_to_msecs(t) (1000*(t) / hz) 204#define ticks_to_secs(t) ((t) / hz) 205#define time_after(a,b) ((long)(b) - (long)(a) < 0) 206#define time_before(a,b) time_after(b,a) 207#define time_after_eq(a,b) ((long)(a) - (long)(b) >= 0) 208#define time_before_eq(a,b) time_after_eq(b,a) 209 210struct mbuf *ieee80211_getmgtframe(uint8_t **frm, int headroom, int pktlen); 211 212/* tx path usage */ 213#define M_ENCAP M_PROTO1 /* 802.11 encap done */ 214#define M_EAPOL M_PROTO3 /* PAE/EAPOL frame */ 215#define M_PWR_SAV M_PROTO4 /* bypass PS handling */ 216#define M_MORE_DATA M_PROTO5 /* more data frames to follow */ 217#define M_FF M_PROTO6 /* fast frame */ 218#define M_TXCB M_PROTO7 /* do tx complete callback */ 219#define M_AMPDU_MPDU M_PROTO8 /* ok for A-MPDU aggregation */ 220#define M_80211_TX \ 221 (M_FRAG|M_FIRSTFRAG|M_LASTFRAG|M_ENCAP|M_EAPOL|M_PWR_SAV|\ 222 M_MORE_DATA|M_FF|M_TXCB|M_AMPDU_MPDU) 223 224/* rx path usage */ 225#define M_AMPDU M_PROTO1 /* A-MPDU subframe */ 226#define M_WEP M_PROTO2 /* WEP done by hardware */ 227#if 0 228#define M_AMPDU_MPDU M_PROTO8 /* A-MPDU re-order done */ 229#endif 230#define M_80211_RX (M_AMPDU|M_WEP|M_AMPDU_MPDU) 231/* 232 * Store WME access control bits in the vlan tag. 233 * This is safe since it's done after the packet is classified 234 * (where we use any previous tag) and because it's passed 235 * directly in to the driver and there's no chance someone 236 * else will clobber them on us. 237 */ 238#define M_WME_SETAC(m, ac) \ 239 ((m)->m_pkthdr.ether_vtag = (ac)) 240#define M_WME_GETAC(m) ((m)->m_pkthdr.ether_vtag) 241 242/* 243 * Mbufs on the power save queue are tagged with an age and 244 * timed out. We reuse the hardware checksum field in the 245 * mbuf packet header to store this data. 246 */ 247#define M_AGE_SET(m,v) (m->m_pkthdr.csum_data = v) 248#define M_AGE_GET(m) (m->m_pkthdr.csum_data) 249#define M_AGE_SUB(m,adj) (m->m_pkthdr.csum_data -= adj) 250 251/* 252 * Store the sequence number. 253 */ 254#define M_SEQNO_SET(m, seqno) \ 255 ((m)->m_pkthdr.tso_segsz = (seqno)) 256#define M_SEQNO_GET(m) ((m)->m_pkthdr.tso_segsz) 257 258#define MTAG_ABI_NET80211 1132948340 /* net80211 ABI */ 259 260struct ieee80211_cb { 261 void (*func)(struct ieee80211_node *, void *, int status); 262 void *arg; 263}; 264#define NET80211_TAG_CALLBACK 0 /* xmit complete callback */ 265int ieee80211_add_callback(struct mbuf *m, 266 void (*func)(struct ieee80211_node *, void *, int), void *arg); 267void ieee80211_process_callback(struct ieee80211_node *, struct mbuf *, int); 268 269void get_random_bytes(void *, size_t); 270 271struct ieee80211com; 272 273void ieee80211_sysctl_attach(struct ieee80211com *); 274void ieee80211_sysctl_detach(struct ieee80211com *); 275void ieee80211_sysctl_vattach(struct ieee80211vap *); 276void ieee80211_sysctl_vdetach(struct ieee80211vap *); 277 278void ieee80211_load_module(const char *); 279 280/* 281 * A "policy module" is an adjunct module to net80211 that provides 282 * functionality that typically includes policy decisions. This 283 * modularity enables extensibility and vendor-supplied functionality. 284 */ 285#define _IEEE80211_POLICY_MODULE(policy, name, version) \ 286typedef void (*policy##_setup)(int); \ 287SET_DECLARE(policy##_set, policy##_setup); \ 288static int \ 289wlan_##name##_modevent(module_t mod, int type, void *unused) \ 290{ \ 291 policy##_setup * const *iter, f; \ 292 switch (type) { \ 293 case MOD_LOAD: \ 294 SET_FOREACH(iter, policy##_set) { \ 295 f = (void*) *iter; \ 296 f(type); \ 297 } \ 298 return 0; \ 299 case MOD_UNLOAD: \ 300 case MOD_QUIESCE: \ 301 if (nrefs) { \ 302 printf("wlan_##name: still in use (%u dynamic refs)\n",\ 303 nrefs); \ 304 return EBUSY; \ 305 } \ 306 if (type == MOD_UNLOAD) { \ 307 SET_FOREACH(iter, policy##_set) { \ 308 f = (void*) *iter; \ 309 f(type); \ 310 } \ 311 } \ 312 return 0; \ 313 } \ 314 return EINVAL; \ 315} \ 316static moduledata_t name##_mod = { \ 317 "wlan_" #name, \ 318 wlan_##name##_modevent, \ 319 0 \ 320}; \ 321DECLARE_MODULE(wlan_##name, name##_mod, SI_SUB_DRIVERS, SI_ORDER_FIRST);\ 322MODULE_VERSION(wlan_##name, version); \ 323MODULE_DEPEND(wlan_##name, wlan, 1, 1, 1) 324 325/* 326 * Crypto modules implement cipher support. 327 */ 328#define IEEE80211_CRYPTO_MODULE(name, version) \ 329_IEEE80211_POLICY_MODULE(crypto, name, version); \ 330static void \ 331name##_modevent(int type) \ 332{ \ 333 if (type == MOD_LOAD) \ 334 ieee80211_crypto_register(&name); \ 335 else \ 336 ieee80211_crypto_unregister(&name); \ 337} \ 338TEXT_SET(crypto##_set, name##_modevent) 339 340/* 341 * Scanner modules provide scanning policy. 342 */ 343#define IEEE80211_SCANNER_MODULE(name, version) \ 344 _IEEE80211_POLICY_MODULE(scanner, name, version) 345 346#define IEEE80211_SCANNER_ALG(name, alg, v) \ 347static void \ 348name##_modevent(int type) \ 349{ \ 350 if (type == MOD_LOAD) \ 351 ieee80211_scanner_register(alg, &v); \ 352 else \ 353 ieee80211_scanner_unregister(alg, &v); \ 354} \ 355TEXT_SET(scanner_set, name##_modevent); \ 356 357/* 358 * ACL modules implement acl policy. 359 */ 360#define IEEE80211_ACL_MODULE(name, alg, version) \ 361_IEEE80211_POLICY_MODULE(acl, name, version); \ 362static void \ 363alg##_modevent(int type) \ 364{ \ 365 if (type == MOD_LOAD) \ 366 ieee80211_aclator_register(&alg); \ 367 else \ 368 ieee80211_aclator_unregister(&alg); \ 369} \ 370TEXT_SET(acl_set, alg##_modevent); \ 371 372/* 373 * Authenticator modules handle 802.1x/WPA authentication. 374 */ 375#define IEEE80211_AUTH_MODULE(name, version) \ 376 _IEEE80211_POLICY_MODULE(auth, name, version) 377 378#define IEEE80211_AUTH_ALG(name, alg, v) \ 379static void \ 380name##_modevent(int type) \ 381{ \ 382 if (type == MOD_LOAD) \ 383 ieee80211_authenticator_register(alg, &v); \ 384 else \ 385 ieee80211_authenticator_unregister(alg); \ 386} \ 387TEXT_SET(auth_set, name##_modevent) 388 389/* 390 * Rate control modules provide tx rate control support. 391 */ 392#define IEEE80211_RATE_MODULE(alg, version) \ 393_IEEE80211_POLICY_MODULE(rate, alg, version); \ 394static void \ 395alg##_modevent(int type) \ 396{ \ 397 /* XXX nothing to do until the rate control framework arrives */\ 398} \ 399TEXT_SET(rate##_set, alg##_modevent) 400 401struct ieee80211req; 402typedef int ieee80211_ioctl_getfunc(struct ieee80211vap *, 403 struct ieee80211req *); 404SET_DECLARE(ieee80211_ioctl_getset, ieee80211_ioctl_getfunc); 405#define IEEE80211_IOCTL_GET(_name, _get) TEXT_SET(ieee80211_ioctl_getset, _get) 406 407typedef int ieee80211_ioctl_setfunc(struct ieee80211vap *, 408 struct ieee80211req *); 409SET_DECLARE(ieee80211_ioctl_setset, ieee80211_ioctl_setfunc); 410#define IEEE80211_IOCTL_SET(_name, _set) TEXT_SET(ieee80211_ioctl_setset, _set) 411#endif /* _KERNEL */ 412 413/* XXX this stuff belongs elsewhere */ 414/* 415 * Message formats for messages from the net80211 layer to user 416 * applications via the routing socket. These messages are appended 417 * to an if_announcemsghdr structure. 418 */ 419struct ieee80211_join_event { 420 uint8_t iev_addr[6]; 421}; 422 423struct ieee80211_leave_event { 424 uint8_t iev_addr[6]; 425}; 426 427struct ieee80211_replay_event { 428 uint8_t iev_src[6]; /* src MAC */ 429 uint8_t iev_dst[6]; /* dst MAC */ 430 uint8_t iev_cipher; /* cipher type */ 431 uint8_t iev_keyix; /* key id/index */ 432 uint64_t iev_keyrsc; /* RSC from key */ 433 uint64_t iev_rsc; /* RSC from frame */ 434}; 435 436struct ieee80211_michael_event { 437 uint8_t iev_src[6]; /* src MAC */ 438 uint8_t iev_dst[6]; /* dst MAC */ 439 uint8_t iev_cipher; /* cipher type */ 440 uint8_t iev_keyix; /* key id/index */ 441}; 442 443struct ieee80211_wds_event { 444 uint8_t iev_addr[6]; 445}; 446 447struct ieee80211_csa_event { 448 uint32_t iev_flags; /* channel flags */ 449 uint16_t iev_freq; /* setting in Mhz */ 450 uint8_t iev_ieee; /* IEEE channel number */ 451 uint8_t iev_mode; /* CSA mode */ 452 uint8_t iev_count; /* CSA count */ 453}; 454 455struct ieee80211_cac_event { 456 uint32_t iev_flags; /* channel flags */ 457 uint16_t iev_freq; /* setting in Mhz */ 458 uint8_t iev_ieee; /* IEEE channel number */ 459 /* XXX timestamp? */ 460 uint8_t iev_type; /* IEEE80211_NOTIFY_CAC_* */ 461}; 462 463struct ieee80211_radar_event { 464 uint32_t iev_flags; /* channel flags */ 465 uint16_t iev_freq; /* setting in Mhz */ 466 uint8_t iev_ieee; /* IEEE channel number */ 467 /* XXX timestamp? */ 468}; 469 470struct ieee80211_auth_event { 471 uint8_t iev_addr[6]; 472}; 473 474struct ieee80211_deauth_event { 475 uint8_t iev_addr[6]; 476}; 477 478struct ieee80211_country_event { 479 uint8_t iev_addr[6]; 480 uint8_t iev_cc[2]; /* ISO country code */ 481}; 482 483struct ieee80211_radio_event { 484 uint8_t iev_state; /* 1 on, 0 off */ 485}; 486 487#define RTM_IEEE80211_ASSOC 100 /* station associate (bss mode) */ 488#define RTM_IEEE80211_REASSOC 101 /* station re-associate (bss mode) */ 489#define RTM_IEEE80211_DISASSOC 102 /* station disassociate (bss mode) */ 490#define RTM_IEEE80211_JOIN 103 /* station join (ap mode) */ 491#define RTM_IEEE80211_LEAVE 104 /* station leave (ap mode) */ 492#define RTM_IEEE80211_SCAN 105 /* scan complete, results available */ 493#define RTM_IEEE80211_REPLAY 106 /* sequence counter replay detected */ 494#define RTM_IEEE80211_MICHAEL 107 /* Michael MIC failure detected */ 495#define RTM_IEEE80211_REJOIN 108 /* station re-associate (ap mode) */ 496#define RTM_IEEE80211_WDS 109 /* WDS discovery (ap mode) */ 497#define RTM_IEEE80211_CSA 110 /* Channel Switch Announcement event */ 498#define RTM_IEEE80211_RADAR 111 /* radar event */ 499#define RTM_IEEE80211_CAC 112 /* Channel Availability Check event */ 500#define RTM_IEEE80211_DEAUTH 113 /* station deauthenticate */ 501#define RTM_IEEE80211_AUTH 114 /* station authenticate (ap mode) */ 502#define RTM_IEEE80211_COUNTRY 115 /* discovered country code (sta mode) */ 503#define RTM_IEEE80211_RADIO 116 /* RF kill switch state change */ 504 505/* 506 * Structure prepended to raw packets sent through the bpf 507 * interface when set to DLT_IEEE802_11_RADIO. This allows 508 * user applications to specify pretty much everything in 509 * an Atheros tx descriptor. XXX need to generalize. 510 * 511 * XXX cannot be more than 14 bytes as it is copied to a sockaddr's 512 * XXX sa_data area. 513 */ 514struct ieee80211_bpf_params { 515 uint8_t ibp_vers; /* version */ 516#define IEEE80211_BPF_VERSION 0 517 uint8_t ibp_len; /* header length in bytes */ 518 uint8_t ibp_flags; 519#define IEEE80211_BPF_SHORTPRE 0x01 /* tx with short preamble */ 520#define IEEE80211_BPF_NOACK 0x02 /* tx with no ack */ 521#define IEEE80211_BPF_CRYPTO 0x04 /* tx with h/w encryption */ 522#define IEEE80211_BPF_FCS 0x10 /* frame incldues FCS */ 523#define IEEE80211_BPF_DATAPAD 0x20 /* frame includes data padding */ 524#define IEEE80211_BPF_RTS 0x40 /* tx with RTS/CTS */ 525#define IEEE80211_BPF_CTS 0x80 /* tx with CTS only */ 526 uint8_t ibp_pri; /* WME/WMM AC+tx antenna */ 527 uint8_t ibp_try0; /* series 1 try count */ 528 uint8_t ibp_rate0; /* series 1 IEEE tx rate */ 529 uint8_t ibp_power; /* tx power (device units) */ 530 uint8_t ibp_ctsrate; /* IEEE tx rate for CTS */ 531 uint8_t ibp_try1; /* series 2 try count */ 532 uint8_t ibp_rate1; /* series 2 IEEE tx rate */ 533 uint8_t ibp_try2; /* series 3 try count */ 534 uint8_t ibp_rate2; /* series 3 IEEE tx rate */ 535 uint8_t ibp_try3; /* series 4 try count */ 536 uint8_t ibp_rate3; /* series 4 IEEE tx rate */ 537}; 538#endif /* _NET80211_IEEE80211_FREEBSD_H_ */ 539