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rfcomm_socket.c revision 1.32
      1  1.32       rtr /*	$NetBSD: rfcomm_socket.c,v 1.32 2014/08/08 03:05:45 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  1.32       rtr __KERNEL_RCSID(0, "$NetBSD: rfcomm_socket.c,v 1.32 2014/08/08 03:05:45 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  1.32       rtr 	error = rfcomm_rcvd_pcb(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  1.30       rtr rfcomm_bind(struct socket *so, struct mbuf *nam, struct lwp *l)
    146  1.26       rtr {
    147  1.26       rtr 	struct rfcomm_dlc *pcb = so->so_pcb;
    148  1.26       rtr 	struct sockaddr_bt *sa;
    149  1.26       rtr 
    150  1.26       rtr 	KASSERT(solocked(so));
    151  1.26       rtr 	KASSERT(nam != NULL);
    152  1.26       rtr 
    153  1.26       rtr 	if (pcb == NULL)
    154  1.26       rtr 		return EINVAL;
    155  1.26       rtr 
    156  1.26       rtr 	sa = mtod(nam, struct sockaddr_bt *);
    157  1.26       rtr 	if (sa->bt_len != sizeof(struct sockaddr_bt))
    158  1.26       rtr 		return EINVAL;
    159  1.26       rtr 
    160  1.26       rtr 	if (sa->bt_family != AF_BLUETOOTH)
    161  1.26       rtr 		return EAFNOSUPPORT;
    162  1.26       rtr 
    163  1.26       rtr 	return rfcomm_bind_pcb(pcb, sa);
    164  1.26       rtr }
    165  1.26       rtr 
    166  1.26       rtr static int
    167  1.30       rtr rfcomm_listen(struct socket *so, struct lwp *l)
    168  1.26       rtr {
    169  1.26       rtr 	struct rfcomm_dlc *pcb = so->so_pcb;
    170  1.26       rtr 
    171  1.26       rtr 	KASSERT(solocked(so));
    172  1.26       rtr 
    173  1.26       rtr 	if (pcb == NULL)
    174  1.26       rtr 		return EINVAL;
    175  1.26       rtr 
    176  1.26       rtr 	return rfcomm_listen_pcb(pcb);
    177  1.26       rtr }
    178  1.26       rtr 
    179  1.26       rtr static int
    180  1.30       rtr rfcomm_connect(struct socket *so, struct mbuf *nam, struct lwp *l)
    181  1.27       rtr {
    182  1.27       rtr 	struct rfcomm_dlc *pcb = so->so_pcb;
    183  1.27       rtr 	struct sockaddr_bt *sa;
    184  1.27       rtr 
    185  1.27       rtr 	KASSERT(solocked(so));
    186  1.27       rtr 	KASSERT(nam != NULL);
    187  1.27       rtr 
    188  1.27       rtr 	if (pcb == NULL)
    189  1.27       rtr 		return EINVAL;
    190  1.27       rtr 
    191  1.27       rtr 	sa = mtod(nam, struct sockaddr_bt *);
    192  1.27       rtr 	if (sa->bt_len != sizeof(struct sockaddr_bt))
    193  1.27       rtr 		return EINVAL;
    194  1.27       rtr 
    195  1.27       rtr 	if (sa->bt_family != AF_BLUETOOTH)
    196  1.27       rtr 		return EAFNOSUPPORT;
    197  1.27       rtr 
    198  1.27       rtr 	soisconnecting(so);
    199  1.27       rtr 	return rfcomm_connect_pcb(pcb, sa);
    200  1.27       rtr }
    201  1.27       rtr 
    202  1.27       rtr static int
    203  1.28       rtr rfcomm_disconnect(struct socket *so)
    204  1.28       rtr {
    205  1.28       rtr 	struct rfcomm_dlc *pcb = so->so_pcb;
    206  1.28       rtr 
    207  1.28       rtr 	KASSERT(solocked(so));
    208  1.28       rtr 
    209  1.28       rtr 	if (pcb == NULL)
    210  1.28       rtr 		return EINVAL;
    211  1.28       rtr 
    212  1.28       rtr 	soisdisconnecting(so);
    213  1.28       rtr 	return rfcomm_disconnect_pcb(pcb, so->so_linger);
    214  1.28       rtr }
    215  1.28       rtr 
    216  1.28       rtr static int
    217  1.28       rtr rfcomm_shutdown(struct socket *so)
    218  1.28       rtr {
    219  1.28       rtr 	KASSERT(solocked(so));
    220  1.28       rtr 
    221  1.28       rtr 	socantsendmore(so);
    222  1.28       rtr 	return 0;
    223  1.28       rtr }
    224  1.28       rtr 
    225  1.28       rtr static int
    226  1.28       rtr rfcomm_abort(struct socket *so)
    227  1.28       rtr {
    228  1.28       rtr 	struct rfcomm_dlc *pcb = so->so_pcb;
    229  1.28       rtr 
    230  1.28       rtr 	KASSERT(solocked(so));
    231  1.28       rtr 
    232  1.28       rtr 	if (pcb == NULL)
    233  1.28       rtr 		return EINVAL;
    234  1.28       rtr 
    235  1.28       rtr 	rfcomm_disconnect_pcb(pcb, 0);
    236  1.28       rtr 	soisdisconnected(so);
    237  1.28       rtr 	rfcomm_detach(so);
    238  1.28       rtr 	return 0;
    239  1.28       rtr }
    240  1.28       rtr 
    241  1.28       rtr static int
    242  1.22       rtr rfcomm_ioctl(struct socket *so, u_long cmd, void *nam, struct ifnet *ifp)
    243  1.17       rtr {
    244  1.17       rtr 	return EPASSTHROUGH;
    245  1.17       rtr }
    246  1.17       rtr 
    247  1.19       rtr static int
    248  1.19       rtr rfcomm_stat(struct socket *so, struct stat *ub)
    249  1.19       rtr {
    250  1.22       rtr 	KASSERT(solocked(so));
    251  1.22       rtr 
    252  1.21       rtr 	return 0;
    253  1.19       rtr }
    254  1.19       rtr 
    255  1.23       rtr static int
    256  1.23       rtr rfcomm_peeraddr(struct socket *so, struct mbuf *nam)
    257  1.23       rtr {
    258  1.23       rtr 	struct rfcomm_dlc *pcb = so->so_pcb;
    259  1.23       rtr 	struct sockaddr_bt *sa;
    260  1.23       rtr 
    261  1.23       rtr 	KASSERT(solocked(so));
    262  1.23       rtr 	KASSERT(pcb != NULL);
    263  1.23       rtr 	KASSERT(nam != NULL);
    264  1.23       rtr 
    265  1.23       rtr 	sa = mtod(nam, struct sockaddr_bt *);
    266  1.23       rtr 	nam->m_len = sizeof(struct sockaddr_bt);
    267  1.23       rtr 	return rfcomm_peeraddr_pcb(pcb, sa);
    268  1.23       rtr }
    269  1.23       rtr 
    270  1.23       rtr static int
    271  1.23       rtr rfcomm_sockaddr(struct socket *so, struct mbuf *nam)
    272  1.23       rtr {
    273  1.23       rtr 	struct rfcomm_dlc *pcb = so->so_pcb;
    274  1.23       rtr 	struct sockaddr_bt *sa;
    275  1.23       rtr 
    276  1.23       rtr 	KASSERT(solocked(so));
    277  1.23       rtr 	KASSERT(pcb != NULL);
    278  1.23       rtr 	KASSERT(nam != NULL);
    279  1.23       rtr 
    280  1.23       rtr 	sa = mtod(nam, struct sockaddr_bt *);
    281  1.23       rtr 	nam->m_len = sizeof(struct sockaddr_bt);
    282  1.23       rtr 	return rfcomm_sockaddr_pcb(pcb, sa);
    283  1.23       rtr }
    284  1.23       rtr 
    285  1.25       rtr static int
    286  1.32       rtr rfcomm_rcvd(struct socket *so, int flags, struct lwp *l)
    287  1.32       rtr {
    288  1.32       rtr 	struct rfcomm_dlc *pcb = so->so_pcb;
    289  1.32       rtr 
    290  1.32       rtr 	KASSERT(solocked(so));
    291  1.32       rtr 
    292  1.32       rtr 	if (pcb == NULL)
    293  1.32       rtr 		return EINVAL;
    294  1.32       rtr 
    295  1.32       rtr 	return rfcomm_rcvd_pcb(pcb, sbspace(&so->so_rcv));
    296  1.32       rtr }
    297  1.32       rtr 
    298  1.32       rtr static int
    299  1.25       rtr rfcomm_recvoob(struct socket *so, struct mbuf *m, int flags)
    300  1.25       rtr {
    301  1.25       rtr 	KASSERT(solocked(so));
    302  1.25       rtr 
    303  1.25       rtr 	return EOPNOTSUPP;
    304  1.25       rtr }
    305  1.25       rtr 
    306  1.25       rtr static int
    307  1.31       rtr rfcomm_send(struct socket *so, struct mbuf *m, struct mbuf *nam,
    308  1.31       rtr     struct mbuf *control, struct lwp *l)
    309  1.31       rtr {
    310  1.31       rtr 	struct rfcomm_dlc *pcb = so->so_pcb;
    311  1.31       rtr 	int err = 0;
    312  1.31       rtr 	struct mbuf *m0;
    313  1.31       rtr 
    314  1.31       rtr 	KASSERT(solocked(so));
    315  1.31       rtr 	KASSERT(m != NULL);
    316  1.31       rtr 
    317  1.31       rtr 	if (control)	/* no use for that */
    318  1.31       rtr 		m_freem(control);
    319  1.31       rtr 
    320  1.31       rtr 	if (pcb == NULL) {
    321  1.31       rtr 		err = EINVAL;
    322  1.31       rtr 		goto release;
    323  1.31       rtr 	}
    324  1.31       rtr 
    325  1.31       rtr 	m0 = m_copypacket(m, M_DONTWAIT);
    326  1.31       rtr 	if (m0 == NULL) {
    327  1.31       rtr 		err = ENOMEM;
    328  1.31       rtr 		goto release;
    329  1.31       rtr 	}
    330  1.31       rtr 
    331  1.31       rtr 	sbappendstream(&so->so_snd, m);
    332  1.31       rtr 	return rfcomm_send_pcb(pcb, m0);
    333  1.31       rtr 
    334  1.31       rtr release:
    335  1.31       rtr 	m_freem(m);
    336  1.31       rtr 	return err;
    337  1.31       rtr }
    338  1.31       rtr 
    339  1.31       rtr static int
    340  1.25       rtr rfcomm_sendoob(struct socket *so, struct mbuf *m, struct mbuf *control)
    341  1.25       rtr {
    342  1.25       rtr 	KASSERT(solocked(so));
    343  1.25       rtr 
    344  1.25       rtr 	if (m)
    345  1.25       rtr 		m_freem(m);
    346  1.25       rtr 	if (control)
    347  1.25       rtr 		m_freem(control);
    348  1.25       rtr 
    349  1.25       rtr 	return EOPNOTSUPP;
    350  1.25       rtr }
    351  1.25       rtr 
    352   1.1   gdamore /*
    353   1.1   gdamore  * User Request.
    354   1.1   gdamore  * up is socket
    355  1.17       rtr  * m is optional mbuf chain containing message
    356   1.1   gdamore  * ctl is either
    357   1.1   gdamore  *	optional mbuf chain containing socket options
    358  1.17       rtr  *	optional interface pointer PRU_PURGEIF
    359   1.1   gdamore  * l is pointer to process requesting action (if any)
    360   1.1   gdamore  *
    361   1.1   gdamore  * we are responsible for disposing of m and ctl if
    362   1.1   gdamore  * they are mbuf chains
    363   1.1   gdamore  */
    364  1.12     rmind static int
    365   1.1   gdamore rfcomm_usrreq(struct socket *up, int req, struct mbuf *m,
    366   1.3  christos 		struct mbuf *nam, struct mbuf *ctl, struct lwp *l)
    367   1.1   gdamore {
    368   1.1   gdamore 	struct rfcomm_dlc *pcb = up->so_pcb;
    369   1.1   gdamore 	int err = 0;
    370   1.1   gdamore 
    371   1.1   gdamore 	DPRINTFN(2, "%s\n", prurequests[req]);
    372  1.13     rmind 	KASSERT(req != PRU_ATTACH);
    373  1.13     rmind 	KASSERT(req != PRU_DETACH);
    374  1.24       rtr 	KASSERT(req != PRU_ACCEPT);
    375  1.26       rtr 	KASSERT(req != PRU_BIND);
    376  1.26       rtr 	KASSERT(req != PRU_LISTEN);
    377  1.27       rtr 	KASSERT(req != PRU_CONNECT);
    378  1.28       rtr 	KASSERT(req != PRU_DISCONNECT);
    379  1.28       rtr 	KASSERT(req != PRU_SHUTDOWN);
    380  1.28       rtr 	KASSERT(req != PRU_ABORT);
    381  1.17       rtr 	KASSERT(req != PRU_CONTROL);
    382  1.19       rtr 	KASSERT(req != PRU_SENSE);
    383  1.23       rtr 	KASSERT(req != PRU_PEERADDR);
    384  1.23       rtr 	KASSERT(req != PRU_SOCKADDR);
    385  1.32       rtr 	KASSERT(req != PRU_RCVD);
    386  1.25       rtr 	KASSERT(req != PRU_RCVOOB);
    387  1.31       rtr 	KASSERT(req != PRU_SEND);
    388  1.25       rtr 	KASSERT(req != PRU_SENDOOB);
    389   1.1   gdamore 
    390   1.1   gdamore 	switch (req) {
    391   1.1   gdamore 	case PRU_PURGEIF:
    392   1.1   gdamore 		return EOPNOTSUPP;
    393   1.1   gdamore 	}
    394   1.1   gdamore 	if (pcb == NULL) {
    395   1.1   gdamore 		err = EINVAL;
    396   1.1   gdamore 		goto release;
    397   1.1   gdamore 	}
    398   1.1   gdamore 
    399   1.1   gdamore 	switch(req) {
    400   1.1   gdamore 	case PRU_CONNECT2:
    401   1.1   gdamore 	case PRU_FASTTIMO:
    402   1.1   gdamore 	case PRU_SLOWTIMO:
    403   1.1   gdamore 	case PRU_PROTORCV:
    404   1.1   gdamore 	case PRU_PROTOSEND:
    405   1.1   gdamore 		err = EOPNOTSUPP;
    406   1.1   gdamore 		break;
    407   1.1   gdamore 
    408   1.1   gdamore 	default:
    409   1.1   gdamore 		UNKNOWN(req);
    410   1.1   gdamore 		err = EOPNOTSUPP;
    411   1.1   gdamore 		break;
    412   1.1   gdamore 	}
    413   1.1   gdamore 
    414   1.1   gdamore release:
    415   1.1   gdamore 	if (m) m_freem(m);
    416   1.1   gdamore 	if (ctl) m_freem(ctl);
    417   1.1   gdamore 	return err;
    418   1.1   gdamore }
    419   1.1   gdamore 
    420   1.1   gdamore /*
    421  1.10    plunky  * rfcomm_ctloutput(req, socket, sockopt)
    422   1.1   gdamore  *
    423   1.1   gdamore  */
    424   1.1   gdamore int
    425  1.10    plunky rfcomm_ctloutput(int req, struct socket *so, struct sockopt *sopt)
    426   1.1   gdamore {
    427   1.1   gdamore 	struct rfcomm_dlc *pcb = so->so_pcb;
    428   1.1   gdamore 	int err = 0;
    429   1.1   gdamore 
    430   1.1   gdamore 	DPRINTFN(2, "%s\n", prcorequests[req]);
    431   1.1   gdamore 
    432   1.4    plunky 	if (pcb == NULL)
    433   1.4    plunky 		return EINVAL;
    434   1.4    plunky 
    435  1.10    plunky 	if (sopt->sopt_level != BTPROTO_RFCOMM)
    436   1.4    plunky 		return ENOPROTOOPT;
    437   1.1   gdamore 
    438   1.1   gdamore 	switch(req) {
    439   1.1   gdamore 	case PRCO_GETOPT:
    440  1.10    plunky 		err = rfcomm_getopt(pcb, sopt);
    441   1.1   gdamore 		break;
    442   1.1   gdamore 
    443   1.1   gdamore 	case PRCO_SETOPT:
    444  1.10    plunky 		err = rfcomm_setopt(pcb, sopt);
    445   1.1   gdamore 		break;
    446   1.1   gdamore 
    447   1.1   gdamore 	default:
    448   1.4    plunky 		err = ENOPROTOOPT;
    449   1.1   gdamore 		break;
    450   1.1   gdamore 	}
    451   1.1   gdamore 
    452   1.1   gdamore 	return err;
    453   1.1   gdamore }
    454   1.1   gdamore 
    455   1.1   gdamore /**********************************************************************
    456   1.1   gdamore  *
    457   1.1   gdamore  * RFCOMM callbacks
    458   1.1   gdamore  */
    459   1.1   gdamore 
    460   1.1   gdamore static void
    461   1.3  christos rfcomm_connecting(void *arg)
    462   1.1   gdamore {
    463   1.1   gdamore 	/* struct socket *so = arg; */
    464   1.1   gdamore 
    465   1.5    plunky 	KASSERT(arg != NULL);
    466   1.1   gdamore 	DPRINTF("Connecting\n");
    467   1.1   gdamore }
    468   1.1   gdamore 
    469   1.1   gdamore static void
    470   1.1   gdamore rfcomm_connected(void *arg)
    471   1.1   gdamore {
    472   1.1   gdamore 	struct socket *so = arg;
    473   1.1   gdamore 
    474   1.5    plunky 	KASSERT(so != NULL);
    475   1.1   gdamore 	DPRINTF("Connected\n");
    476   1.1   gdamore 	soisconnected(so);
    477   1.1   gdamore }
    478   1.1   gdamore 
    479   1.1   gdamore static void
    480   1.1   gdamore rfcomm_disconnected(void *arg, int err)
    481   1.1   gdamore {
    482   1.1   gdamore 	struct socket *so = arg;
    483   1.1   gdamore 
    484   1.5    plunky 	KASSERT(so != NULL);
    485   1.1   gdamore 	DPRINTF("Disconnected\n");
    486   1.1   gdamore 
    487   1.1   gdamore 	so->so_error = err;
    488   1.1   gdamore 	soisdisconnected(so);
    489   1.1   gdamore }
    490   1.1   gdamore 
    491   1.1   gdamore static void *
    492   1.3  christos rfcomm_newconn(void *arg, struct sockaddr_bt *laddr,
    493   1.3  christos     struct sockaddr_bt *raddr)
    494   1.1   gdamore {
    495   1.1   gdamore 	struct socket *so = arg;
    496   1.1   gdamore 
    497   1.1   gdamore 	DPRINTF("New Connection\n");
    498  1.11     rmind 	so = sonewconn(so, false);
    499   1.1   gdamore 	if (so == NULL)
    500   1.1   gdamore 		return NULL;
    501   1.1   gdamore 
    502   1.1   gdamore 	soisconnecting(so);
    503   1.1   gdamore 
    504   1.1   gdamore 	return so->so_pcb;
    505   1.1   gdamore }
    506   1.1   gdamore 
    507   1.1   gdamore /*
    508   1.1   gdamore  * rfcomm_complete(rfcomm_dlc, length)
    509   1.1   gdamore  *
    510   1.1   gdamore  * length bytes are sent and may be removed from socket buffer
    511   1.1   gdamore  */
    512   1.1   gdamore static void
    513   1.1   gdamore rfcomm_complete(void *arg, int length)
    514   1.1   gdamore {
    515   1.1   gdamore 	struct socket *so = arg;
    516   1.1   gdamore 
    517   1.1   gdamore 	sbdrop(&so->so_snd, length);
    518   1.1   gdamore 	sowwakeup(so);
    519   1.1   gdamore }
    520   1.1   gdamore 
    521   1.1   gdamore /*
    522   1.7    plunky  * rfcomm_linkmode(rfcomm_dlc, new)
    523   1.7    plunky  *
    524   1.7    plunky  * link mode change notification.
    525   1.7    plunky  */
    526   1.7    plunky static void
    527   1.7    plunky rfcomm_linkmode(void *arg, int new)
    528   1.7    plunky {
    529   1.7    plunky 	struct socket *so = arg;
    530  1.10    plunky 	struct sockopt sopt;
    531   1.7    plunky 	int mode;
    532   1.7    plunky 
    533   1.7    plunky 	DPRINTF("auth %s, encrypt %s, secure %s\n",
    534   1.7    plunky 		(new & RFCOMM_LM_AUTH ? "on" : "off"),
    535   1.7    plunky 		(new & RFCOMM_LM_ENCRYPT ? "on" : "off"),
    536   1.7    plunky 		(new & RFCOMM_LM_SECURE ? "on" : "off"));
    537   1.7    plunky 
    538  1.10    plunky 	sockopt_init(&sopt, BTPROTO_RFCOMM, SO_RFCOMM_LM, 0);
    539  1.10    plunky 	(void)rfcomm_getopt(so->so_pcb, &sopt);
    540  1.10    plunky 	(void)sockopt_getint(&sopt, &mode);
    541  1.10    plunky 	sockopt_destroy(&sopt);
    542  1.10    plunky 
    543   1.7    plunky 	if (((mode & RFCOMM_LM_AUTH) && !(new & RFCOMM_LM_AUTH))
    544   1.7    plunky 	    || ((mode & RFCOMM_LM_ENCRYPT) && !(new & RFCOMM_LM_ENCRYPT))
    545   1.7    plunky 	    || ((mode & RFCOMM_LM_SECURE) && !(new & RFCOMM_LM_SECURE)))
    546  1.28       rtr 		rfcomm_disconnect_pcb(so->so_pcb, 0);
    547   1.7    plunky }
    548   1.7    plunky 
    549   1.7    plunky /*
    550   1.1   gdamore  * rfcomm_input(rfcomm_dlc, mbuf)
    551   1.1   gdamore  */
    552   1.1   gdamore static void
    553   1.1   gdamore rfcomm_input(void *arg, struct mbuf *m)
    554   1.1   gdamore {
    555   1.1   gdamore 	struct socket *so = arg;
    556   1.1   gdamore 
    557   1.5    plunky 	KASSERT(so != NULL);
    558   1.1   gdamore 
    559   1.1   gdamore 	if (m->m_pkthdr.len > sbspace(&so->so_rcv)) {
    560   1.1   gdamore 		printf("%s: %d bytes dropped (socket buffer full)\n",
    561   1.1   gdamore 			__func__, m->m_pkthdr.len);
    562   1.1   gdamore 		m_freem(m);
    563   1.1   gdamore 		return;
    564   1.1   gdamore 	}
    565   1.1   gdamore 
    566   1.1   gdamore 	DPRINTFN(10, "received %d bytes\n", m->m_pkthdr.len);
    567   1.1   gdamore 
    568   1.1   gdamore 	sbappendstream(&so->so_rcv, m);
    569   1.1   gdamore 	sorwakeup(so);
    570   1.1   gdamore }
    571  1.12     rmind 
    572  1.16     rmind PR_WRAP_USRREQS(rfcomm)
    573  1.12     rmind 
    574  1.16     rmind #define	rfcomm_attach		rfcomm_attach_wrapper
    575  1.16     rmind #define	rfcomm_detach		rfcomm_detach_wrapper
    576  1.24       rtr #define	rfcomm_accept		rfcomm_accept_wrapper
    577  1.26       rtr #define	rfcomm_bind		rfcomm_bind_wrapper
    578  1.26       rtr #define	rfcomm_listen		rfcomm_listen_wrapper
    579  1.27       rtr #define	rfcomm_connect		rfcomm_connect_wrapper
    580  1.28       rtr #define	rfcomm_disconnect	rfcomm_disconnect_wrapper
    581  1.28       rtr #define	rfcomm_shutdown		rfcomm_shutdown_wrapper
    582  1.28       rtr #define	rfcomm_abort		rfcomm_abort_wrapper
    583  1.17       rtr #define	rfcomm_ioctl		rfcomm_ioctl_wrapper
    584  1.19       rtr #define	rfcomm_stat		rfcomm_stat_wrapper
    585  1.23       rtr #define	rfcomm_peeraddr		rfcomm_peeraddr_wrapper
    586  1.23       rtr #define	rfcomm_sockaddr		rfcomm_sockaddr_wrapper
    587  1.32       rtr #define	rfcomm_rcvd		rfcomm_rcvd_wrapper
    588  1.25       rtr #define	rfcomm_recvoob		rfcomm_recvoob_wrapper
    589  1.31       rtr #define	rfcomm_send		rfcomm_send_wrapper
    590  1.25       rtr #define	rfcomm_sendoob		rfcomm_sendoob_wrapper
    591  1.12     rmind #define	rfcomm_usrreq		rfcomm_usrreq_wrapper
    592  1.12     rmind 
    593  1.12     rmind const struct pr_usrreqs rfcomm_usrreqs = {
    594  1.15     rmind 	.pr_attach	= rfcomm_attach,
    595  1.15     rmind 	.pr_detach	= rfcomm_detach,
    596  1.24       rtr 	.pr_accept	= rfcomm_accept,
    597  1.26       rtr 	.pr_bind	= rfcomm_bind,
    598  1.26       rtr 	.pr_listen	= rfcomm_listen,
    599  1.27       rtr 	.pr_connect	= rfcomm_connect,
    600  1.28       rtr 	.pr_disconnect	= rfcomm_disconnect,
    601  1.28       rtr 	.pr_shutdown	= rfcomm_shutdown,
    602  1.28       rtr 	.pr_abort	= rfcomm_abort,
    603  1.17       rtr 	.pr_ioctl	= rfcomm_ioctl,
    604  1.19       rtr 	.pr_stat	= rfcomm_stat,
    605  1.23       rtr 	.pr_peeraddr	= rfcomm_peeraddr,
    606  1.23       rtr 	.pr_sockaddr	= rfcomm_sockaddr,
    607  1.32       rtr 	.pr_rcvd	= rfcomm_rcvd,
    608  1.25       rtr 	.pr_recvoob	= rfcomm_recvoob,
    609  1.31       rtr 	.pr_send	= rfcomm_send,
    610  1.25       rtr 	.pr_sendoob	= rfcomm_sendoob,
    611  1.12     rmind 	.pr_generic	= rfcomm_usrreq,
    612  1.12     rmind };
    613