raw_ip.c revision 1.114.2.3 1 1.114.2.2 tls /* $NetBSD: raw_ip.c,v 1.114.2.3 2014/08/20 00:04:35 tls Exp $ */
2 1.43 itojun
3 1.43 itojun /*
4 1.43 itojun * Copyright (C) 1995, 1996, 1997, and 1998 WIDE Project.
5 1.43 itojun * All rights reserved.
6 1.61 itojun *
7 1.43 itojun * Redistribution and use in source and binary forms, with or without
8 1.43 itojun * modification, are permitted provided that the following conditions
9 1.43 itojun * are met:
10 1.43 itojun * 1. Redistributions of source code must retain the above copyright
11 1.43 itojun * notice, this list of conditions and the following disclaimer.
12 1.43 itojun * 2. Redistributions in binary form must reproduce the above copyright
13 1.43 itojun * notice, this list of conditions and the following disclaimer in the
14 1.43 itojun * documentation and/or other materials provided with the distribution.
15 1.43 itojun * 3. Neither the name of the project nor the names of its contributors
16 1.43 itojun * may be used to endorse or promote products derived from this software
17 1.43 itojun * without specific prior written permission.
18 1.61 itojun *
19 1.43 itojun * THIS SOFTWARE IS PROVIDED BY THE PROJECT AND CONTRIBUTORS ``AS IS'' AND
20 1.43 itojun * ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE
21 1.43 itojun * IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE
22 1.43 itojun * ARE DISCLAIMED. IN NO EVENT SHALL THE PROJECT OR CONTRIBUTORS BE LIABLE
23 1.43 itojun * FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL
24 1.43 itojun * DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS
25 1.43 itojun * OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION)
26 1.43 itojun * HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT
27 1.43 itojun * LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY
28 1.43 itojun * OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF
29 1.43 itojun * SUCH DAMAGE.
30 1.43 itojun */
31 1.14 cgd
32 1.1 cgd /*
33 1.13 mycroft * Copyright (c) 1982, 1986, 1988, 1993
34 1.13 mycroft * The Regents of the University of California. All rights reserved.
35 1.1 cgd *
36 1.1 cgd * Redistribution and use in source and binary forms, with or without
37 1.1 cgd * modification, are permitted provided that the following conditions
38 1.1 cgd * are met:
39 1.1 cgd * 1. Redistributions of source code must retain the above copyright
40 1.1 cgd * notice, this list of conditions and the following disclaimer.
41 1.1 cgd * 2. Redistributions in binary form must reproduce the above copyright
42 1.1 cgd * notice, this list of conditions and the following disclaimer in the
43 1.1 cgd * documentation and/or other materials provided with the distribution.
44 1.71 agc * 3. Neither the name of the University nor the names of its contributors
45 1.1 cgd * may be used to endorse or promote products derived from this software
46 1.1 cgd * without specific prior written permission.
47 1.1 cgd *
48 1.1 cgd * THIS SOFTWARE IS PROVIDED BY THE REGENTS AND CONTRIBUTORS ``AS IS'' AND
49 1.1 cgd * ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE
50 1.1 cgd * IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE
51 1.1 cgd * ARE DISCLAIMED. IN NO EVENT SHALL THE REGENTS OR CONTRIBUTORS BE LIABLE
52 1.1 cgd * FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL
53 1.1 cgd * DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS
54 1.1 cgd * OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION)
55 1.1 cgd * HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT
56 1.1 cgd * LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY
57 1.1 cgd * OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF
58 1.1 cgd * SUCH DAMAGE.
59 1.1 cgd *
60 1.39 thorpej * @(#)raw_ip.c 8.7 (Berkeley) 5/15/95
61 1.1 cgd */
62 1.59 lukem
63 1.114.2.3 tls /*
64 1.114.2.3 tls * Raw interface to IP protocol.
65 1.114.2.3 tls */
66 1.114.2.3 tls
67 1.59 lukem #include <sys/cdefs.h>
68 1.114.2.2 tls __KERNEL_RCSID(0, "$NetBSD: raw_ip.c,v 1.114.2.3 2014/08/20 00:04:35 tls Exp $");
69 1.40 scottr
70 1.78 jonathan #include "opt_inet.h"
71 1.109 christos #include "opt_compat_netbsd.h"
72 1.45 thorpej #include "opt_ipsec.h"
73 1.40 scottr #include "opt_mrouting.h"
74 1.1 cgd
75 1.7 mycroft #include <sys/param.h>
76 1.84 atatat #include <sys/sysctl.h>
77 1.7 mycroft #include <sys/malloc.h>
78 1.7 mycroft #include <sys/mbuf.h>
79 1.7 mycroft #include <sys/socket.h>
80 1.7 mycroft #include <sys/protosw.h>
81 1.7 mycroft #include <sys/socketvar.h>
82 1.7 mycroft #include <sys/errno.h>
83 1.13 mycroft #include <sys/systm.h>
84 1.26 mycroft #include <sys/proc.h>
85 1.89 elad #include <sys/kauth.h>
86 1.1 cgd
87 1.7 mycroft #include <net/if.h>
88 1.7 mycroft #include <net/route.h>
89 1.1 cgd
90 1.7 mycroft #include <netinet/in.h>
91 1.7 mycroft #include <netinet/in_systm.h>
92 1.7 mycroft #include <netinet/ip.h>
93 1.7 mycroft #include <netinet/ip_var.h>
94 1.105 thorpej #include <netinet/ip_private.h>
95 1.13 mycroft #include <netinet/ip_mroute.h>
96 1.44 darrenr #include <netinet/ip_icmp.h>
97 1.7 mycroft #include <netinet/in_pcb.h>
98 1.87 yamt #include <netinet/in_proto.h>
99 1.24 christos #include <netinet/in_var.h>
100 1.24 christos
101 1.114.2.2 tls #ifdef IPSEC
102 1.72 jonathan #include <netipsec/ipsec.h>
103 1.106 thorpej #include <netipsec/ipsec_var.h>
104 1.106 thorpej #include <netipsec/ipsec_private.h>
105 1.114.2.2 tls #endif /* IPSEC */
106 1.72 jonathan
107 1.109 christos #ifdef COMPAT_50
108 1.109 christos #include <compat/sys/socket.h>
109 1.109 christos #endif
110 1.109 christos
111 1.20 mycroft struct inpcbtable rawcbtable;
112 1.30 pk
113 1.82 perry int rip_pcbnotify(struct inpcbtable *, struct in_addr,
114 1.82 perry struct in_addr, int, int, void (*)(struct inpcb *, int));
115 1.114.2.3 tls int rip_connect_pcb(struct inpcb *, struct mbuf *);
116 1.114.2.3 tls static void rip_disconnect1(struct inpcb *);
117 1.13 mycroft
118 1.110 pooka static void sysctl_net_inet_raw_setup(struct sysctllog **);
119 1.110 pooka
120 1.13 mycroft /*
121 1.13 mycroft * Nominal space allocated to a raw ip socket.
122 1.13 mycroft */
123 1.13 mycroft #define RIPSNDQ 8192
124 1.13 mycroft #define RIPRCVQ 8192
125 1.1 cgd
126 1.114.2.3 tls static u_long rip_sendspace = RIPSNDQ;
127 1.114.2.3 tls static u_long rip_recvspace = RIPRCVQ;
128 1.114.2.3 tls
129 1.1 cgd /*
130 1.1 cgd * Raw interface to IP protocol.
131 1.1 cgd */
132 1.13 mycroft
133 1.13 mycroft /*
134 1.13 mycroft * Initialize raw connection block q.
135 1.13 mycroft */
136 1.13 mycroft void
137 1.83 perry rip_init(void)
138 1.13 mycroft {
139 1.13 mycroft
140 1.110 pooka sysctl_net_inet_raw_setup(NULL);
141 1.33 mycroft in_pcbinit(&rawcbtable, 1, 1);
142 1.13 mycroft }
143 1.13 mycroft
144 1.100 dyoung static void
145 1.100 dyoung rip_sbappendaddr(struct inpcb *last, struct ip *ip, const struct sockaddr *sa,
146 1.100 dyoung int hlen, struct mbuf *opts, struct mbuf *n)
147 1.100 dyoung {
148 1.100 dyoung if (last->inp_flags & INP_NOHEADER)
149 1.100 dyoung m_adj(n, hlen);
150 1.109 christos if (last->inp_flags & INP_CONTROLOPTS
151 1.109 christos #ifdef SO_OTIMESTAMP
152 1.109 christos || last->inp_socket->so_options & SO_OTIMESTAMP
153 1.109 christos #endif
154 1.109 christos || last->inp_socket->so_options & SO_TIMESTAMP)
155 1.100 dyoung ip_savecontrol(last, &opts, ip, n);
156 1.100 dyoung if (sbappendaddr(&last->inp_socket->so_rcv, sa, n, opts) == 0) {
157 1.100 dyoung /* should notify about lost packet */
158 1.100 dyoung m_freem(n);
159 1.100 dyoung if (opts)
160 1.100 dyoung m_freem(opts);
161 1.100 dyoung } else
162 1.100 dyoung sorwakeup(last->inp_socket);
163 1.100 dyoung }
164 1.100 dyoung
165 1.1 cgd /*
166 1.1 cgd * Setup generic address and protocol structures
167 1.1 cgd * for raw_input routine, then pass them along with
168 1.1 cgd * mbuf chain.
169 1.1 cgd */
170 1.9 mycroft void
171 1.24 christos rip_input(struct mbuf *m, ...)
172 1.1 cgd {
173 1.100 dyoung int hlen, proto;
174 1.53 augustss struct ip *ip = mtod(m, struct ip *);
175 1.75 itojun struct inpcb_hdr *inph;
176 1.53 augustss struct inpcb *inp;
177 1.97 dyoung struct inpcb *last = NULL;
178 1.97 dyoung struct mbuf *n, *opts = NULL;
179 1.32 mycroft struct sockaddr_in ripsrc;
180 1.43 itojun va_list ap;
181 1.43 itojun
182 1.43 itojun va_start(ap, m);
183 1.64 simonb (void)va_arg(ap, int); /* ignore value, advance ap */
184 1.43 itojun proto = va_arg(ap, int);
185 1.43 itojun va_end(ap);
186 1.1 cgd
187 1.97 dyoung sockaddr_in_init(&ripsrc, &ip->ip_src, 0);
188 1.42 thorpej
189 1.42 thorpej /*
190 1.42 thorpej * XXX Compatibility: programs using raw IP expect ip_len
191 1.62 itojun * XXX to have the header length subtracted, and in host order.
192 1.62 itojun * XXX ip_off is also expected to be host order.
193 1.42 thorpej */
194 1.100 dyoung hlen = ip->ip_hl << 2;
195 1.100 dyoung ip->ip_len = ntohs(ip->ip_len) - hlen;
196 1.62 itojun NTOHS(ip->ip_off);
197 1.32 mycroft
198 1.114.2.3 tls TAILQ_FOREACH(inph, &rawcbtable.inpt_queue, inph_queue) {
199 1.75 itojun inp = (struct inpcb *)inph;
200 1.75 itojun if (inp->inp_af != AF_INET)
201 1.75 itojun continue;
202 1.43 itojun if (inp->inp_ip.ip_p && inp->inp_ip.ip_p != proto)
203 1.13 mycroft continue;
204 1.32 mycroft if (!in_nullhost(inp->inp_laddr) &&
205 1.32 mycroft !in_hosteq(inp->inp_laddr, ip->ip_dst))
206 1.13 mycroft continue;
207 1.32 mycroft if (!in_nullhost(inp->inp_faddr) &&
208 1.32 mycroft !in_hosteq(inp->inp_faddr, ip->ip_src))
209 1.13 mycroft continue;
210 1.97 dyoung if (last == NULL)
211 1.97 dyoung ;
212 1.114.2.2 tls #if defined(IPSEC)
213 1.97 dyoung /* check AH/ESP integrity. */
214 1.114.2.3 tls else if (ipsec_used &&
215 1.114.2.3 tls ipsec4_in_reject_so(m, last->inp_socket)) {
216 1.106 thorpej IPSEC_STATINC(IPSEC_STAT_IN_POLVIO);
217 1.97 dyoung /* do not inject data to pcb */
218 1.97 dyoung }
219 1.97 dyoung #endif /*IPSEC*/
220 1.99 dyoung else if ((n = m_copypacket(m, M_DONTWAIT)) != NULL) {
221 1.100 dyoung rip_sbappendaddr(last, ip, sintosa(&ripsrc), hlen, opts,
222 1.100 dyoung n);
223 1.97 dyoung opts = NULL;
224 1.13 mycroft }
225 1.36 thorpej last = inp;
226 1.13 mycroft }
227 1.114.2.2 tls #if defined(IPSEC)
228 1.55 itojun /* check AH/ESP integrity. */
229 1.114.2.3 tls if (ipsec_used && last != NULL
230 1.114.2.3 tls && ipsec4_in_reject_so(m, last->inp_socket)) {
231 1.55 itojun m_freem(m);
232 1.106 thorpej IPSEC_STATINC(IPSEC_STAT_IN_POLVIO);
233 1.105 thorpej IP_STATDEC(IP_STAT_DELIVERED);
234 1.55 itojun /* do not inject data to pcb */
235 1.55 itojun } else
236 1.55 itojun #endif /*IPSEC*/
237 1.100 dyoung if (last != NULL)
238 1.100 dyoung rip_sbappendaddr(last, ip, sintosa(&ripsrc), hlen, opts, m);
239 1.100 dyoung else if (inetsw[ip_protox[ip->ip_p]].pr_input == rip_input) {
240 1.105 thorpej uint64_t *ips;
241 1.105 thorpej
242 1.97 dyoung icmp_error(m, ICMP_UNREACH, ICMP_UNREACH_PROTOCOL,
243 1.97 dyoung 0, 0);
244 1.105 thorpej ips = IP_STAT_GETREF();
245 1.105 thorpej ips[IP_STAT_NOPROTO]++;
246 1.105 thorpej ips[IP_STAT_DELIVERED]--;
247 1.105 thorpej IP_STAT_PUTREF();
248 1.97 dyoung } else
249 1.97 dyoung m_freem(m);
250 1.43 itojun return;
251 1.60 itojun }
252 1.60 itojun
253 1.60 itojun int
254 1.83 perry rip_pcbnotify(struct inpcbtable *table,
255 1.83 perry struct in_addr faddr, struct in_addr laddr, int proto, int errno,
256 1.83 perry void (*notify)(struct inpcb *, int))
257 1.60 itojun {
258 1.114.2.3 tls struct inpcb_hdr *inph, *ninph;
259 1.60 itojun int nmatch;
260 1.60 itojun
261 1.60 itojun nmatch = 0;
262 1.114.2.3 tls TAILQ_FOREACH_SAFE(inph, &table->inpt_queue, inph_queue, ninph) {
263 1.114.2.3 tls struct inpcb *inp = (struct inpcb *)inph;
264 1.75 itojun if (inp->inp_af != AF_INET)
265 1.75 itojun continue;
266 1.60 itojun if (inp->inp_ip.ip_p && inp->inp_ip.ip_p != proto)
267 1.60 itojun continue;
268 1.60 itojun if (in_hosteq(inp->inp_faddr, faddr) &&
269 1.60 itojun in_hosteq(inp->inp_laddr, laddr)) {
270 1.60 itojun (*notify)(inp, errno);
271 1.60 itojun nmatch++;
272 1.60 itojun }
273 1.60 itojun }
274 1.60 itojun
275 1.60 itojun return nmatch;
276 1.60 itojun }
277 1.60 itojun
278 1.60 itojun void *
279 1.95 dyoung rip_ctlinput(int cmd, const struct sockaddr *sa, void *v)
280 1.60 itojun {
281 1.60 itojun struct ip *ip = v;
282 1.82 perry void (*notify)(struct inpcb *, int) = in_rtchange;
283 1.60 itojun int errno;
284 1.60 itojun
285 1.60 itojun if (sa->sa_family != AF_INET ||
286 1.60 itojun sa->sa_len != sizeof(struct sockaddr_in))
287 1.60 itojun return NULL;
288 1.60 itojun if ((unsigned)cmd >= PRC_NCMDS)
289 1.60 itojun return NULL;
290 1.60 itojun errno = inetctlerrmap[cmd];
291 1.60 itojun if (PRC_IS_REDIRECT(cmd))
292 1.60 itojun notify = in_rtchange, ip = 0;
293 1.60 itojun else if (cmd == PRC_HOSTDEAD)
294 1.60 itojun ip = 0;
295 1.60 itojun else if (errno == 0)
296 1.60 itojun return NULL;
297 1.60 itojun if (ip) {
298 1.95 dyoung rip_pcbnotify(&rawcbtable, satocsin(sa)->sin_addr,
299 1.60 itojun ip->ip_src, ip->ip_p, errno, notify);
300 1.60 itojun
301 1.60 itojun /* XXX mapped address case */
302 1.60 itojun } else
303 1.95 dyoung in_pcbnotifyall(&rawcbtable, satocsin(sa)->sin_addr, errno,
304 1.60 itojun notify);
305 1.60 itojun return NULL;
306 1.1 cgd }
307 1.1 cgd
308 1.1 cgd /*
309 1.1 cgd * Generate IP header and pass packet to ip_output.
310 1.1 cgd * Tack on options user may have setup with control call.
311 1.1 cgd */
312 1.9 mycroft int
313 1.24 christos rip_output(struct mbuf *m, ...)
314 1.24 christos {
315 1.53 augustss struct inpcb *inp;
316 1.53 augustss struct ip *ip;
317 1.10 mycroft struct mbuf *opts;
318 1.24 christos int flags;
319 1.24 christos va_list ap;
320 1.24 christos
321 1.24 christos va_start(ap, m);
322 1.27 mycroft inp = va_arg(ap, struct inpcb *);
323 1.24 christos va_end(ap);
324 1.24 christos
325 1.27 mycroft flags =
326 1.37 matt (inp->inp_socket->so_options & SO_DONTROUTE) | IP_ALLOWBROADCAST
327 1.37 matt | IP_RETURNMTU;
328 1.1 cgd
329 1.1 cgd /*
330 1.1 cgd * If the user handed us a complete IP packet, use it.
331 1.1 cgd * Otherwise, allocate an mbuf for a header and fill it in.
332 1.1 cgd */
333 1.13 mycroft if ((inp->inp_flags & INP_HDRINCL) == 0) {
334 1.35 thorpej if ((m->m_pkthdr.len + sizeof(struct ip)) > IP_MAXPACKET) {
335 1.35 thorpej m_freem(m);
336 1.35 thorpej return (EMSGSIZE);
337 1.35 thorpej }
338 1.68 itojun M_PREPEND(m, sizeof(struct ip), M_DONTWAIT);
339 1.68 itojun if (!m)
340 1.68 itojun return (ENOBUFS);
341 1.1 cgd ip = mtod(m, struct ip *);
342 1.1 cgd ip->ip_tos = 0;
343 1.62 itojun ip->ip_off = htons(0);
344 1.13 mycroft ip->ip_p = inp->inp_ip.ip_p;
345 1.62 itojun ip->ip_len = htons(m->m_pkthdr.len);
346 1.13 mycroft ip->ip_src = inp->inp_laddr;
347 1.27 mycroft ip->ip_dst = inp->inp_faddr;
348 1.1 cgd ip->ip_ttl = MAXTTL;
349 1.13 mycroft opts = inp->inp_options;
350 1.13 mycroft } else {
351 1.35 thorpej if (m->m_pkthdr.len > IP_MAXPACKET) {
352 1.35 thorpej m_freem(m);
353 1.35 thorpej return (EMSGSIZE);
354 1.35 thorpej }
355 1.13 mycroft ip = mtod(m, struct ip *);
356 1.65 thorpej
357 1.65 thorpej /*
358 1.65 thorpej * If the mbuf is read-only, we need to allocate
359 1.65 thorpej * a new mbuf for the header, since we need to
360 1.65 thorpej * modify the header.
361 1.65 thorpej */
362 1.65 thorpej if (M_READONLY(m)) {
363 1.65 thorpej int hlen = ip->ip_hl << 2;
364 1.65 thorpej
365 1.65 thorpej m = m_copyup(m, hlen, (max_linkhdr + 3) & ~3);
366 1.65 thorpej if (m == NULL)
367 1.65 thorpej return (ENOMEM); /* XXX */
368 1.65 thorpej ip = mtod(m, struct ip *);
369 1.65 thorpej }
370 1.65 thorpej
371 1.62 itojun /* XXX userland passes ip_len and ip_off in host order */
372 1.38 mycroft if (m->m_pkthdr.len != ip->ip_len) {
373 1.38 mycroft m_freem(m);
374 1.38 mycroft return (EINVAL);
375 1.38 mycroft }
376 1.62 itojun HTONS(ip->ip_len);
377 1.62 itojun HTONS(ip->ip_off);
378 1.103 matt if (ip->ip_id != 0 || m->m_pkthdr.len < IP_MINFRAGSIZE)
379 1.103 matt flags |= IP_NOIPNEWID;
380 1.13 mycroft opts = NULL;
381 1.13 mycroft /* XXX prevent ip_output from overwriting header fields */
382 1.13 mycroft flags |= IP_RAWOUTPUT;
383 1.105 thorpej IP_STATINC(IP_STAT_RAWOUT);
384 1.1 cgd }
385 1.114.2.3 tls
386 1.114.2.3 tls /*
387 1.114.2.3 tls * IP output. Note: if IP_RETURNMTU flag is set, the MTU size
388 1.114.2.3 tls * will be stored in inp_errormtu.
389 1.114.2.3 tls */
390 1.114.2.3 tls return ip_output(m, opts, &inp->inp_route, flags, inp->inp_moptions,
391 1.114.2.3 tls inp->inp_socket);
392 1.1 cgd }
393 1.1 cgd
394 1.1 cgd /*
395 1.1 cgd * Raw IP socket option processing.
396 1.1 cgd */
397 1.9 mycroft int
398 1.108 plunky rip_ctloutput(int op, struct socket *so, struct sockopt *sopt)
399 1.1 cgd {
400 1.53 augustss struct inpcb *inp = sotoinpcb(so);
401 1.31 mycroft int error = 0;
402 1.108 plunky int optval;
403 1.1 cgd
404 1.108 plunky if (sopt->sopt_level == SOL_SOCKET && sopt->sopt_name == SO_NOHEADER) {
405 1.100 dyoung if (op == PRCO_GETOPT) {
406 1.108 plunky optval = (inp->inp_flags & INP_NOHEADER) ? 1 : 0;
407 1.108 plunky error = sockopt_set(sopt, &optval, sizeof(optval));
408 1.108 plunky } else if (op == PRCO_SETOPT) {
409 1.108 plunky error = sockopt_getint(sopt, &optval);
410 1.108 plunky if (error)
411 1.108 plunky goto out;
412 1.108 plunky if (optval) {
413 1.108 plunky inp->inp_flags &= ~INP_HDRINCL;
414 1.108 plunky inp->inp_flags |= INP_NOHEADER;
415 1.108 plunky } else
416 1.108 plunky inp->inp_flags &= ~INP_NOHEADER;
417 1.108 plunky }
418 1.108 plunky goto out;
419 1.108 plunky } else if (sopt->sopt_level != IPPROTO_IP)
420 1.108 plunky return ip_ctloutput(op, so, sopt);
421 1.100 dyoung
422 1.100 dyoung switch (op) {
423 1.31 mycroft
424 1.31 mycroft case PRCO_SETOPT:
425 1.108 plunky switch (sopt->sopt_name) {
426 1.31 mycroft case IP_HDRINCL:
427 1.108 plunky error = sockopt_getint(sopt, &optval);
428 1.108 plunky if (error)
429 1.108 plunky break;
430 1.108 plunky if (optval)
431 1.100 dyoung inp->inp_flags |= INP_HDRINCL;
432 1.100 dyoung else
433 1.100 dyoung inp->inp_flags &= ~INP_HDRINCL;
434 1.108 plunky break;
435 1.31 mycroft
436 1.31 mycroft #ifdef MROUTING
437 1.31 mycroft case MRT_INIT:
438 1.31 mycroft case MRT_DONE:
439 1.31 mycroft case MRT_ADD_VIF:
440 1.31 mycroft case MRT_DEL_VIF:
441 1.31 mycroft case MRT_ADD_MFC:
442 1.31 mycroft case MRT_DEL_MFC:
443 1.31 mycroft case MRT_ASSERT:
444 1.81 manu case MRT_API_CONFIG:
445 1.81 manu case MRT_ADD_BW_UPCALL:
446 1.81 manu case MRT_DEL_BW_UPCALL:
447 1.108 plunky error = ip_mrouter_set(so, sopt);
448 1.31 mycroft break;
449 1.31 mycroft #endif
450 1.31 mycroft
451 1.31 mycroft default:
452 1.108 plunky error = ip_ctloutput(op, so, sopt);
453 1.31 mycroft break;
454 1.13 mycroft }
455 1.13 mycroft break;
456 1.1 cgd
457 1.31 mycroft case PRCO_GETOPT:
458 1.108 plunky switch (sopt->sopt_name) {
459 1.31 mycroft case IP_HDRINCL:
460 1.108 plunky optval = inp->inp_flags & INP_HDRINCL;
461 1.108 plunky error = sockopt_set(sopt, &optval, sizeof(optval));
462 1.31 mycroft break;
463 1.31 mycroft
464 1.6 hpeyerl #ifdef MROUTING
465 1.31 mycroft case MRT_VERSION:
466 1.31 mycroft case MRT_ASSERT:
467 1.81 manu case MRT_API_SUPPORT:
468 1.81 manu case MRT_API_CONFIG:
469 1.108 plunky error = ip_mrouter_get(so, sopt);
470 1.18 mycroft break;
471 1.31 mycroft #endif
472 1.31 mycroft
473 1.18 mycroft default:
474 1.108 plunky error = ip_ctloutput(op, so, sopt);
475 1.18 mycroft break;
476 1.18 mycroft }
477 1.31 mycroft break;
478 1.1 cgd }
479 1.108 plunky out:
480 1.100 dyoung return error;
481 1.1 cgd }
482 1.1 cgd
483 1.27 mycroft int
484 1.114.2.3 tls rip_connect_pcb(struct inpcb *inp, struct mbuf *nam)
485 1.29 mycroft {
486 1.29 mycroft struct sockaddr_in *addr = mtod(nam, struct sockaddr_in *);
487 1.29 mycroft
488 1.29 mycroft if (nam->m_len != sizeof(*addr))
489 1.29 mycroft return (EINVAL);
490 1.114.2.3 tls if (IFNET_EMPTY())
491 1.29 mycroft return (EADDRNOTAVAIL);
492 1.114.2.1 tls if (addr->sin_family != AF_INET)
493 1.29 mycroft return (EAFNOSUPPORT);
494 1.114.2.3 tls inp->inp_faddr = addr->sin_addr;
495 1.29 mycroft return (0);
496 1.29 mycroft }
497 1.29 mycroft
498 1.114.2.3 tls static void
499 1.114.2.3 tls rip_disconnect1(struct inpcb *inp)
500 1.27 mycroft {
501 1.27 mycroft
502 1.114.2.3 tls inp->inp_faddr = zeroin_addr;
503 1.27 mycroft }
504 1.27 mycroft
505 1.114.2.3 tls static int
506 1.114.2.3 tls rip_attach(struct socket *so, int proto)
507 1.27 mycroft {
508 1.114.2.3 tls struct inpcb *inp;
509 1.114.2.3 tls int error;
510 1.27 mycroft
511 1.114.2.3 tls KASSERT(sotoinpcb(so) == NULL);
512 1.114.2.3 tls sosetlock(so);
513 1.27 mycroft
514 1.114.2.3 tls if (so->so_snd.sb_hiwat == 0 || so->so_rcv.sb_hiwat == 0) {
515 1.114.2.3 tls error = soreserve(so, rip_sendspace, rip_recvspace);
516 1.114.2.3 tls if (error) {
517 1.114.2.3 tls return error;
518 1.114.2.3 tls }
519 1.114.2.3 tls }
520 1.13 mycroft
521 1.114.2.3 tls error = in_pcballoc(so, &rawcbtable);
522 1.114.2.3 tls if (error) {
523 1.114.2.3 tls return error;
524 1.114.2.3 tls }
525 1.114.2.3 tls inp = sotoinpcb(so);
526 1.114.2.3 tls inp->inp_ip.ip_p = proto;
527 1.114.2.3 tls KASSERT(solocked(so));
528 1.114.2.3 tls
529 1.114.2.3 tls return 0;
530 1.114.2.3 tls }
531 1.114.2.3 tls
532 1.114.2.3 tls static void
533 1.114.2.3 tls rip_detach(struct socket *so)
534 1.1 cgd {
535 1.53 augustss struct inpcb *inp;
536 1.114.2.3 tls
537 1.114.2.3 tls KASSERT(solocked(so));
538 1.114.2.3 tls inp = sotoinpcb(so);
539 1.114.2.3 tls KASSERT(inp != NULL);
540 1.114.2.3 tls
541 1.13 mycroft #ifdef MROUTING
542 1.6 hpeyerl extern struct socket *ip_mrouter;
543 1.114.2.3 tls if (so == ip_mrouter) {
544 1.114.2.3 tls ip_mrouter_done();
545 1.114.2.3 tls }
546 1.6 hpeyerl #endif
547 1.114.2.3 tls in_pcbdetach(inp);
548 1.114.2.3 tls }
549 1.27 mycroft
550 1.114.2.3 tls static int
551 1.114.2.3 tls rip_accept(struct socket *so, struct mbuf *nam)
552 1.114.2.3 tls {
553 1.114.2.3 tls KASSERT(solocked(so));
554 1.49 thorpej
555 1.114.2.3 tls panic("rip_accept");
556 1.93 tls
557 1.114.2.3 tls return EOPNOTSUPP;
558 1.114.2.3 tls }
559 1.22 pk
560 1.114.2.3 tls static int
561 1.114.2.3 tls rip_bind(struct socket *so, struct mbuf *nam, struct lwp *l)
562 1.114.2.3 tls {
563 1.114.2.3 tls struct inpcb *inp = sotoinpcb(so);
564 1.114.2.3 tls struct sockaddr_in *addr;
565 1.114.2.3 tls int error = 0;
566 1.114.2.3 tls int s;
567 1.114.2.3 tls
568 1.114.2.3 tls KASSERT(solocked(so));
569 1.114.2.3 tls KASSERT(inp != NULL);
570 1.114.2.3 tls KASSERT(nam != NULL);
571 1.114.2.3 tls
572 1.114.2.3 tls s = splsoftnet();
573 1.114.2.3 tls addr = mtod(nam, struct sockaddr_in *);
574 1.114.2.3 tls if (nam->m_len != sizeof(*addr)) {
575 1.22 pk error = EINVAL;
576 1.22 pk goto release;
577 1.22 pk }
578 1.114.2.3 tls if (IFNET_EMPTY()) {
579 1.114.2.3 tls error = EADDRNOTAVAIL;
580 1.114.2.3 tls goto release;
581 1.114.2.3 tls }
582 1.114.2.3 tls if (addr->sin_family != AF_INET) {
583 1.114.2.3 tls error = EAFNOSUPPORT;
584 1.114.2.3 tls goto release;
585 1.114.2.3 tls }
586 1.114.2.3 tls if (!in_nullhost(addr->sin_addr) &&
587 1.114.2.3 tls ifa_ifwithaddr(sintosa(addr)) == 0) {
588 1.114.2.3 tls error = EADDRNOTAVAIL;
589 1.114.2.3 tls goto release;
590 1.114.2.3 tls }
591 1.114.2.3 tls inp->inp_laddr = addr->sin_addr;
592 1.22 pk
593 1.114.2.3 tls release:
594 1.114.2.3 tls splx(s);
595 1.114.2.3 tls return error;
596 1.114.2.3 tls }
597 1.1 cgd
598 1.114.2.3 tls static int
599 1.114.2.3 tls rip_listen(struct socket *so, struct lwp *l)
600 1.114.2.3 tls {
601 1.114.2.3 tls KASSERT(solocked(so));
602 1.94 elad
603 1.114.2.3 tls return EOPNOTSUPP;
604 1.114.2.3 tls }
605 1.94 elad
606 1.114.2.3 tls static int
607 1.114.2.3 tls rip_connect(struct socket *so, struct mbuf *nam, struct lwp *l)
608 1.114.2.3 tls {
609 1.114.2.3 tls struct inpcb *inp = sotoinpcb(so);
610 1.114.2.3 tls int error = 0;
611 1.114.2.3 tls int s;
612 1.94 elad
613 1.114.2.3 tls KASSERT(solocked(so));
614 1.114.2.3 tls KASSERT(inp != NULL);
615 1.114.2.3 tls KASSERT(nam != NULL);
616 1.1 cgd
617 1.114.2.3 tls s = splsoftnet();
618 1.114.2.3 tls error = rip_connect_pcb(inp, nam);
619 1.114.2.3 tls if (! error)
620 1.114.2.3 tls soisconnected(so);
621 1.114.2.3 tls splx(s);
622 1.1 cgd
623 1.114.2.3 tls return error;
624 1.114.2.3 tls }
625 1.27 mycroft
626 1.114.2.3 tls static int
627 1.114.2.3 tls rip_connect2(struct socket *so, struct socket *so2)
628 1.114.2.3 tls {
629 1.114.2.3 tls KASSERT(solocked(so));
630 1.27 mycroft
631 1.114.2.3 tls return EOPNOTSUPP;
632 1.114.2.3 tls }
633 1.13 mycroft
634 1.114.2.3 tls static int
635 1.114.2.3 tls rip_disconnect(struct socket *so)
636 1.114.2.3 tls {
637 1.114.2.3 tls struct inpcb *inp = sotoinpcb(so);
638 1.114.2.3 tls int s;
639 1.13 mycroft
640 1.114.2.3 tls KASSERT(solocked(so));
641 1.114.2.3 tls KASSERT(inp != NULL);
642 1.114.2.3 tls
643 1.114.2.3 tls s = splsoftnet();
644 1.114.2.3 tls soisdisconnected(so);
645 1.114.2.3 tls rip_disconnect1(inp);
646 1.114.2.3 tls splx(s);
647 1.114.2.3 tls
648 1.114.2.3 tls return 0;
649 1.114.2.3 tls }
650 1.114.2.3 tls
651 1.114.2.3 tls static int
652 1.114.2.3 tls rip_shutdown(struct socket *so)
653 1.114.2.3 tls {
654 1.114.2.3 tls int s;
655 1.114.2.3 tls
656 1.114.2.3 tls KASSERT(solocked(so));
657 1.27 mycroft
658 1.13 mycroft /*
659 1.13 mycroft * Mark the connection as being incapable of further input.
660 1.13 mycroft */
661 1.114.2.3 tls s = splsoftnet();
662 1.114.2.3 tls socantsendmore(so);
663 1.114.2.3 tls splx(s);
664 1.13 mycroft
665 1.114.2.3 tls return 0;
666 1.114.2.3 tls }
667 1.114.2.3 tls
668 1.114.2.3 tls static int
669 1.114.2.3 tls rip_abort(struct socket *so)
670 1.114.2.3 tls {
671 1.114.2.3 tls KASSERT(solocked(so));
672 1.114.2.3 tls
673 1.114.2.3 tls panic("rip_abort");
674 1.114.2.3 tls
675 1.114.2.3 tls return EOPNOTSUPP;
676 1.114.2.3 tls }
677 1.114.2.3 tls
678 1.114.2.3 tls static int
679 1.114.2.3 tls rip_ioctl(struct socket *so, u_long cmd, void *nam, struct ifnet *ifp)
680 1.114.2.3 tls {
681 1.114.2.3 tls return in_control(so, cmd, nam, ifp);
682 1.114.2.3 tls }
683 1.114.2.3 tls
684 1.114.2.3 tls static int
685 1.114.2.3 tls rip_stat(struct socket *so, struct stat *ub)
686 1.114.2.3 tls {
687 1.114.2.3 tls KASSERT(solocked(so));
688 1.114.2.3 tls
689 1.114.2.3 tls /* stat: don't bother with a blocksize. */
690 1.114.2.3 tls return 0;
691 1.114.2.3 tls }
692 1.114.2.3 tls
693 1.114.2.3 tls static int
694 1.114.2.3 tls rip_peeraddr(struct socket *so, struct mbuf *nam)
695 1.114.2.3 tls {
696 1.114.2.3 tls int s;
697 1.114.2.3 tls
698 1.114.2.3 tls KASSERT(solocked(so));
699 1.114.2.3 tls KASSERT(sotoinpcb(so) != NULL);
700 1.114.2.3 tls KASSERT(nam != NULL);
701 1.114.2.3 tls
702 1.114.2.3 tls s = splsoftnet();
703 1.114.2.3 tls in_setpeeraddr(sotoinpcb(so), nam);
704 1.114.2.3 tls splx(s);
705 1.114.2.3 tls
706 1.114.2.3 tls return 0;
707 1.114.2.3 tls }
708 1.114.2.3 tls
709 1.114.2.3 tls static int
710 1.114.2.3 tls rip_sockaddr(struct socket *so, struct mbuf *nam)
711 1.114.2.3 tls {
712 1.114.2.3 tls int s;
713 1.114.2.3 tls
714 1.114.2.3 tls KASSERT(solocked(so));
715 1.114.2.3 tls KASSERT(sotoinpcb(so) != NULL);
716 1.114.2.3 tls KASSERT(nam != NULL);
717 1.114.2.3 tls
718 1.114.2.3 tls s = splsoftnet();
719 1.114.2.3 tls in_setsockaddr(sotoinpcb(so), nam);
720 1.114.2.3 tls splx(s);
721 1.114.2.3 tls
722 1.114.2.3 tls return 0;
723 1.114.2.3 tls }
724 1.114.2.3 tls
725 1.114.2.3 tls static int
726 1.114.2.3 tls rip_rcvd(struct socket *so, int flags, struct lwp *l)
727 1.114.2.3 tls {
728 1.114.2.3 tls KASSERT(solocked(so));
729 1.114.2.3 tls
730 1.114.2.3 tls return EOPNOTSUPP;
731 1.114.2.3 tls }
732 1.114.2.3 tls
733 1.114.2.3 tls static int
734 1.114.2.3 tls rip_recvoob(struct socket *so, struct mbuf *m, int flags)
735 1.114.2.3 tls {
736 1.114.2.3 tls KASSERT(solocked(so));
737 1.114.2.3 tls
738 1.114.2.3 tls return EOPNOTSUPP;
739 1.114.2.3 tls }
740 1.114.2.3 tls
741 1.114.2.3 tls static int
742 1.114.2.3 tls rip_send(struct socket *so, struct mbuf *m, struct mbuf *nam,
743 1.114.2.3 tls struct mbuf *control, struct lwp *l)
744 1.114.2.3 tls {
745 1.114.2.3 tls struct inpcb *inp = sotoinpcb(so);
746 1.114.2.3 tls int error = 0;
747 1.114.2.3 tls int s;
748 1.114.2.3 tls
749 1.114.2.3 tls KASSERT(solocked(so));
750 1.114.2.3 tls KASSERT(inp != NULL);
751 1.114.2.3 tls KASSERT(m != NULL);
752 1.27 mycroft
753 1.13 mycroft /*
754 1.13 mycroft * Ship a packet out. The appropriate raw output
755 1.13 mycroft * routine handles any massaging necessary.
756 1.13 mycroft */
757 1.114.2.3 tls if (control && control->m_len) {
758 1.114.2.3 tls m_freem(control);
759 1.114.2.3 tls m_freem(m);
760 1.114.2.3 tls return EINVAL;
761 1.114.2.3 tls }
762 1.114.2.3 tls
763 1.114.2.3 tls s = splsoftnet();
764 1.114.2.3 tls if (nam) {
765 1.114.2.3 tls if ((so->so_state & SS_ISCONNECTED) != 0) {
766 1.114.2.3 tls error = EISCONN;
767 1.114.2.3 tls goto die;
768 1.114.2.3 tls }
769 1.114.2.3 tls error = rip_connect_pcb(inp, nam);
770 1.114.2.3 tls if (error) {
771 1.114.2.3 tls die:
772 1.28 mycroft m_freem(m);
773 1.114.2.3 tls splx(s);
774 1.114.2.3 tls return error;
775 1.114.2.3 tls }
776 1.114.2.3 tls } else {
777 1.114.2.3 tls if ((so->so_state & SS_ISCONNECTED) == 0) {
778 1.114.2.3 tls error = ENOTCONN;
779 1.114.2.3 tls goto die;
780 1.28 mycroft }
781 1.28 mycroft }
782 1.114.2.3 tls error = rip_output(m, inp);
783 1.114.2.3 tls if (nam)
784 1.114.2.3 tls rip_disconnect1(inp);
785 1.13 mycroft
786 1.114.2.3 tls splx(s);
787 1.114.2.3 tls return error;
788 1.114.2.3 tls }
789 1.27 mycroft
790 1.114.2.3 tls static int
791 1.114.2.3 tls rip_sendoob(struct socket *so, struct mbuf *m, struct mbuf *control)
792 1.114.2.3 tls {
793 1.114.2.3 tls KASSERT(solocked(so));
794 1.13 mycroft
795 1.114.2.3 tls m_freem(m);
796 1.114.2.3 tls m_freem(control);
797 1.13 mycroft
798 1.114.2.3 tls return EOPNOTSUPP;
799 1.114.2.3 tls }
800 1.13 mycroft
801 1.114.2.3 tls static int
802 1.114.2.3 tls rip_purgeif(struct socket *so, struct ifnet *ifp)
803 1.114.2.3 tls {
804 1.114.2.3 tls int s;
805 1.27 mycroft
806 1.114.2.3 tls s = splsoftnet();
807 1.114.2.3 tls mutex_enter(softnet_lock);
808 1.114.2.3 tls in_pcbpurgeif0(&rawcbtable, ifp);
809 1.114.2.3 tls in_purgeif(ifp);
810 1.114.2.3 tls in_pcbpurgeif(&rawcbtable, ifp);
811 1.114.2.3 tls mutex_exit(softnet_lock);
812 1.27 mycroft splx(s);
813 1.114.2.3 tls
814 1.114.2.3 tls return 0;
815 1.1 cgd }
816 1.84 atatat
817 1.114.2.3 tls int
818 1.114.2.3 tls rip_usrreq(struct socket *so, int req, struct mbuf *m, struct mbuf *nam,
819 1.114.2.3 tls struct mbuf *control, struct lwp *l)
820 1.114.2.3 tls {
821 1.114.2.3 tls KASSERT(req != PRU_ATTACH);
822 1.114.2.3 tls KASSERT(req != PRU_DETACH);
823 1.114.2.3 tls KASSERT(req != PRU_ACCEPT);
824 1.114.2.3 tls KASSERT(req != PRU_BIND);
825 1.114.2.3 tls KASSERT(req != PRU_LISTEN);
826 1.114.2.3 tls KASSERT(req != PRU_CONNECT);
827 1.114.2.3 tls KASSERT(req != PRU_CONNECT2);
828 1.114.2.3 tls KASSERT(req != PRU_DISCONNECT);
829 1.114.2.3 tls KASSERT(req != PRU_SHUTDOWN);
830 1.114.2.3 tls KASSERT(req != PRU_ABORT);
831 1.114.2.3 tls KASSERT(req != PRU_CONTROL);
832 1.114.2.3 tls KASSERT(req != PRU_SENSE);
833 1.114.2.3 tls KASSERT(req != PRU_PEERADDR);
834 1.114.2.3 tls KASSERT(req != PRU_SOCKADDR);
835 1.114.2.3 tls KASSERT(req != PRU_RCVD);
836 1.114.2.3 tls KASSERT(req != PRU_RCVOOB);
837 1.114.2.3 tls KASSERT(req != PRU_SEND);
838 1.114.2.3 tls KASSERT(req != PRU_SENDOOB);
839 1.114.2.3 tls KASSERT(req != PRU_PURGEIF);
840 1.114.2.3 tls
841 1.114.2.3 tls KASSERT(solocked(so));
842 1.114.2.3 tls
843 1.114.2.3 tls if (sotoinpcb(so) == NULL)
844 1.114.2.3 tls return EINVAL;
845 1.114.2.3 tls
846 1.114.2.3 tls panic("rip_usrreq");
847 1.114.2.3 tls
848 1.114.2.3 tls return 0;
849 1.114.2.3 tls }
850 1.114.2.3 tls
851 1.114.2.3 tls PR_WRAP_USRREQS(rip)
852 1.114.2.3 tls #define rip_attach rip_attach_wrapper
853 1.114.2.3 tls #define rip_detach rip_detach_wrapper
854 1.114.2.3 tls #define rip_accept rip_accept_wrapper
855 1.114.2.3 tls #define rip_bind rip_bind_wrapper
856 1.114.2.3 tls #define rip_listen rip_listen_wrapper
857 1.114.2.3 tls #define rip_connect rip_connect_wrapper
858 1.114.2.3 tls #define rip_connect2 rip_connect2_wrapper
859 1.114.2.3 tls #define rip_disconnect rip_disconnect_wrapper
860 1.114.2.3 tls #define rip_shutdown rip_shutdown_wrapper
861 1.114.2.3 tls #define rip_abort rip_abort_wrapper
862 1.114.2.3 tls #define rip_ioctl rip_ioctl_wrapper
863 1.114.2.3 tls #define rip_stat rip_stat_wrapper
864 1.114.2.3 tls #define rip_peeraddr rip_peeraddr_wrapper
865 1.114.2.3 tls #define rip_sockaddr rip_sockaddr_wrapper
866 1.114.2.3 tls #define rip_rcvd rip_rcvd_wrapper
867 1.114.2.3 tls #define rip_recvoob rip_recvoob_wrapper
868 1.114.2.3 tls #define rip_send rip_send_wrapper
869 1.114.2.3 tls #define rip_sendoob rip_sendoob_wrapper
870 1.114.2.3 tls #define rip_purgeif rip_purgeif_wrapper
871 1.114.2.3 tls #define rip_usrreq rip_usrreq_wrapper
872 1.114.2.3 tls
873 1.114.2.3 tls const struct pr_usrreqs rip_usrreqs = {
874 1.114.2.3 tls .pr_attach = rip_attach,
875 1.114.2.3 tls .pr_detach = rip_detach,
876 1.114.2.3 tls .pr_accept = rip_accept,
877 1.114.2.3 tls .pr_bind = rip_bind,
878 1.114.2.3 tls .pr_listen = rip_listen,
879 1.114.2.3 tls .pr_connect = rip_connect,
880 1.114.2.3 tls .pr_connect2 = rip_connect2,
881 1.114.2.3 tls .pr_disconnect = rip_disconnect,
882 1.114.2.3 tls .pr_shutdown = rip_shutdown,
883 1.114.2.3 tls .pr_abort = rip_abort,
884 1.114.2.3 tls .pr_ioctl = rip_ioctl,
885 1.114.2.3 tls .pr_stat = rip_stat,
886 1.114.2.3 tls .pr_peeraddr = rip_peeraddr,
887 1.114.2.3 tls .pr_sockaddr = rip_sockaddr,
888 1.114.2.3 tls .pr_rcvd = rip_rcvd,
889 1.114.2.3 tls .pr_recvoob = rip_recvoob,
890 1.114.2.3 tls .pr_send = rip_send,
891 1.114.2.3 tls .pr_sendoob = rip_sendoob,
892 1.114.2.3 tls .pr_purgeif = rip_purgeif,
893 1.114.2.3 tls .pr_generic = rip_usrreq,
894 1.114.2.3 tls };
895 1.114.2.3 tls
896 1.110 pooka static void
897 1.110 pooka sysctl_net_inet_raw_setup(struct sysctllog **clog)
898 1.84 atatat {
899 1.84 atatat
900 1.84 atatat sysctl_createv(clog, 0, NULL, NULL,
901 1.84 atatat CTLFLAG_PERMANENT,
902 1.84 atatat CTLTYPE_NODE, "inet", NULL,
903 1.84 atatat NULL, 0, NULL, 0,
904 1.84 atatat CTL_NET, PF_INET, CTL_EOL);
905 1.84 atatat sysctl_createv(clog, 0, NULL, NULL,
906 1.84 atatat CTLFLAG_PERMANENT,
907 1.84 atatat CTLTYPE_NODE, "raw",
908 1.84 atatat SYSCTL_DESCR("Raw IPv4 settings"),
909 1.84 atatat NULL, 0, NULL, 0,
910 1.84 atatat CTL_NET, PF_INET, IPPROTO_RAW, CTL_EOL);
911 1.84 atatat
912 1.84 atatat sysctl_createv(clog, 0, NULL, NULL,
913 1.84 atatat CTLFLAG_PERMANENT,
914 1.86 atatat CTLTYPE_STRUCT, "pcblist",
915 1.84 atatat SYSCTL_DESCR("Raw IPv4 control block list"),
916 1.84 atatat sysctl_inpcblist, 0, &rawcbtable, 0,
917 1.84 atatat CTL_NET, PF_INET, IPPROTO_RAW,
918 1.84 atatat CTL_CREATE, CTL_EOL);
919 1.84 atatat }
920