rfcomm_socket.c revision 1.25 1 1.25 rtr /* $NetBSD: rfcomm_socket.c,v 1.25 2014/07/23 13:17:18 rtr Exp $ */
2 1.1 gdamore
3 1.1 gdamore /*-
4 1.1 gdamore * Copyright (c) 2006 Itronix Inc.
5 1.1 gdamore * All rights reserved.
6 1.1 gdamore *
7 1.1 gdamore * Written by Iain Hibbert for Itronix Inc.
8 1.1 gdamore *
9 1.1 gdamore * Redistribution and use in source and binary forms, with or without
10 1.1 gdamore * modification, are permitted provided that the following conditions
11 1.1 gdamore * are met:
12 1.1 gdamore * 1. Redistributions of source code must retain the above copyright
13 1.1 gdamore * notice, this list of conditions and the following disclaimer.
14 1.1 gdamore * 2. Redistributions in binary form must reproduce the above copyright
15 1.1 gdamore * notice, this list of conditions and the following disclaimer in the
16 1.1 gdamore * documentation and/or other materials provided with the distribution.
17 1.1 gdamore * 3. The name of Itronix Inc. may not be used to endorse
18 1.1 gdamore * or promote products derived from this software without specific
19 1.1 gdamore * prior written permission.
20 1.1 gdamore *
21 1.1 gdamore * THIS SOFTWARE IS PROVIDED BY ITRONIX INC. ``AS IS'' AND
22 1.1 gdamore * ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED
23 1.1 gdamore * TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR
24 1.1 gdamore * PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL ITRONIX INC. BE LIABLE FOR ANY
25 1.1 gdamore * DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES
26 1.1 gdamore * (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES;
27 1.1 gdamore * LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND
28 1.1 gdamore * ON ANY THEORY OF LIABILITY, WHETHER IN
29 1.1 gdamore * CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE)
30 1.1 gdamore * ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE
31 1.1 gdamore * POSSIBILITY OF SUCH DAMAGE.
32 1.1 gdamore */
33 1.1 gdamore
34 1.1 gdamore #include <sys/cdefs.h>
35 1.25 rtr __KERNEL_RCSID(0, "$NetBSD: rfcomm_socket.c,v 1.25 2014/07/23 13:17:18 rtr Exp $");
36 1.6 plunky
37 1.6 plunky /* load symbolic names */
38 1.6 plunky #ifdef BLUETOOTH_DEBUG
39 1.6 plunky #define PRUREQUESTS
40 1.6 plunky #define PRCOREQUESTS
41 1.6 plunky #endif
42 1.1 gdamore
43 1.1 gdamore #include <sys/param.h>
44 1.1 gdamore #include <sys/domain.h>
45 1.1 gdamore #include <sys/kernel.h>
46 1.1 gdamore #include <sys/mbuf.h>
47 1.1 gdamore #include <sys/proc.h>
48 1.1 gdamore #include <sys/protosw.h>
49 1.1 gdamore #include <sys/socket.h>
50 1.1 gdamore #include <sys/socketvar.h>
51 1.1 gdamore #include <sys/systm.h>
52 1.1 gdamore
53 1.1 gdamore #include <netbt/bluetooth.h>
54 1.1 gdamore #include <netbt/rfcomm.h>
55 1.1 gdamore
56 1.1 gdamore /****************************************************************************
57 1.1 gdamore *
58 1.1 gdamore * RFCOMM SOCK_STREAM Sockets - serial line emulation
59 1.1 gdamore *
60 1.1 gdamore */
61 1.1 gdamore
62 1.1 gdamore static void rfcomm_connecting(void *);
63 1.1 gdamore static void rfcomm_connected(void *);
64 1.1 gdamore static void rfcomm_disconnected(void *, int);
65 1.1 gdamore static void *rfcomm_newconn(void *, struct sockaddr_bt *, struct sockaddr_bt *);
66 1.1 gdamore static void rfcomm_complete(void *, int);
67 1.7 plunky static void rfcomm_linkmode(void *, int);
68 1.1 gdamore static void rfcomm_input(void *, struct mbuf *);
69 1.1 gdamore
70 1.1 gdamore static const struct btproto rfcomm_proto = {
71 1.1 gdamore rfcomm_connecting,
72 1.1 gdamore rfcomm_connected,
73 1.1 gdamore rfcomm_disconnected,
74 1.1 gdamore rfcomm_newconn,
75 1.1 gdamore rfcomm_complete,
76 1.7 plunky rfcomm_linkmode,
77 1.1 gdamore rfcomm_input,
78 1.1 gdamore };
79 1.1 gdamore
80 1.1 gdamore /* sysctl variables */
81 1.1 gdamore int rfcomm_sendspace = 4096;
82 1.1 gdamore int rfcomm_recvspace = 4096;
83 1.1 gdamore
84 1.13 rmind static int
85 1.15 rmind rfcomm_attach(struct socket *so, int proto)
86 1.13 rmind {
87 1.13 rmind int error;
88 1.13 rmind
89 1.13 rmind KASSERT(so->so_pcb == NULL);
90 1.13 rmind
91 1.13 rmind if (so->so_lock == NULL) {
92 1.13 rmind mutex_obj_hold(bt_lock);
93 1.13 rmind so->so_lock = bt_lock;
94 1.13 rmind solock(so);
95 1.13 rmind }
96 1.13 rmind KASSERT(solocked(so));
97 1.13 rmind
98 1.13 rmind /*
99 1.13 rmind * Since we have nothing to add, we attach the DLC
100 1.13 rmind * structure directly to our PCB pointer.
101 1.13 rmind */
102 1.13 rmind error = soreserve(so, rfcomm_sendspace, rfcomm_recvspace);
103 1.13 rmind if (error)
104 1.13 rmind return error;
105 1.13 rmind
106 1.15 rmind error = rfcomm_attach_pcb((struct rfcomm_dlc **)&so->so_pcb,
107 1.13 rmind &rfcomm_proto, so);
108 1.13 rmind if (error)
109 1.13 rmind return error;
110 1.13 rmind
111 1.13 rmind error = rfcomm_rcvd(so->so_pcb, sbspace(&so->so_rcv));
112 1.13 rmind if (error) {
113 1.15 rmind rfcomm_detach_pcb((struct rfcomm_dlc **)&so->so_pcb);
114 1.13 rmind return error;
115 1.13 rmind }
116 1.13 rmind return 0;
117 1.13 rmind }
118 1.13 rmind
119 1.13 rmind static void
120 1.15 rmind rfcomm_detach(struct socket *so)
121 1.13 rmind {
122 1.14 martin KASSERT(so->so_pcb != NULL);
123 1.15 rmind rfcomm_detach_pcb((struct rfcomm_dlc **)&so->so_pcb);
124 1.13 rmind KASSERT(so->so_pcb == NULL);
125 1.13 rmind }
126 1.13 rmind
127 1.17 rtr static int
128 1.24 rtr rfcomm_accept(struct socket *so, struct mbuf *nam)
129 1.24 rtr {
130 1.24 rtr struct rfcomm_dlc *pcb = so->so_pcb;
131 1.24 rtr struct sockaddr_bt *sa;
132 1.24 rtr
133 1.24 rtr KASSERT(solocked(so));
134 1.24 rtr KASSERT(nam != NULL);
135 1.24 rtr
136 1.24 rtr if (pcb == NULL)
137 1.24 rtr return EINVAL;
138 1.24 rtr
139 1.24 rtr sa = mtod(nam, struct sockaddr_bt *);
140 1.24 rtr nam->m_len = sizeof(struct sockaddr_bt);
141 1.24 rtr return rfcomm_peeraddr_pcb(pcb, sa);
142 1.24 rtr }
143 1.24 rtr
144 1.24 rtr static int
145 1.22 rtr rfcomm_ioctl(struct socket *so, u_long cmd, void *nam, struct ifnet *ifp)
146 1.17 rtr {
147 1.17 rtr return EPASSTHROUGH;
148 1.17 rtr }
149 1.17 rtr
150 1.19 rtr static int
151 1.19 rtr rfcomm_stat(struct socket *so, struct stat *ub)
152 1.19 rtr {
153 1.22 rtr KASSERT(solocked(so));
154 1.22 rtr
155 1.21 rtr return 0;
156 1.19 rtr }
157 1.19 rtr
158 1.23 rtr static int
159 1.23 rtr rfcomm_peeraddr(struct socket *so, struct mbuf *nam)
160 1.23 rtr {
161 1.23 rtr struct rfcomm_dlc *pcb = so->so_pcb;
162 1.23 rtr struct sockaddr_bt *sa;
163 1.23 rtr
164 1.23 rtr KASSERT(solocked(so));
165 1.23 rtr KASSERT(pcb != NULL);
166 1.23 rtr KASSERT(nam != NULL);
167 1.23 rtr
168 1.23 rtr sa = mtod(nam, struct sockaddr_bt *);
169 1.23 rtr nam->m_len = sizeof(struct sockaddr_bt);
170 1.23 rtr return rfcomm_peeraddr_pcb(pcb, sa);
171 1.23 rtr }
172 1.23 rtr
173 1.23 rtr static int
174 1.23 rtr rfcomm_sockaddr(struct socket *so, struct mbuf *nam)
175 1.23 rtr {
176 1.23 rtr struct rfcomm_dlc *pcb = so->so_pcb;
177 1.23 rtr struct sockaddr_bt *sa;
178 1.23 rtr
179 1.23 rtr KASSERT(solocked(so));
180 1.23 rtr KASSERT(pcb != NULL);
181 1.23 rtr KASSERT(nam != NULL);
182 1.23 rtr
183 1.23 rtr sa = mtod(nam, struct sockaddr_bt *);
184 1.23 rtr nam->m_len = sizeof(struct sockaddr_bt);
185 1.23 rtr return rfcomm_sockaddr_pcb(pcb, sa);
186 1.23 rtr }
187 1.23 rtr
188 1.25 rtr static int
189 1.25 rtr rfcomm_recvoob(struct socket *so, struct mbuf *m, int flags)
190 1.25 rtr {
191 1.25 rtr KASSERT(solocked(so));
192 1.25 rtr
193 1.25 rtr return EOPNOTSUPP;
194 1.25 rtr }
195 1.25 rtr
196 1.25 rtr static int
197 1.25 rtr rfcomm_sendoob(struct socket *so, struct mbuf *m, struct mbuf *control)
198 1.25 rtr {
199 1.25 rtr KASSERT(solocked(so));
200 1.25 rtr
201 1.25 rtr if (m)
202 1.25 rtr m_freem(m);
203 1.25 rtr if (control)
204 1.25 rtr m_freem(control);
205 1.25 rtr
206 1.25 rtr return EOPNOTSUPP;
207 1.25 rtr }
208 1.25 rtr
209 1.1 gdamore /*
210 1.1 gdamore * User Request.
211 1.1 gdamore * up is socket
212 1.17 rtr * m is optional mbuf chain containing message
213 1.1 gdamore * nam is either
214 1.1 gdamore * optional mbuf chain containing an address
215 1.1 gdamore * message flags (PRU_RCVD)
216 1.1 gdamore * ctl is either
217 1.1 gdamore * optional mbuf chain containing socket options
218 1.17 rtr * optional interface pointer PRU_PURGEIF
219 1.1 gdamore * l is pointer to process requesting action (if any)
220 1.1 gdamore *
221 1.1 gdamore * we are responsible for disposing of m and ctl if
222 1.1 gdamore * they are mbuf chains
223 1.1 gdamore */
224 1.12 rmind static int
225 1.1 gdamore rfcomm_usrreq(struct socket *up, int req, struct mbuf *m,
226 1.3 christos struct mbuf *nam, struct mbuf *ctl, struct lwp *l)
227 1.1 gdamore {
228 1.1 gdamore struct rfcomm_dlc *pcb = up->so_pcb;
229 1.1 gdamore struct sockaddr_bt *sa;
230 1.1 gdamore struct mbuf *m0;
231 1.1 gdamore int err = 0;
232 1.1 gdamore
233 1.1 gdamore DPRINTFN(2, "%s\n", prurequests[req]);
234 1.13 rmind KASSERT(req != PRU_ATTACH);
235 1.13 rmind KASSERT(req != PRU_DETACH);
236 1.24 rtr KASSERT(req != PRU_ACCEPT);
237 1.17 rtr KASSERT(req != PRU_CONTROL);
238 1.19 rtr KASSERT(req != PRU_SENSE);
239 1.23 rtr KASSERT(req != PRU_PEERADDR);
240 1.23 rtr KASSERT(req != PRU_SOCKADDR);
241 1.25 rtr KASSERT(req != PRU_RCVOOB);
242 1.25 rtr KASSERT(req != PRU_SENDOOB);
243 1.1 gdamore
244 1.1 gdamore switch (req) {
245 1.1 gdamore case PRU_PURGEIF:
246 1.1 gdamore return EOPNOTSUPP;
247 1.1 gdamore }
248 1.1 gdamore if (pcb == NULL) {
249 1.1 gdamore err = EINVAL;
250 1.1 gdamore goto release;
251 1.1 gdamore }
252 1.1 gdamore
253 1.1 gdamore switch(req) {
254 1.1 gdamore case PRU_DISCONNECT:
255 1.1 gdamore soisdisconnecting(up);
256 1.1 gdamore return rfcomm_disconnect(pcb, up->so_linger);
257 1.1 gdamore
258 1.1 gdamore case PRU_ABORT:
259 1.1 gdamore rfcomm_disconnect(pcb, 0);
260 1.1 gdamore soisdisconnected(up);
261 1.15 rmind rfcomm_detach(up);
262 1.13 rmind return 0;
263 1.1 gdamore
264 1.1 gdamore case PRU_BIND:
265 1.5 plunky KASSERT(nam != NULL);
266 1.1 gdamore sa = mtod(nam, struct sockaddr_bt *);
267 1.1 gdamore
268 1.1 gdamore if (sa->bt_len != sizeof(struct sockaddr_bt))
269 1.1 gdamore return EINVAL;
270 1.1 gdamore
271 1.1 gdamore if (sa->bt_family != AF_BLUETOOTH)
272 1.1 gdamore return EAFNOSUPPORT;
273 1.1 gdamore
274 1.1 gdamore return rfcomm_bind(pcb, sa);
275 1.1 gdamore
276 1.1 gdamore case PRU_CONNECT:
277 1.5 plunky KASSERT(nam != NULL);
278 1.1 gdamore sa = mtod(nam, struct sockaddr_bt *);
279 1.1 gdamore
280 1.1 gdamore if (sa->bt_len != sizeof(struct sockaddr_bt))
281 1.1 gdamore return EINVAL;
282 1.1 gdamore
283 1.1 gdamore if (sa->bt_family != AF_BLUETOOTH)
284 1.1 gdamore return EAFNOSUPPORT;
285 1.1 gdamore
286 1.1 gdamore soisconnecting(up);
287 1.1 gdamore return rfcomm_connect(pcb, sa);
288 1.1 gdamore
289 1.1 gdamore case PRU_SHUTDOWN:
290 1.1 gdamore socantsendmore(up);
291 1.1 gdamore break;
292 1.1 gdamore
293 1.1 gdamore case PRU_SEND:
294 1.5 plunky KASSERT(m != NULL);
295 1.1 gdamore
296 1.1 gdamore if (ctl) /* no use for that */
297 1.1 gdamore m_freem(ctl);
298 1.1 gdamore
299 1.1 gdamore m0 = m_copypacket(m, M_DONTWAIT);
300 1.1 gdamore if (m0 == NULL)
301 1.1 gdamore return ENOMEM;
302 1.1 gdamore
303 1.1 gdamore sbappendstream(&up->so_snd, m);
304 1.1 gdamore
305 1.1 gdamore return rfcomm_send(pcb, m0);
306 1.1 gdamore
307 1.1 gdamore case PRU_RCVD:
308 1.1 gdamore return rfcomm_rcvd(pcb, sbspace(&up->so_rcv));
309 1.1 gdamore
310 1.1 gdamore case PRU_LISTEN:
311 1.1 gdamore return rfcomm_listen(pcb);
312 1.1 gdamore
313 1.1 gdamore case PRU_CONNECT2:
314 1.1 gdamore case PRU_FASTTIMO:
315 1.1 gdamore case PRU_SLOWTIMO:
316 1.1 gdamore case PRU_PROTORCV:
317 1.1 gdamore case PRU_PROTOSEND:
318 1.1 gdamore err = EOPNOTSUPP;
319 1.1 gdamore break;
320 1.1 gdamore
321 1.1 gdamore default:
322 1.1 gdamore UNKNOWN(req);
323 1.1 gdamore err = EOPNOTSUPP;
324 1.1 gdamore break;
325 1.1 gdamore }
326 1.1 gdamore
327 1.1 gdamore release:
328 1.1 gdamore if (m) m_freem(m);
329 1.1 gdamore if (ctl) m_freem(ctl);
330 1.1 gdamore return err;
331 1.1 gdamore }
332 1.1 gdamore
333 1.1 gdamore /*
334 1.10 plunky * rfcomm_ctloutput(req, socket, sockopt)
335 1.1 gdamore *
336 1.1 gdamore */
337 1.1 gdamore int
338 1.10 plunky rfcomm_ctloutput(int req, struct socket *so, struct sockopt *sopt)
339 1.1 gdamore {
340 1.1 gdamore struct rfcomm_dlc *pcb = so->so_pcb;
341 1.1 gdamore int err = 0;
342 1.1 gdamore
343 1.1 gdamore DPRINTFN(2, "%s\n", prcorequests[req]);
344 1.1 gdamore
345 1.4 plunky if (pcb == NULL)
346 1.4 plunky return EINVAL;
347 1.4 plunky
348 1.10 plunky if (sopt->sopt_level != BTPROTO_RFCOMM)
349 1.4 plunky return ENOPROTOOPT;
350 1.1 gdamore
351 1.1 gdamore switch(req) {
352 1.1 gdamore case PRCO_GETOPT:
353 1.10 plunky err = rfcomm_getopt(pcb, sopt);
354 1.1 gdamore break;
355 1.1 gdamore
356 1.1 gdamore case PRCO_SETOPT:
357 1.10 plunky err = rfcomm_setopt(pcb, sopt);
358 1.1 gdamore break;
359 1.1 gdamore
360 1.1 gdamore default:
361 1.4 plunky err = ENOPROTOOPT;
362 1.1 gdamore break;
363 1.1 gdamore }
364 1.1 gdamore
365 1.1 gdamore return err;
366 1.1 gdamore }
367 1.1 gdamore
368 1.1 gdamore /**********************************************************************
369 1.1 gdamore *
370 1.1 gdamore * RFCOMM callbacks
371 1.1 gdamore */
372 1.1 gdamore
373 1.1 gdamore static void
374 1.3 christos rfcomm_connecting(void *arg)
375 1.1 gdamore {
376 1.1 gdamore /* struct socket *so = arg; */
377 1.1 gdamore
378 1.5 plunky KASSERT(arg != NULL);
379 1.1 gdamore DPRINTF("Connecting\n");
380 1.1 gdamore }
381 1.1 gdamore
382 1.1 gdamore static void
383 1.1 gdamore rfcomm_connected(void *arg)
384 1.1 gdamore {
385 1.1 gdamore struct socket *so = arg;
386 1.1 gdamore
387 1.5 plunky KASSERT(so != NULL);
388 1.1 gdamore DPRINTF("Connected\n");
389 1.1 gdamore soisconnected(so);
390 1.1 gdamore }
391 1.1 gdamore
392 1.1 gdamore static void
393 1.1 gdamore rfcomm_disconnected(void *arg, int err)
394 1.1 gdamore {
395 1.1 gdamore struct socket *so = arg;
396 1.1 gdamore
397 1.5 plunky KASSERT(so != NULL);
398 1.1 gdamore DPRINTF("Disconnected\n");
399 1.1 gdamore
400 1.1 gdamore so->so_error = err;
401 1.1 gdamore soisdisconnected(so);
402 1.1 gdamore }
403 1.1 gdamore
404 1.1 gdamore static void *
405 1.3 christos rfcomm_newconn(void *arg, struct sockaddr_bt *laddr,
406 1.3 christos struct sockaddr_bt *raddr)
407 1.1 gdamore {
408 1.1 gdamore struct socket *so = arg;
409 1.1 gdamore
410 1.1 gdamore DPRINTF("New Connection\n");
411 1.11 rmind so = sonewconn(so, false);
412 1.1 gdamore if (so == NULL)
413 1.1 gdamore return NULL;
414 1.1 gdamore
415 1.1 gdamore soisconnecting(so);
416 1.1 gdamore
417 1.1 gdamore return so->so_pcb;
418 1.1 gdamore }
419 1.1 gdamore
420 1.1 gdamore /*
421 1.1 gdamore * rfcomm_complete(rfcomm_dlc, length)
422 1.1 gdamore *
423 1.1 gdamore * length bytes are sent and may be removed from socket buffer
424 1.1 gdamore */
425 1.1 gdamore static void
426 1.1 gdamore rfcomm_complete(void *arg, int length)
427 1.1 gdamore {
428 1.1 gdamore struct socket *so = arg;
429 1.1 gdamore
430 1.1 gdamore sbdrop(&so->so_snd, length);
431 1.1 gdamore sowwakeup(so);
432 1.1 gdamore }
433 1.1 gdamore
434 1.1 gdamore /*
435 1.7 plunky * rfcomm_linkmode(rfcomm_dlc, new)
436 1.7 plunky *
437 1.7 plunky * link mode change notification.
438 1.7 plunky */
439 1.7 plunky static void
440 1.7 plunky rfcomm_linkmode(void *arg, int new)
441 1.7 plunky {
442 1.7 plunky struct socket *so = arg;
443 1.10 plunky struct sockopt sopt;
444 1.7 plunky int mode;
445 1.7 plunky
446 1.7 plunky DPRINTF("auth %s, encrypt %s, secure %s\n",
447 1.7 plunky (new & RFCOMM_LM_AUTH ? "on" : "off"),
448 1.7 plunky (new & RFCOMM_LM_ENCRYPT ? "on" : "off"),
449 1.7 plunky (new & RFCOMM_LM_SECURE ? "on" : "off"));
450 1.7 plunky
451 1.10 plunky sockopt_init(&sopt, BTPROTO_RFCOMM, SO_RFCOMM_LM, 0);
452 1.10 plunky (void)rfcomm_getopt(so->so_pcb, &sopt);
453 1.10 plunky (void)sockopt_getint(&sopt, &mode);
454 1.10 plunky sockopt_destroy(&sopt);
455 1.10 plunky
456 1.7 plunky if (((mode & RFCOMM_LM_AUTH) && !(new & RFCOMM_LM_AUTH))
457 1.7 plunky || ((mode & RFCOMM_LM_ENCRYPT) && !(new & RFCOMM_LM_ENCRYPT))
458 1.7 plunky || ((mode & RFCOMM_LM_SECURE) && !(new & RFCOMM_LM_SECURE)))
459 1.7 plunky rfcomm_disconnect(so->so_pcb, 0);
460 1.7 plunky }
461 1.7 plunky
462 1.7 plunky /*
463 1.1 gdamore * rfcomm_input(rfcomm_dlc, mbuf)
464 1.1 gdamore */
465 1.1 gdamore static void
466 1.1 gdamore rfcomm_input(void *arg, struct mbuf *m)
467 1.1 gdamore {
468 1.1 gdamore struct socket *so = arg;
469 1.1 gdamore
470 1.5 plunky KASSERT(so != NULL);
471 1.1 gdamore
472 1.1 gdamore if (m->m_pkthdr.len > sbspace(&so->so_rcv)) {
473 1.1 gdamore printf("%s: %d bytes dropped (socket buffer full)\n",
474 1.1 gdamore __func__, m->m_pkthdr.len);
475 1.1 gdamore m_freem(m);
476 1.1 gdamore return;
477 1.1 gdamore }
478 1.1 gdamore
479 1.1 gdamore DPRINTFN(10, "received %d bytes\n", m->m_pkthdr.len);
480 1.1 gdamore
481 1.1 gdamore sbappendstream(&so->so_rcv, m);
482 1.1 gdamore sorwakeup(so);
483 1.1 gdamore }
484 1.12 rmind
485 1.16 rmind PR_WRAP_USRREQS(rfcomm)
486 1.12 rmind
487 1.16 rmind #define rfcomm_attach rfcomm_attach_wrapper
488 1.16 rmind #define rfcomm_detach rfcomm_detach_wrapper
489 1.24 rtr #define rfcomm_accept rfcomm_accept_wrapper
490 1.17 rtr #define rfcomm_ioctl rfcomm_ioctl_wrapper
491 1.19 rtr #define rfcomm_stat rfcomm_stat_wrapper
492 1.23 rtr #define rfcomm_peeraddr rfcomm_peeraddr_wrapper
493 1.23 rtr #define rfcomm_sockaddr rfcomm_sockaddr_wrapper
494 1.25 rtr #define rfcomm_recvoob rfcomm_recvoob_wrapper
495 1.25 rtr #define rfcomm_sendoob rfcomm_sendoob_wrapper
496 1.12 rmind #define rfcomm_usrreq rfcomm_usrreq_wrapper
497 1.12 rmind
498 1.12 rmind const struct pr_usrreqs rfcomm_usrreqs = {
499 1.15 rmind .pr_attach = rfcomm_attach,
500 1.15 rmind .pr_detach = rfcomm_detach,
501 1.24 rtr .pr_accept = rfcomm_accept,
502 1.17 rtr .pr_ioctl = rfcomm_ioctl,
503 1.19 rtr .pr_stat = rfcomm_stat,
504 1.23 rtr .pr_peeraddr = rfcomm_peeraddr,
505 1.23 rtr .pr_sockaddr = rfcomm_sockaddr,
506 1.25 rtr .pr_recvoob = rfcomm_recvoob,
507 1.25 rtr .pr_sendoob = rfcomm_sendoob,
508 1.12 rmind .pr_generic = rfcomm_usrreq,
509 1.12 rmind };
510