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freebsd-skq/sys/dev/ray/if_ray.c
Duncan Barclay a7049e2bfd Completed start/join code (well only infrastructure mode) 
Added receive code and support for Webgear encapsulation.

More debugging macros/functions.

conditionalised timeout for start/join network

conditonalised attribute/common memory hacks

identified tracking code with XXX_TRACK

sorted out initialistion of instance structure to some extent

finished docuementing the start/join sequence
2000-02-27 19:52:29 +00:00

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57 KiB
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/*
* Copyright (C) 2000
* Dr. Duncan McLennan Barclay, dmlb@ragnet.demon.co.uk.
*
* All rights reserved.
*
* Redistribution and use in source and binary forms, with or without
* modification, are permitted provided that the following conditions
* are met:
* 1. Redistributions of source code must retain the above copyright
* notice, this list of conditions and the following disclaimer.
* 2. Redistributions in binary form must reproduce the above copyright
* notice, this list of conditions and the following disclaimer in the
* documentation and/or other materials provided with the distribution.
* 3. Neither the name of the author nor the names of any co-contributors
* may be used to endorse or promote products derived from this software
* without specific prior written permission.
*
* THIS SOFTWARE IS PROVIDED BY DUNCAN BARCLAY AND CONTRIBUTORS ``AS IS'' AND
* ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE
* IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE
* ARE DISCLAIMED. IN NO EVENT SHALL DUNCAN BARCLAY OR CONTRIBUTORS BE LIABLE
* FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL
* DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS
* OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION)
* HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT
* LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY
* OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF
* SUCH DAMAGE.
*
* $Id$
*
*/
#define XXX 0
#define XXX_TRACKING 0
/*
* XXX build options - move to LINT
*/
#define RAY_DEBUG 100 /* Big numbers get more verbose */
#define RAY_CCS_TIMEOUT (hz/2) /* Timeout for CCS commands - only used for downloading startup parameters */
#define RAY_NEED_STARTJOIN_TIMO 0 /* Might be needed with build 4 */
#define RAY_SJ_TIMEOUT (90*hz) /* Timeout for failing STARTJOIN commands - only used with RAY_NEED_STARTJOIN_TIMO */
#define RAY_NEED_CM_REMAPPING 1 /* Needed until pccard maps more than one memory area */
#define RAY_DUMP_CM_ON_GIFMEDIA 1 /* Dump some common memory when the SIOCGIFMEDIA ioctl is issued - a nasty hack for debugging and will be placed by an ioctl and control program */
/*
* XXX build options - move to LINT
*/
/*
* Debugging odds and odds
*/
#ifndef RAY_DEBUG
#define RAY_DEBUG 0
#endif /* RAY_DEBUG */
#if RAY_DEBUG > 0
#define RAY_DHEX8(p, l) do { if (RAY_DEBUG > 10) { \
u_int8_t *i; \
for (i = p; i < (u_int8_t *)(p+l); i += 8) \
printf(" 0x%08lx %8D\n", \
(unsigned long)i, (unsigned char *)i, " "); \
} } while (0)
#define RAY_DPRINTF(x) do { if (RAY_DEBUG) { \
printf x ; \
} } while (0)
#define RAY_DNET_DUMP(sc, s) do { if (RAY_DEBUG) { \
printf("ray%d: Network parameters%s\n", (sc)->unit, (s)); \
printf(" bss_id %6D\n", (sc)->sc_bss_id, ":"); \
printf(" inited 0x%02x\n", (sc)->sc_inited); \
printf(" def_txrate 0x%02x\n", (sc)->sc_def_txrate); \
printf(" encrypt 0x%02x\n", (sc)->sc_encrypt); \
printf(" net_type 0x%02x\n", (sc)->sc_net_type); \
printf(" ssid \"%.32s\"\n", (sc)->sc_ssid); \
printf(" priv_start 0x%02x\n", (sc)->sc_priv_start); \
printf(" priv_join 0x%02x\n", (sc)->sc_priv_join); \
} } while (0)
#else
#define RAY_HEX8(p, l)
#define RAY_DPRINTF(x)
#define RAY_DNET_DUMP(sc, s)
#endif /* RAY_DEBUG > 0 */
#if RAY_DEBUG > 10
#define RAY_DMBUF_DUMP(sc, m, s) ray_dump_mbuf((sc), (m), (s))
#else
#define RAY_DMBUF_DUMP(sc, m, s)
#endif /* RAY_DEBUG > 10 */
#include "ray.h"
#include "card.h"
#include "apm.h"
#include "bpfilter.h"
#if NRAY > 0
#include <sys/param.h>
#include <sys/cdefs.h>
#include <sys/conf.h>
#include <sys/errno.h>
#include <sys/kernel.h>
#include <sys/malloc.h>
#include <sys/mbuf.h>
#include <sys/select.h>
#include <sys/socket.h>
#include <sys/sockio.h>
#include <sys/systm.h>
#include <sys/uio.h>
#include <sys/proc.h>
#include <sys/ucred.h>
#include <net/if.h>
#include <net/if_arp.h>
#include <net/ethernet.h>
#include <net/if_dl.h>
#include <net/if_media.h>
#include <net/if_mib.h>
#include <i386/isa/if_ieee80211.h>
#if NBPFILTER > 0
#include <net/bpf.h>
#endif /* NBPFILTER */
#include <machine/clock.h>
#include <machine/md_var.h>
#include <machine/bus_pio.h>
#include <machine/bus.h>
#include <i386/isa/isa.h>
#include <i386/isa/isa_device.h>
#include <i386/isa/if_rayreg.h>
#include <i386/isa/if_raymib.h>
#if NCARD > 0
#include <pccard/cardinfo.h>
#include <pccard/cis.h>
#include <pccard/driver.h>
#include <pccard/slot.h>
#endif /* NCARD */
#if NAPM > 0
#include <machine/apm_bios.h>
#endif /* NAPM */
/*
* One of these structures per allocated device
*/
struct ray_softc {
struct arpcom arpcom; /* Ethernet common */
struct ifmedia ifmedia; /* Ifnet common */
struct callout_handle \
timerh; /* Handle for timer */
#if RAY_NEED_STARTJOIN_TIMO
struct callout_handle \
sj_timerh; /* Handle for start_join timer */
#endif /* RAY_NEED_STARTJOIN_TIMO */
char *card_type; /* Card model name */
char *vendor; /* Card manufacturer */
int unit; /* Unit number */
u_char gone; /* 1 = Card bailed out */
int irq; /* Assigned IRQ */
caddr_t maddr; /* Shared RAM Address */
int msize; /* Shared RAM Size */
int translation; /* Packet translation types */
/* XXX these can go when attribute reading is fixed */
int slotnum; /* Slot number */
struct mem_desc md; /* Map info for common memory */
struct ray_ecf_startup_v5 \
sc_ecf_startup; /* Startup info from card */
u_int8_t sc_ccsinuse[64];/* ccss' in use -- not for tx */
size_t sc_ccs; /* ccs used by non-scheduled, */
/* non-overlapping procedures */
struct ray_cmd_net sc_cnet_1; /* current network params from */
struct ray_net_params sc_cnet_2; /* starting/joining a network */
#if 0
u_int8_t sc_cnwid[IEEE80211_NWID_LEN]; /* Last nwid */
u_int8_t sc_dnwid[IEEE80211_NWID_LEN]; /* Desired nwid */
u_int8_t sc_omode; /* Old operating mode SC_MODE_xx */
u_int8_t sc_mode; /* Current operating mode SC_MODE_xx */
u_int8_t sc_countrycode; /* Current country code */
u_int8_t sc_dcountrycode;/* Desired country code */
#endif
int sc_havenet; /* true if we have aquired a network */
};
static struct ray_softc ray_softc[NRAY];
#define sc_station_addr sc_ecf_startup.e_station_addr
#define sc_version sc_ecf_startup.e_fw_build_string
#define sc_tibsize sc_ecf_startup.e_tibsize
#define sc_upd_param sc_cnet_1.c_upd_param
#define sc_bss_id sc_cnet_1.c_bss_id
#define sc_inited sc_cnet_1.c_inited
#define sc_def_txrate sc_cnet_1.c_def_txrate
#define sc_encrypt sc_cnet_1.c_encrypt
#define sc_net_type sc_cnet_2.p_net_type
#define sc_ssid sc_cnet_2.p_ssid
#define sc_priv_start sc_cnet_2.p_privacy_must_start
#define sc_priv_join sc_cnet_2.p_privacy_can_join
/*XXX add to debug macro too */
/* Commands -- priority given to LSB */
#define SCP_FIRST 0x0001
#define SCP_UPDATESUBCMD 0x0001
#define SCP_STARTASSOC 0x0002
#define SCP_REPORTPARAMS 0x0004
#define SCP_IFSTART 0x0008
/* Update sub commands -- issues are serialized priority to LSB */
#define SCP_UPD_FIRST 0x0100
#define SCP_UPD_STARTUP 0x0100
#define SCP_UPD_STARTJOIN 0x0200
#define SCP_UPD_PROMISC 0x0400
#define SCP_UPD_MCAST 0x0800
#define SCP_UPD_UPDATEPARAMS 0x1000
#define SCP_UPD_SHIFT 8
#define SCP_UPD_MASK 0xff00
/* These command (a subset of the update set) require timeout checking */
#define SCP_TIMOCHECK_CMD_MASK \
(SCP_UPD_UPDATEPARAMS | SCP_UPD_STARTUP | SCP_UPD_MCAST | \
SCP_UPD_PROMISC)
/* Translation types */
/* XXX maybe better as part of the if structure? */
#define SC_TRANSLATE_WEBGEAR 0
/*
* PCMCIA driver definition
*/
static int ray_pccard_init __P((struct pccard_devinfo *dev_p));
static void ray_pccard_unload __P((struct pccard_devinfo *dev_p));
static int ray_pccard_intr __P((struct pccard_devinfo *dev_p));
PCCARD_MODULE(ray, ray_pccard_init, ray_pccard_unload, ray_pccard_intr, 0, net_imask);
/*
* ISA driver definition
*/
static int ray_probe __P((struct isa_device *dev));
static int ray_attach __P((struct isa_device *dev));
struct isa_driver raydriver = {
ray_probe,
ray_attach,
"ray",
1
};
/*
* Network driver definition
*/
static void ray_start __P((struct ifnet *ifp));
static int ray_ioctl __P((struct ifnet *ifp, u_long command, caddr_t data));
static void ray_watchdog __P((struct ifnet *ifp));
static void ray_init __P((void *xsc));
static void ray_stop __P((struct ray_softc *sc));
/*
* Internal utilites
*/
static int ray_alloc_ccs __P((struct ray_softc *sc, size_t *ccsp, u_int cmd, u_int track));
static void ray_ccs_done __P((struct ray_softc *sc, size_t ccs));
static void ray_download_params __P((struct ray_softc *sc));
static void ray_download_timo __P((void *xsc));
static u_int8_t ray_free_ccs __P((struct ray_softc *sc, size_t ccs));
static int ray_issue_cmd __P((struct ray_softc *sc, size_t ccs, u_int track));
static void ray_rcs_intr __P((struct ray_softc *sc, size_t ccs));
static void ray_rx __P((struct ray_softc *sc, size_t rcs));
static void ray_start_join_done __P((struct ray_softc *sc, size_t ccs, u_int8_t status));
#if RAY_NEED_STARTJOIN_TIMO
static void ray_start_join_timo __P((void *xsc));
#endif /* RAY_NEED_STARTJOIN_TIMO */
#if RAY_DEBUG > 10
static void ray_dump_mbuf __P((struct ray_softc *sc, struct mbuf *m, char *s));
#endif /* RAY_DEBUG > 10 */
/*
* Indirections for reading/writing shared memory - from NetBSD/if_ray.c
*/
#ifndef offsetof
#define offsetof(type, member) \
((size_t)(&((type *)0)->member))
#endif /* offsetof */
#define SRAM_READ_1(sc, off) \
(u_int8_t)*((sc)->maddr + (off))
/* ((u_int8_t)bus_space_read_1((sc)->sc_memt, (sc)->sc_memh, (off))) */
#define SRAM_READ_FIELD_1(sc, off, s, f) \
SRAM_READ_1(sc, (off) + offsetof(struct s, f))
#define SRAM_READ_FIELD_2(sc, off, s, f) \
((((u_int16_t)SRAM_READ_1(sc, (off) + offsetof(struct s, f)) << 8) \
|(SRAM_READ_1(sc, (off) + 1 + offsetof(struct s, f)))))
#define SRAM_READ_FIELD_N(sc, off, s, f, p, n) \
ray_read_region(sc, (off) + offsetof(struct s, f), (p), (n))
#define ray_read_region(sc, off, vp, n) \
bcopy((sc)->maddr + (off), (vp), (n))
#define SRAM_WRITE_1(sc, off, val) \
*((sc)->maddr + (off)) = (val)
/* bus_space_write_1((sc)->sc_memt, (sc)->sc_memh, (off), (val)) */
#define SRAM_WRITE_FIELD_1(sc, off, s, f, v) \
SRAM_WRITE_1(sc, (off) + offsetof(struct s, f), (v))
#define SRAM_WRITE_FIELD_2(sc, off, s, f, v) do { \
SRAM_WRITE_1(sc, (off) + offsetof(struct s, f), (((v) >> 8 ) & 0xff)); \
SRAM_WRITE_1(sc, (off) + 1 + offsetof(struct s, f), ((v) & 0xff)); \
} while (0)
#define SRAM_WRITE_FIELD_N(sc, off, s, f, p, n) \
ray_write_region(sc, (off) + offsetof(struct s, f), (p), (n))
#define ray_write_region(sc, off, vp, n) \
bcopy((vp), (sc)->maddr + (off), (n))
/*
* Macro's
*/
#ifndef RAY_CCS_TIMEOUT
#define RAY_CCS_TIMEOUT (hz / 2)
#endif
#define RAY_ECF_READY(sc) (!(ray_read_reg(sc, RAY_ECFIR) & RAY_ECFIR_IRQ))
#define RAY_ECF_START_CMD(sc) ray_attr_write((sc), RAY_ECFIR, RAY_ECFIR_IRQ)
#define RAY_HCS_CLEAR_INTR(sc) ray_attr_write((sc), RAY_HCSIR, 0)
#define RAY_HCS_INTR(sc) (ray_read_reg(sc, RAY_HCSIR) & RAY_HCSIR_IRQ)
/*
* XXX
* As described in if_xe.c...
*
* Horrid stuff for accessing CIS tuples and remapping common memory...
* XXX
*/
#define CARD_MAJOR 50
static int ray_attr_write __P((struct ray_softc *sc, off_t offset, u_int8_t byte));
static int ray_attr_read __P((struct ray_softc *sc, off_t offset, u_int8_t *buf, int size));
static u_int8_t ray_read_reg __P((struct ray_softc *sc, off_t reg));
#if RAY_NEED_CM_REMAPPING
static void ray_attr_getmap __P((struct ray_softc *sc));
static void ray_attr_cm __P((struct ray_softc *sc));
#define RAY_MAP_CM(sc) ray_attr_cm(sc)
#else
#define RAY_MAP_CM(sc)
#endif /* RAY_NEED_CM_REMAPPING */
/*
* PCCard initialise.
*/
static int
ray_pccard_init (dev_p)
struct pccard_devinfo *dev_p;
{
struct ray_softc *sc;
u_int32_t irq;
int j;
RAY_DPRINTF(("ray%d: PCCard probe\n", dev_p->isahd.id_unit));
if (dev_p->isahd.id_unit >= NRAY)
return(ENODEV);
sc = &ray_softc[dev_p->isahd.id_unit];
sc->gone = 0;
sc->unit = dev_p->isahd.id_unit;
sc->slotnum = dev_p->slt->slotnum;
/* Get IRQ - encoded as a bitmask. */
irq = dev_p->isahd.id_irq;
for (j = 0; j < 32; j++) {
if (irq & 0x1)
break;
irq >>= 1;
}
sc->irq = j;
sc->maddr = dev_p->isahd.id_maddr;
sc->msize = dev_p->isahd.id_msize;
printf("ray%d: <Raylink/IEEE 802.11> maddr 0x%lx msize 0x%x irq %d on isa (PC-Card slot %d)\n",
sc->unit, (unsigned long)sc->maddr, sc->msize, sc->irq, sc->slotnum);
#if RAY_NEED_CM_REMAPPING
ray_attr_getmap(sc);
#endif /* RAY_NEED_CM_REMAPPING */
if (ray_attach(&dev_p->isahd))
return(ENXIO);
return(0);
}
/*
* PCCard unload.
*/
static void
ray_pccard_unload (dev_p)
struct pccard_devinfo *dev_p;
{
struct ray_softc *sc;
struct ifnet *ifp;
RAY_DPRINTF(("ray%d: PCCard unload\n", dev_p->isahd.id_unit));
sc = &ray_softc[dev_p->isahd.id_unit];
if (sc->gone) {
printf("ray%d: already unloaded\n", sc->unit);
return;
}
/* Cleardown interface */
ifp = &sc->arpcom.ac_if;
ifp->if_flags &= ~(IFF_RUNNING|IFF_OACTIVE);
if_down(ifp); /* XXX probably should be if_detach but I don't know if it works in 3.1 */
/* Mark card as gone */
sc->gone = 1;
printf("ray%d: unloaded\n", sc->unit);
return;
}
/*
* PCCard interrupt.
*/
/* XXX return 1 if we take interrupt, 0 otherwise */
static int
ray_pccard_intr (dev_p)
struct pccard_devinfo *dev_p;
{
struct ray_softc *sc;
int ccsi, handled;
RAY_DPRINTF(("ray%d: PCCard intr\n", dev_p->isahd.id_unit));
sc = &ray_softc[dev_p->isahd.id_unit];
RAY_MAP_CM(sc);
if (sc->gone) {
printf("ray%d: unloaded before interrupt!\n", sc->unit);
return(0);
}
/*
* Check that the interrupt was for us, if so get the rcs/ccs and vector
* on the command contained within it.
*/
if (!RAY_HCS_INTR(sc)) {
handled = 0;
} else {
handled = 1;
ccsi = SRAM_READ_1(sc, RAY_SCB_RCSI);
if (ccsi <= RAY_CCS_LAST)
ray_ccs_done(sc, RAY_CCS_ADDRESS(ccsi));
else if (ccsi <= RAY_RCS_LAST)
ray_rcs_intr(sc, RAY_CCS_ADDRESS(ccsi));
else
printf("ray%d: ray_intr bad ccs index %d\n", sc->unit, ccsi);
#if XXX
ccs_done and rcs_intr return function pointers - why dont
they just do it themselves? its not as if each command only
requires a single function call - things like start_join_net
call a couple on the way...
if (rcmd)
(*rcmd)(sc);
#endif
}
if (handled)
RAY_HCS_CLEAR_INTR(sc);
RAY_DPRINTF(("ray%d: interrupt %s handled\n",
sc->unit, handled?"was":"not"));
return(handled);
}
/*
* ISA probe routine.
*/
static int
ray_probe (dev_p)
struct isa_device *dev_p;
{
RAY_DPRINTF(("ray%d: ISA probe\n", dev_p->id_unit));
return(0);
}
/*
* ISA/PCCard attach.
*/
static int
ray_attach (dev_p)
struct isa_device *dev_p;
{
struct ray_softc *sc;
struct ray_ecf_startup_v5 *ep;
struct ifnet *ifp;
char ifname[IFNAMSIZ];
RAY_DPRINTF(("ray%d: ISA/PCCard attach\n", dev_p->id_unit));
sc = &ray_softc[dev_p->id_unit];
RAY_MAP_CM(sc);
if (sc->gone) {
printf("ray%d: unloaded before attach!\n", sc->unit);
return(0);
}
/*
* Read startup results, check the card is okay and work out what
* version we are using.
*/
ep = &sc->sc_ecf_startup;
ray_read_region(sc, RAY_ECF_TO_HOST_BASE, ep, sizeof(sc->sc_ecf_startup));
if (ep->e_status != RAY_ECFS_CARD_OK) {
printf("ray%d: card failed self test: status 0x%b\n", sc->unit,
ep->e_status,
"\020" /* print in hex */
"\001RESERVED0"
"\002PROC_SELF_TEST"
"\003PROG_MEM_CHECKSUM"
"\004DATA_MEM_TEST"
"\005RX_CALIBRATION"
"\006FW_VERSION_COMPAT"
"\007RERSERVED1"
"\008TEST_COMPLETE"
);
return(0);
}
if (sc->sc_version != RAY_ECFS_BUILD_4 &&
sc->sc_version != RAY_ECFS_BUILD_5
) {
printf("ray%d: unsupported firmware version 0x%0x\n", sc->unit,
ep->e_fw_build_string);
return(0);
}
if (bootverbose || RAY_DEBUG) {
printf("ray%d: Start Up Results\n", sc->unit);
if (RAY_DEBUG > 10)
RAY_DHEX8((u_int8_t *)sc->maddr + RAY_ECF_TO_HOST_BASE, 0x40);
if (sc->sc_version == RAY_ECFS_BUILD_4)
printf(" Firmware version 4\n");
else
printf(" Firmware version 5\n");
printf(" Status 0x%x\n", ep->e_status);
printf(" Ether address %6D\n", ep->e_station_addr, ":");
if (sc->sc_version == RAY_ECFS_BUILD_4) {
printf(" Program checksum %0x\n", ep->e_resv0);
printf(" CIS checksum %0x\n", ep->e_rates[0]);
} else {
printf(" (reserved word) %0x\n", ep->e_resv0);
printf(" Supported rates %8D\n", ep->e_rates, ":");
}
printf(" Japan call sign %12D\n", ep->e_japan_callsign, ":");
if (sc->sc_version == RAY_ECFS_BUILD_5) {
printf(" Program checksum %0x\n", ep->e_prg_cksum);
printf(" CIS checksum %0x\n", ep->e_cis_cksum);
printf(" Firmware version %0x\n", ep->e_fw_build_string);
printf(" Firmware revision %0x\n", ep->e_fw_build);
printf(" (reserved word) %0x\n", ep->e_fw_resv);
printf(" ASIC version %0x\n", ep->e_asic_version);
printf(" TIB size %0x\n", ep->e_tibsize);
}
}
/* Reset any pending interrupts */
RAY_HCS_CLEAR_INTR(sc);
/*
* Set the parameters that will survive stop/init
*
* Do not update these in ray_init's parameter setup
*/
#if XXX
see the ray_init section for stuff to move here
#endif
/*
* Initialise the network interface structure
*/
bcopy((char *)&ep->e_station_addr,
(char *)&sc->arpcom.ac_enaddr, ETHER_ADDR_LEN);
ifp = &sc->arpcom.ac_if;
ifp->if_softc = sc;
ifp->if_name = "ray";
ifp->if_unit = sc->unit;
ifp->if_timer = 0;
ifp->if_flags = (IFF_BROADCAST | IFF_SIMPLEX ); /* XXX - IFF_MULTICAST */
#if XXX
ifp->if_hdr = ...; make this big enough to hold the .11 and .3 headers
#endif
ifp->if_baudrate = 1000000; /* XXX Is this baud or bps ;-) */
ifp->if_output = ether_output;
ifp->if_start = ray_start;
ifp->if_ioctl = ray_ioctl;
ifp->if_watchdog = ray_watchdog;
ifp->if_init = ray_init;
ifp->if_snd.ifq_maxlen = IFQ_MAXLEN;
/*
* If this logical interface has already been attached,
* don't attach it again or chaos will ensue.
*/
sprintf(ifname, "ray%d", sc->unit);
if (ifunit(ifname) == NULL) {
callout_handle_init(&sc->timerh);
#if RAY_NEED_STARTJOIN_TIMO
callout_handle_init(&sc->sj_timerh);
#endif /* RAY_NEED_STARTJOIN_TIMO */
if_attach(ifp);
ether_ifattach(ifp);
#if NBPFILTER > 0
bpfattach(ifp, DLT_EN10MB, sizeof(struct ether_header));
#endif /* NBFFILTER */
#if XXX
this looks like a good idea
at_shutdown(ray_shutdown, sc, SHUTDOWN_POST_SYNC);
#endif /* XXX */
}
return(0);
}
/*
* Network start.
*
* Start output on interface. We make two assumptions here:
* 1) that the current priority is set to splimp _before_ this code
* is called *and* is returned to the appropriate priority after
* return
* 2) that the IFF_OACTIVE flag is checked before this code is called
* (i.e. that the output part of the interface is idle)
*/
static void
ray_start (ifp)
register struct ifnet *ifp;
{
struct ray_softc *sc;
RAY_DPRINTF(("ray%d: Network start\n", ifp->if_unit));
sc = ifp->if_softc;
RAY_MAP_CM(sc);
if (sc->gone) {
printf("ray%d: unloaded before start!\n", sc->unit);
return;
}
/* XXX mark output queue full so the kernel waits */
ifp->if_flags |= IFF_OACTIVE;
/* XXX if_xe code is clean but if_ed does more checks at top */
return;
}
/*
* Network ioctl request.
*/
static int
ray_ioctl (ifp, command, data)
register struct ifnet *ifp;
u_long command;
caddr_t data;
{
struct ray_softc *sc;
int s, error = 0;
RAY_DPRINTF(("ray%d: Network ioctl\n", ifp->if_unit));
sc = ifp->if_softc;
RAY_MAP_CM(sc);
if (sc->gone) {
printf("ray%d: unloaded before ioctl!\n", sc->unit);
ifp->if_flags &= ~IFF_RUNNING;
return ENXIO;
}
s = splimp();
switch (command) {
case SIOCSIFADDR:
case SIOCGIFADDR:
case SIOCSIFMTU:
RAY_DPRINTF(("ray%d: ioctl SIFADDR/GIFADDR/SIFMTU\n", sc->unit));
error = ether_ioctl(ifp, command, data);
break;
case SIOCSIFFLAGS:
RAY_DPRINTF(("ray%d: for SIFFLAGS\n", sc->unit));
/*
* If the interface is marked up and stopped, then start
* it. If it is marked down and running, then stop it.
*/
if (ifp->if_flags & IFF_UP) {
if (!(ifp->if_flags & IFF_RUNNING))
ray_init(sc);
} else {
if (ifp->if_flags & IFF_RUNNING)
ray_stop(sc);
}
/* DROP THROUGH */
#if XXX
case SIOCADDMULTI:
case SIOCDELMULTI:
RAY_DPRINTF(("ray%d: ioctl called for ADDMULTI/DELMULTI\n, sc->unit"));
/*
* Multicast list has (maybe) changed; set the hardware filter
* accordingly. This also serves to deal with promiscuous mode
* if we have a BPF listener active.
*/
ray_setmulti(sc);
#endif /* XXX */
error = 0;
break;
case SIOCGIFFLAGS:
RAY_DPRINTF(("ray%d: ioctl called for GIFFLAGS\n", sc->unit));
error = EINVAL;
break;
case SIOCGIFMETRIC:
RAY_DPRINTF(("ray%d: ioctl called for GIFMETRIC\n", sc->unit));
error = EINVAL;
break;
case SIOCGIFMTU:
RAY_DPRINTF(("ray%d: ioctl called for GIFMTU\n", sc->unit));
error = EINVAL;
break;
case SIOCGIFPHYS:
RAY_DPRINTF(("ray%d: ioctl called for GIFPYHS\n", sc->unit));
error = EINVAL;
break;
case SIOCSIFMEDIA:
RAY_DPRINTF(("ray%d: ioctl called for SIFMEDIA\n", sc->unit));
error = EINVAL;
break;
case SIOCGIFMEDIA:
RAY_DPRINTF(("ray%d: ioctl called for GIFMEDIA\n", sc->unit));
#if RAY_DUMP_CM_ON_GIFMEDIA
RAY_DPRINTF(("ray%d: RAY_SCB\n", sc->unit));
RAY_DHEX8((u_int8_t *)sc->maddr + RAY_SCB_BASE, 0x20);
RAY_DPRINTF(("ray%d: RAY_STATUS\n", sc->unit));
RAY_DNET_DUMP(sc, ".");
#endif /* RAY_DUMP_CM_ON_GIFMEDIA */
error = EINVAL;
break;
default:
error = EINVAL;
}
(void)splx(s);
return(error);
}
static void
ray_watchdog (ifp)
register struct ifnet *ifp;
{
struct ray_softc *sc;
RAY_DPRINTF(("ray%d: Network watchdog\n", ifp->if_unit));
sc = ifp->if_softc;
RAY_MAP_CM(sc);
if (sc->gone) {
printf("ray%d: unloaded before watchdog!\n", sc->unit);
return;
}
printf("ray%d: watchdog timeout\n", sc->unit);
/* XXX may need to have remedial action here
for example
ray_reset - may be useful elsewhere
ray_stop
...
ray_init
*/
return;
}
/*
* Network initialisation.
*/
static void
ray_init (xsc)
void *xsc;
{
struct ray_softc *sc = xsc;
struct ray_ecf_startup_v5 *ep;
struct ifnet *ifp;
size_t ccs;
int i;
RAY_DPRINTF(("ray%d: Network init\n", sc->unit));
RAY_MAP_CM(sc);
if (sc->gone) {
printf("ray%d: unloaded before init!\n", sc->unit);
return;
}
ifp = &sc->arpcom.ac_if;
if ((ifp->if_flags & IFF_RUNNING))
ray_stop(sc);
/*
* Reset instance variables
*
* The first set are network parameters that are fully initialised
* when the card starts or joins the network.
*
* The second set are network parameters that are downloaded to
* the card.
*
* All of the variables in these sets can be updated by the card or ioctls.
*/
sc->sc_upd_param = 0;
bzero(sc->sc_bss_id, sizeof(sc->sc_bss_id));
sc->sc_inited = 0;
sc->sc_def_txrate = 0;
sc->sc_encrypt = 0;
sc->translation = SC_TRANSLATE_WEBGEAR;
#if XXX
these might be better in _attach so updated values are kept
over up/down events
we probably also need a few more
countrycode
#endif
sc->sc_net_type = RAY_MIB_NET_TYPE_DEFAULT;
bzero(&sc->sc_ssid, sizeof(sc->sc_ssid));
strncpy(sc->sc_ssid, RAY_MIB_SSID_DEFAULT, RAY_MAXSSIDLEN);
sc->sc_priv_start = RAY_MIB_PRIVACY_MUST_START_DEFAULT;
sc->sc_priv_join = RAY_MIB_PRIVACY_CAN_JOIN_DEFAULT;
sc->sc_havenet = 0;
#if XXX
NetBSD
sc->sc_scheduled = 0;
sc->sc_running = 0;
sc->sc_txfree = RAY_CCS_NTX;
sc->sc_checkcounters = 0;
#endif
/* Set all ccs to be free */
bzero(sc->sc_ccsinuse, sizeof(sc->sc_ccsinuse));
sc->sc_ccs = RAY_CCS_LAST + 1;
ccs = RAY_CCS_ADDRESS(0);
for (i = 0; i < RAY_CCS_LAST; ccs += RAY_CCS_SIZE, i++)
SRAM_WRITE_FIELD_1(sc, ccs, ray_cmd, c_status, RAY_CCS_STATUS_FREE);
/* Clear any pending interrupts */
RAY_HCS_CLEAR_INTR(sc);
/*
* Get startup results - the card may have been reset
*/
ep = &sc->sc_ecf_startup;
ray_read_region(sc, RAY_ECF_TO_HOST_BASE, ep, sizeof(sc->sc_ecf_startup));
if (ep->e_status != RAY_ECFS_CARD_OK) {
printf("ray%d: card failed self test: status 0x%b\n", sc->unit,
ep->e_status,
"\020" /* print in hex */
"\001RESERVED0"
"\002PROC_SELF_TEST"
"\003PROG_MEM_CHECKSUM"
"\004DATA_MEM_TEST"
"\005RX_CALIBRATION"
"\006FW_VERSION_COMPAT"
"\007RERSERVED1"
"\008TEST_COMPLETE"
);
#if XXX
return; /* XXX This doesn't mark the interface as down */
#endif /* XXX */
}
/*
* Fixup tib size to be correct - on build 4 it is garbage
*/
if (sc->sc_version == RAY_ECFS_BUILD_4 && sc->sc_tibsize == 0x55)
sc->sc_tibsize = 32;
/*
* We are now up and running. Next we have to download network
* configuration into the card. We are busy until download is done.
*/
ifp->if_flags |= IFF_RUNNING | IFF_OACTIVE;
#if XXX
/* set this now so it gets set in the download */
sc->sc_promisc = !!(sc->sc_if.if_flags & (IFF_PROMISC|IFF_ALLMULTI));
#endif /* XXX */
ray_download_params(sc);
#if XXX
need to understand how the doenload finishes first
Start up flow is as follows.
The kernel calls ray_init when the interface is assigned an address.
ray_init does a bit of house keeping before calling ray_download_params.
ray_download_params fills the startup parameter structure out and
sends it to the card. The download command simply completes so
we use schedule a timeout function call to ray_download_timo.
We pass the ccs in use via sc->sc_css.
ray_download_timo checks the ccs for command completion/errors.
Then it tells the card to start an adhoc or join a managed
network. This should complete via the interrupt mechanism, but
the NetBSD driver includes a timeout for some buggy stuff somewhere.
I've left the hooks in but don't use them. The interrupt handler
passes control to ray_start_join_done - the ccs is handled by
the interrupt mechanism.
Once ray_start_join_done has checked the ccs and
uploaded/updated the network parameters we are ready to
process packets. It can then call ray_start.
#endif /* XXX */
return;
}
/*
* Network stop.
*/
static void
ray_stop (sc)
struct ray_softc *sc;
{
struct ifnet *ifp;
RAY_DPRINTF(("ray%d: Network stop\n", sc->unit));
RAY_MAP_CM(sc);
if (sc->gone) {
printf("ray%d: unloaded before stop!\n", sc->unit);
return;
}
ifp = &sc->arpcom.ac_if;
/* XXX stuff here please to kill activity on the card and drain down transmissons */
/* Mark as not running */
ifp->if_flags &= ~IFF_RUNNING;
return;
}
/*
* Process CCS command completion - called from ray_intr
*/
static void
ray_ccs_done (sc, ccs)
struct ray_softc *sc;
size_t ccs;
{
u_int cmd, status;
RAY_DPRINTF(("ray%d: Processing ccs %d\n", sc->unit, RAY_CCS_INDEX(ccs)));
RAY_MAP_CM(sc);
cmd = SRAM_READ_FIELD_1(sc, ccs, ray_cmd, c_cmd);
status = SRAM_READ_FIELD_1(sc, ccs, ray_cmd, c_status);
RAY_DPRINTF(("ray%d: ccs idx %d ccs 0x%x cmd 0x%x stat %d\n",
sc->unit, RAY_CCS_INDEX(ccs), ccs, cmd, status));
/* XXX should we panic on unrecognised commands or just ignore them?
* maybe I'll macroize the printf's */
switch (cmd) {
case RAY_CMD_START_PARAMS:
printf("ray%d: ray_ccs_done got START_PARAMS - why?\n", sc->unit);
break;
case RAY_CMD_UPDATE_PARAMS:
RAY_DPRINTF(("ray%d: ray_ccs_done got UPDATE_PARAMS\n", sc->unit));
XXX;
break;
case RAY_CMD_REPORT_PARAMS:
RAY_DPRINTF(("ray%d: ray_ccs_done got REPORT_PARAMS\n", sc->unit));
XXX;
break;
case RAY_CMD_UPDATE_MCAST:
RAY_DPRINTF(("ray%d: ray_ccs_done got UPDATE_MCAST\n", sc->unit));
XXX;
break;
case RAY_CMD_UPDATE_APM:
RAY_DPRINTF(("ray%d: ray_ccs_done got UPDATE_APM\n", sc->unit));
XXX;
break;
case RAY_CMD_START_NET:
case RAY_CMD_JOIN_NET:
RAY_DPRINTF(("ray%d: ray_ccs_done got START|JOIN_NET\n", sc->unit));
ray_start_join_done(sc, ccs, status);
break;
case RAY_CMD_START_ASSOC:
RAY_DPRINTF(("ray%d: ray_ccs_done got START_ASSOC\n", sc->unit));
XXX;
break;
case RAY_CMD_TX_REQ:
RAY_DPRINTF(("ray%d: ray_ccs_done got TX_REQ\n", sc->unit));
XXX;
break;
case RAY_CMD_TEST_MEM:
printf("ray%d: ray_ccs_done got TEST_MEM - why?\n", sc->unit);
break;
case RAY_CMD_SHUTDOWN:
printf("ray%d: ray_ccs_done got SHUTDOWN - why?\n", sc->unit);
break;
case RAY_CMD_DUMP_MEM:
printf("ray%d: ray_ccs_done got DUMP_MEM - why?\n", sc->unit);
break;
case RAY_CMD_START_TIMER:
printf("ray%d: ray_ccs_done got START_TIMER - why?\n", sc->unit);
break;
default:
printf("ray%d: ray_ccs_done unknown command 0x%x\n", sc->unit, cmd);
break;
}
ray_free_ccs(sc, ccs);
return;
}
/*
* Process ECF command request - called from ray_intr
*/
static void
ray_rcs_intr (sc, rcs)
struct ray_softc *sc;
size_t rcs;
{
struct ifnet *ifp;
u_int cmd, status;
RAY_DPRINTF(("ray%d: Processing rcs %d\n", sc->unit, RAY_CCS_INDEX(rcs)));
RAY_MAP_CM(sc);
ifp = &sc->arpcom.ac_if;
cmd = SRAM_READ_FIELD_1(sc, rcs, ray_cmd, c_cmd);
status = SRAM_READ_FIELD_1(sc, rcs, ray_cmd, c_status);
RAY_DPRINTF(("ray%d: rcs idx %d rcs 0x%x cmd 0x%x stat %d\n",
sc->unit, RAY_CCS_INDEX(rcs), rcs, cmd, status));
/* XXX should we panic on unrecognised commands or just ignore them?
* maybe I'll macroize the printf's */
switch (cmd) {
case RAY_ECMD_RX_DONE:
printf("ray%d: ray_rcs_intr got RX_DONE\n", sc->unit);
ray_rx(sc, rcs);
break;
case RAY_ECMD_REJOIN_DONE:
RAY_DPRINTF(("ray%d: ray_rcs_intr got UPDATE_PARAMS\n", sc->unit));
XXX;
break;
case RAY_ECMD_ROAM_START:
RAY_DPRINTF(("ray%d: ray_rcs_intr got ROAM_START\n", sc->unit));
XXX;
break;
case RAY_ECMD_JAPAN_CALL_SIGNAL:
printf("ray%d: ray_rcs_intr got JAPAN_CALL_SIGNAL - why?\n",
sc->unit);
break;
default:
printf("ray%d: ray_rcs_intr unknown command 0x%x\n",
sc->unit, cmd);
break;
}
SRAM_WRITE_FIELD_1(sc, rcs, ray_cmd, c_status, RAY_CCS_STATUS_FREE);
return;
}
/*
* Receive a packet
*/
static void
ray_rx (sc, rcs)
struct ray_softc *sc;
size_t rcs;
{
struct ieee80211_header *header;
struct ether_header *eh;
struct ifnet *ifp;
struct mbuf *m;
size_t pktlen, fraglen, readlen, tmplen;
size_t bufp, ebufp;
u_int8_t *dst, *src;
u_int8_t fc;
u_int first, ni, i;
RAY_DPRINTF(("ray%d: ray_rx\n", sc->unit));
RAY_MAP_CM(sc);
RAY_DPRINTF(("ray%d: rcs chain - using rcs 0x%x\n", sc->unit, rcs));
ifp = &sc->arpcom.ac_if;
m = NULL;
readlen = 0;
/*
* Get first part of packet and the length. Do some sanity checks
* and get a mbuf.
*/
first = RAY_CCS_INDEX(rcs);
pktlen = SRAM_READ_FIELD_2(sc, rcs, ray_cmd_rx, c_pktlen);
if ((pktlen > MCLBYTES) || (pktlen < 1/*XXX should be header size*/)) {
RAY_DPRINTF(("ray%d: ray_rx packet is too big or too small\n",
sc->unit));
ifp->if_ierrors++;
goto skip_read;
}
MGETHDR(m, M_DONTWAIT, MT_DATA);
if (m == NULL) {
RAY_DPRINTF(("ray%d: ray_rx MGETHDR failed\n", sc->unit));
ifp->if_ierrors++;
goto skip_read;
}
if (pktlen > MHLEN) {
MCLGET(m, M_DONTWAIT);
if ((m->m_flags & M_EXT) == 0) {
RAY_DPRINTF(("ray%d: ray_rx MCLGET failed\n", sc->unit));
ifp->if_ierrors++;
m_freem(m);
m = 0;
goto skip_read;
}
}
m->m_pkthdr.rcvif = ifp;
m->m_pkthdr.len = pktlen;
m->m_len = pktlen;
dst = mtod(m, u_int8_t *);
/*
* Walk the fragment chain to build the complete packet.
*
* The use of two index variables removes a race with the
* hardware. If one index were used the clearing of the CCS would
* happen before reading the next pointer and the hardware can get in.
* Not my idea but verbatim from the NetBSD driver.
*/
i = ni = first;
while ((i = ni) && (i != RAY_CCS_LINK_NULL)) {
rcs = RAY_CCS_ADDRESS(i);
ni = SRAM_READ_FIELD_1(sc, rcs, ray_cmd_rx, c_nextfrag);
bufp = SRAM_READ_FIELD_2(sc, rcs, ray_cmd_rx, c_bufp);
fraglen = SRAM_READ_FIELD_2(sc, rcs, ray_cmd_rx, c_len);
RAY_DPRINTF(("ray%d: ray_rx frag index %d len %d bufp 0x%x ni %d\n",
sc->unit, i, fraglen, (int)bufp, ni));
if (fraglen + readlen > pktlen) {
RAY_DPRINTF(("ray%d: ray_rx bad length current 0x%x pktlen 0x%x\n",
sc->unit, fraglen + readlen, pktlen));
ifp->if_ierrors++;
m_freem(m);
m = 0;
goto skip_read;
}
if ((i < RAY_RCS_FIRST) || (i > RAY_RCS_LAST)) {
printf("ray%d: ray_rx bad rcs index 0x%x\n", sc->unit, i);
ifp->if_ierrors++;
m_freem(m);
m = 0;
goto skip_read;
}
ebufp = bufp + fraglen;
if (ebufp <= RAY_RX_END)
ray_read_region(sc, bufp, dst, fraglen);
else {
ray_read_region(sc, bufp, dst, (tmplen = RAY_RX_END - bufp));
ray_read_region(sc, RAY_RX_BASE, dst + tmplen, ebufp - RAY_RX_END);
}
dst += fraglen;
readlen += fraglen;
}
skip_read:
/*
* Walk the chain again to free the rcss.
*/
i = ni = first;
RAY_DPRINTF(("ray%d: ray_rx cleaning rcs fragments ", sc->unit));
while ((i = ni) && (i != RAY_CCS_LINK_NULL)) {
RAY_DPRINTF(("%d ", i));
rcs = RAY_CCS_ADDRESS(i);
ni = SRAM_READ_FIELD_1(sc, rcs, ray_cmd_rx, c_nextfrag);
SRAM_WRITE_FIELD_1(sc, rcs, ray_cmd, c_status, RAY_CCS_STATUS_FREE);
}
RAY_DPRINTF(("\n"));
if (!m)
return;
RAY_DPRINTF(("ray%d: ray_rx got packet pktlen %d actual %d\n",
sc->unit, pktlen, readlen));
RAY_DMBUF_DUMP(sc, m, "ray_rx");
/*
* Check the 802.11 packet type and obtain the .11 src address.
*
* XXX CTL and MGT packets will have separate functions,
* DATA dealt with here
*/
header = mtod(m, struct ieee80211_header *);
fc = header->i_fc[0];
if ((fc & IEEE80211_FC0_VERSION_MASK) != IEEE80211_FC0_VERSION_0) {
RAY_DPRINTF(("ray%d: header not version 0 fc 0x%x\n", sc->unit, fc));
m_freem(m);
return;
}
switch (fc & IEEE80211_FC0_TYPE_MASK) {
case IEEE80211_FC0_TYPE_MGT:
printf("ray%d: ray_rx got a .11 MGT packet - why?\n", sc->unit);
m_freem(m);
return;
case IEEE80211_FC0_TYPE_CTL:
printf("ray%d: ray_rx got a .11 CTL packet - why?\n", sc->unit);
m_freem(m);
return;
case IEEE80211_FC0_TYPE_DATA:
RAY_DPRINTF(("ray%d: ray_rx got a .11 DATA packet\n", sc->unit));
break;
default:
printf("ray%d: ray_rx got a unknown .11 packet fc0 0x%x - why?\n",
sc->unit, fc);
m_freem(m);
return;
}
fc = header->i_fc[1];
switch (fc & IEEE80211_FC1_RCVFROM_MASK) {
case IEEE80211_FC1_RCVFROM_TERMINAL:
src = header->i_addr2;
RAY_DPRINTF(("ray%d: ray_rx got packet from station %6D\n",
sc->unit, src, ":"));
break;
case IEEE80211_FC1_RCVFROM_AP:
src = header->i_addr3;
RAY_DPRINTF(("ray%d: ray_rx got packet from ap %6D\n",
sc->unit, src, ":"));
break;
case IEEE80211_FC1_RCVFROM_AP2AP:
RAY_DPRINTF(("ray%d: ray_rx saw packet between aps %6D %6D %6D\n",
sc->unit, header->i_addr1, ":", header->i_addr2, ":",
header->i_addr3, ":"));
m_freem(m);
return;
default:
printf("ray%d: ray_rx packet type unknown fc1 0x%x - why?\n",
sc->unit, fc);
m_freem(m);
return;
}
/*
* XXX
*
* Currently only support the Webgear encapsulation
* 802.11 header <net/if_ieee80211.h>struct ieee80211_header
* 802.3 header <net/ethernet.h>struct ether_header
* 802.2 LLC header
* 802.2 SNAP header
*
* We should support whatever packet types the following drivers have
* if_wi.c FreeBSD, RFC1042
* if_ray.c NetBSD Webgear, RFC1042
* rayctl.c Linux Webgear, RFC1042
* also whatever we can divine from the NDC Access points and
* Kanda's boxes.
*
* Most appear to have a RFC1042 translation. The incoming packet is
* 802.11 header <net/if_ieee80211.h>struct ieee80211_header
* 802.2 LLC header
* 802.2 SNAP header
*
* This is translated to
* 802.3 header <net/ethernet.h>struct ether_header
* 802.2 LLC header
* 802.2 SNAP header
*
* Linux seems to look at the SNAP org_code and do some translations
* for IPX and APPLEARP on that. This just may be how Linux does IPX
* and NETATALK. Need to see how FreeBSD does these.
*
* Translation should be selected via if_media stuff or link types.
*/
switch (sc->translation) {
case SC_TRANSLATE_WEBGEAR:
/* XXX error checking ? how? */
eh = (struct ether_header *)(header + 1);
m_adj(m, sizeof(struct ieee80211_header)+sizeof(struct ether_header));
break;
default:
printf("ray%d: ray_rx unknown translation type 0x%x - why?\n",
sc->unit, sc->translation);
m_freem(m);
return;
}
#if NBPFILTER > 0
/* Handle BPF listeners. */
if (ifp->if_bpf)
bpf_mtap(ifp, m);
#endif /* NBPFILTER */
#if XXX
if_wi.c - might be needed if we hear our own broadcasts in promiscuous mode
if ((ifp->if_flags & IFF_PROMISC) &&
(bcmp(eh->ether_shost, sc->arpcom.ac_enaddr, ETHER_ADDR_LEN) &&
(eh->ether_dhost[0] & 1) == 0)
) {
m_freem(m);
return;
}
#endif /* XXX */
ether_input(ifp, eh, m);
return;
}
/*
* Download start up structures to card.
*
* Part of ray_init, download, startjoin control flow.
*/
static void
ray_download_params (sc)
struct ray_softc *sc;
{
struct ray_mib_4 ray_mib_4_default;
struct ray_mib_5 ray_mib_5_default;
RAY_DPRINTF(("ray%d: Downloading startup parameters\n", sc->unit));
RAY_MAP_CM(sc);
RAY_DNET_DUMP(sc, " before we download them.");
#if XXX
netbsd
ray_cmd_cancel(sc, SCP_UPD_STARTUP);
#endif /* XXX */
#define MIB4(m) ray_mib_4_default.##m
#define MIB5(m) ray_mib_5_default.##m
#define PUT2(p, v) \
do { (p)[0] = ((v >> 8) & 0xff); (p)[1] = (v & 0xff); } while(0)
/*
* Firmware version 4 defaults - see if_raymib.h for details
*/
MIB4(mib_net_type) = sc->sc_net_type;
MIB4(mib_ap_status) = RAY_MIB_AP_STATUS_DEFAULT;
strncpy(MIB4(mib_ssid), sc->sc_ssid, RAY_MAXSSIDLEN);
MIB4(mib_scan_mode) = RAY_MIB_SCAN_MODE_DEFAULT;
MIB4(mib_apm_mode) = RAY_MIB_APM_MODE_DEFAULT;
bcopy(sc->sc_station_addr, MIB4(mib_mac_addr), ETHER_ADDR_LEN);
PUT2(MIB4(mib_frag_thresh), RAY_MIB_FRAG_THRESH_DEFAULT);
PUT2(MIB4(mib_dwell_time), RAY_MIB_DWELL_TIME_V4);
PUT2(MIB4(mib_beacon_period), RAY_MIB_BEACON_PERIOD_V4);
MIB4(mib_dtim_interval) = RAY_MIB_DTIM_INTERVAL_DEFAULT;
MIB4(mib_max_retry) = RAY_MIB_MAX_RETRY_DEFAULT;
MIB4(mib_ack_timo) = RAY_MIB_ACK_TIMO_DEFAULT;
MIB4(mib_sifs) = RAY_MIB_SIFS_DEFAULT;
MIB4(mib_difs) = RAY_MIB_DIFS_DEFAULT;
MIB4(mib_pifs) = RAY_MIB_PIFS_V4;
PUT2(MIB4(mib_rts_thresh), RAY_MIB_RTS_THRESH_DEFAULT);
PUT2(MIB4(mib_scan_dwell), RAY_MIB_SCAN_DWELL_V4);
PUT2(MIB4(mib_scan_max_dwell), RAY_MIB_SCAN_MAX_DWELL_V4);
MIB4(mib_assoc_timo) = RAY_MIB_ASSOC_TIMO_DEFAULT;
MIB4(mib_adhoc_scan_cycle) = RAY_MIB_ADHOC_SCAN_CYCLE_DEFAULT;
MIB4(mib_infra_scan_cycle) = RAY_MIB_INFRA_SCAN_CYCLE_DEFAULT;
MIB4(mib_infra_super_scan_cycle) = RAY_MIB_INFRA_SUPER_SCAN_CYCLE_DEFAULT;
MIB4(mib_promisc) = RAY_MIB_PROMISC_DEFAULT;
PUT2(MIB4(mib_uniq_word), RAY_MIB_UNIQ_WORD_DEFAULT);
MIB4(mib_slot_time) = RAY_MIB_SLOT_TIME_V4;
MIB4(mib_roam_low_snr_thresh) = RAY_MIB_ROAM_LOW_SNR_THRESH_DEFAULT;
MIB4(mib_low_snr_count) = RAY_MIB_LOW_SNR_COUNT_DEFAULT;
MIB4(mib_infra_missed_beacon_count)= RAY_MIB_INFRA_MISSED_BEACON_COUNT_DEFAULT;
MIB4(mib_adhoc_missed_beacon_count)= RAY_MIB_ADHOC_MISSED_BEACON_COUNT_DEFAULT;
MIB4(mib_country_code) = RAY_MIB_COUNTRY_CODE_DEFAULT;
MIB4(mib_hop_seq) = RAY_MIB_HOP_SEQ_DEFAULT;
MIB4(mib_hop_seq_len) = RAY_MIB_HOP_SEQ_LEN_V4;
MIB4(mib_cw_max) = RAY_MIB_CW_MAX_V4;
MIB4(mib_cw_min) = RAY_MIB_CW_MIN_V4;
MIB4(mib_noise_filter_gain) = RAY_MIB_NOISE_FILTER_GAIN_DEFAULT;
MIB4(mib_noise_limit_offset) = RAY_MIB_NOISE_LIMIT_OFFSET_DEFAULT;
MIB4(mib_rssi_thresh_offset) = RAY_MIB_RSSI_THRESH_OFFSET_DEFAULT;
MIB4(mib_busy_thresh_offset) = RAY_MIB_BUSY_THRESH_OFFSET_DEFAULT;
MIB4(mib_sync_thresh) = RAY_MIB_SYNC_THRESH_DEFAULT;
MIB4(mib_test_mode) = RAY_MIB_TEST_MODE_DEFAULT;
MIB4(mib_test_min_chan) = RAY_MIB_TEST_MIN_CHAN_DEFAULT;
MIB4(mib_test_max_chan) = RAY_MIB_TEST_MAX_CHAN_DEFAULT;
/*
* Firmware version 5 defaults - see if_raymib.h for details
*/
MIB5(mib_net_type) = sc->sc_net_type;
MIB5(mib_ap_status) = RAY_MIB_AP_STATUS_DEFAULT;
strncpy(MIB5(mib_ssid), sc->sc_ssid, RAY_MAXSSIDLEN);
MIB5(mib_scan_mode) = RAY_MIB_SCAN_MODE_DEFAULT;
MIB5(mib_apm_mode) = RAY_MIB_APM_MODE_DEFAULT;
bcopy(sc->sc_station_addr, MIB5(mib_mac_addr), ETHER_ADDR_LEN);
PUT2(MIB5(mib_frag_thresh), RAY_MIB_FRAG_THRESH_DEFAULT);
PUT2(MIB5(mib_dwell_time), RAY_MIB_DWELL_TIME_V5);
PUT2(MIB5(mib_beacon_period), RAY_MIB_BEACON_PERIOD_V5);
MIB5(mib_dtim_interval) = RAY_MIB_DTIM_INTERVAL_DEFAULT;
MIB5(mib_max_retry) = RAY_MIB_MAX_RETRY_DEFAULT;
MIB5(mib_ack_timo) = RAY_MIB_ACK_TIMO_DEFAULT;
MIB5(mib_sifs) = RAY_MIB_SIFS_DEFAULT;
MIB5(mib_difs) = RAY_MIB_DIFS_DEFAULT;
MIB5(mib_pifs) = RAY_MIB_PIFS_V5;
PUT2(MIB5(mib_rts_thresh), RAY_MIB_RTS_THRESH_DEFAULT);
PUT2(MIB5(mib_scan_dwell), RAY_MIB_SCAN_DWELL_V5);
PUT2(MIB5(mib_scan_max_dwell), RAY_MIB_SCAN_MAX_DWELL_V5);
MIB5(mib_assoc_timo) = RAY_MIB_ASSOC_TIMO_DEFAULT;
MIB5(mib_adhoc_scan_cycle) = RAY_MIB_ADHOC_SCAN_CYCLE_DEFAULT;
MIB5(mib_infra_scan_cycle) = RAY_MIB_INFRA_SCAN_CYCLE_DEFAULT;
MIB5(mib_infra_super_scan_cycle) = RAY_MIB_INFRA_SUPER_SCAN_CYCLE_DEFAULT;
MIB5(mib_promisc) = RAY_MIB_PROMISC_DEFAULT;
PUT2(MIB5(mib_uniq_word), RAY_MIB_UNIQ_WORD_DEFAULT);
MIB5(mib_slot_time) = RAY_MIB_SLOT_TIME_V5;
MIB5(mib_roam_low_snr_thresh) = RAY_MIB_ROAM_LOW_SNR_THRESH_DEFAULT;
MIB5(mib_low_snr_count) = RAY_MIB_LOW_SNR_COUNT_DEFAULT;
MIB5(mib_infra_missed_beacon_count)= RAY_MIB_INFRA_MISSED_BEACON_COUNT_DEFAULT;
MIB5(mib_adhoc_missed_beacon_count)= RAY_MIB_ADHOC_MISSED_BEACON_COUNT_DEFAULT;
MIB5(mib_country_code) = RAY_MIB_COUNTRY_CODE_DEFAULT;
MIB5(mib_hop_seq) = RAY_MIB_HOP_SEQ_DEFAULT;
MIB5(mib_hop_seq_len) = RAY_MIB_HOP_SEQ_LEN_V5;
PUT2(MIB5(mib_cw_max), RAY_MIB_CW_MAX_V5);
PUT2(MIB5(mib_cw_min), RAY_MIB_CW_MIN_V5);
MIB5(mib_noise_filter_gain) = RAY_MIB_NOISE_FILTER_GAIN_DEFAULT;
MIB5(mib_noise_limit_offset) = RAY_MIB_NOISE_LIMIT_OFFSET_DEFAULT;
MIB5(mib_rssi_thresh_offset) = RAY_MIB_RSSI_THRESH_OFFSET_DEFAULT;
MIB5(mib_busy_thresh_offset) = RAY_MIB_BUSY_THRESH_OFFSET_DEFAULT;
MIB5(mib_sync_thresh) = RAY_MIB_SYNC_THRESH_DEFAULT;
MIB5(mib_test_mode) = RAY_MIB_TEST_MODE_DEFAULT;
MIB5(mib_test_min_chan) = RAY_MIB_TEST_MIN_CHAN_DEFAULT;
MIB5(mib_test_max_chan) = RAY_MIB_TEST_MAX_CHAN_DEFAULT;
MIB5(mib_allow_probe_resp) = RAY_MIB_ALLOW_PROBE_RESP_DEFAULT;
MIB5(mib_privacy_must_start) = RAY_MIB_PRIVACY_MUST_START_DEFAULT;
MIB5(mib_privacy_can_join) = sc->sc_priv_start;
MIB5(mib_basic_rate_set[0]) = sc->sc_priv_join;
if (!RAY_ECF_READY(sc))
panic("ray%d: ray_download_params something is already happening\n",
sc->unit);
if (sc->sc_version == RAY_ECFS_BUILD_4)
ray_write_region(sc, RAY_HOST_TO_ECF_BASE,
&ray_mib_4_default, sizeof(ray_mib_4_default));
else
ray_write_region(sc, RAY_HOST_TO_ECF_BASE,
&ray_mib_5_default, sizeof(ray_mib_5_default));
/* XXX
* NetBSD
* hand expanding ray_simple_cmd
* we dont do any of the clever timeout stuff yet (i.e. ray_cmd_ran) just
* simple check
*
* if (!ray_simple_cmd(sc, RAY_CMD_START_PARAMS, SCP_UPD_STARTUP))
* panic("ray_download_params issue");
*
* ray_simple_cmd ==
* ray_alloc_ccs(sc, &ccs, cmd, track) &&
* ray_issue_cmd(sc, ccs, track));
*
*/
/*
* Get a free command ccs and issue the command - there is nothing
* to fill in for a START_PARAMS command. The start parameters
* command just gets serviced, so we use a timeout to complete the
* sequence.
*/
if (!ray_alloc_ccs(sc, &sc->sc_ccs, RAY_CMD_START_PARAMS, SCP_UPD_STARTUP))
panic("ray%d: ray_download_params can't get a CCS\n", sc->unit);
if (!ray_issue_cmd(sc, sc->sc_ccs, SCP_UPD_STARTUP))
panic("ray%d: ray_download_params can't issue command\n", sc->unit);
sc->timerh = timeout(ray_download_timo, sc, RAY_CCS_TIMEOUT);
RAY_DPRINTF(("ray%d: Download now awaiting timeout\n", sc->unit));
return;
}
/*
* Download timeout routine.
*
* Part of ray_init, download, start_join control flow.
*/
static void
ray_download_timo (xsc)
void *xsc;
{
struct ray_softc *sc = xsc;
size_t ccs;
u_int8_t status, cmd;
RAY_DPRINTF(("ray%d: ray_download_timo\n", sc->unit));
RAY_MAP_CM(sc);
status = SRAM_READ_FIELD_1(sc, sc->sc_ccs, ray_cmd, c_status);
cmd = SRAM_READ_FIELD_1(sc, sc->sc_ccs, ray_cmd, c_cmd);
RAY_DPRINTF(("ray%d: check rayidx %d ccs 0x%x cmd 0x%x stat %d\n",
sc->unit, RAY_CCS_INDEX(sc->sc_ccs), sc->sc_ccs, cmd, status));
if ((cmd != RAY_CMD_START_PARAMS) || (status != RAY_CCS_STATUS_FREE))
printf("ray%d: Download ccs odd cmd = 0x%02x, status = 0x%02x",
sc->unit, cmd, status);
/*XXX so what do we do? reset or retry? */
/*XXX this gets triggered when we try and re-reset the ipaddress
* ray_init gets called */
/*
* If the card is still busy, re-schedule ourself
*/
if (status == RAY_CCS_STATUS_BUSY) {
RAY_DPRINTF(("ray%d: ray_download_timo - still busy, see you soon\n",
sc->unit));
sc->timerh = timeout(ray_download_timo, sc, RAY_CCS_TIMEOUT);
}
/* Clear the ccs */
ray_free_ccs(sc, sc->sc_ccs);
sc->sc_ccs = RAY_CCS_LAST + 1;
#if XXX
NetBSD clear IFF_OACTIVE at this point
#endif
/*
* Grab a ccs and don't bother updating the network parameters.
* Issue the start/join command and we get interrupted back.
*/
if (sc->sc_net_type == RAY_MIB_NET_TYPE_ADHOC)
cmd = RAY_CMD_START_NET;
else
cmd = RAY_CMD_JOIN_NET;
if (!ray_alloc_ccs(sc, &ccs, cmd, SCP_UPD_STARTJOIN))
panic("ray%d: ray_download_timo can't get a CCS to start/join net\n",
sc->unit);
SRAM_WRITE_FIELD_1(sc, ccs, ray_cmd_net, c_upd_param, 0);
if (!ray_issue_cmd(sc, ccs, SCP_UPD_STARTJOIN))
panic("ray%d: ray_download_timo can't issue start/join\n", sc->unit);
#if RAY_NEED_STARTJOIN_TIMO
sc->sj_timerh = timeout(ray_start_join_timo, sc, RAY_CCS_TIMEOUT);
#endif /* RAY_NEED_STARTJOIN_TIMO */
RAY_DPRINTF(("ray%d: Start-join awaiting interrupt/timeout\n", sc->unit));
return;
}
/*
* Complete start or join command.
*
* Part of ray_init, download, start_join control flow.
*/
static void
ray_start_join_done (sc, ccs, status)
struct ray_softc *sc;
size_t ccs;
u_int8_t status;
{
u_int8_t o_net_type;
RAY_DPRINTF(("ray%d: ray_start_join_done\n", sc->unit));
RAY_MAP_CM(sc);
#if RAY_NEED_STARTJOIN_TIMO
untimeout(ray_start_join_timo, sc, sc->sj_timerh);
#endif /* RAY_NEED_STARTJOIN_TIMO */
#if XXX_TRACKING
ray_cmd_done(sc, SCP_UPD_STARTJOIN);
#endif /* XXX_TRACKING */
switch (status) {
case RAY_CCS_STATUS_FREE:
case RAY_CCS_STATUS_BUSY:
printf("ray%d: ray_start_join_done status is FREE/BUSY - why?\n",
sc->unit);
break;
case RAY_CCS_STATUS_COMPLETE:
break;
case RAY_CCS_STATUS_FAIL:
printf("ray%d: ray_start_join_done status is FAIL - why?\n",
sc->unit);
#if XXX
restart ray_start_join sequence
may need to split download_done for this
#endif
break;
default:
printf("ray%d: ray_start_join_done unknown status 0x%x\n",
sc->unit, status);
break;
}
/*
* If the command completed correctly, get a few network parameters
* from the ccs and active the nextwork.
*/
if (status == RAY_CCS_STATUS_COMPLETE) {
ray_read_region(sc, ccs, &sc->sc_cnet_1, sizeof(struct ray_cmd_net));
/* adjust values for buggy build 4 */
if (sc->sc_def_txrate == 0x55)
sc->sc_def_txrate = RAY_MIB_BASIC_RATE_SET_1500K;
if (sc->sc_encrypt == 0x55)
sc->sc_encrypt = 0;
/* card is telling us to update the network parameters */
if (sc->sc_upd_param) {
RAY_DPRINTF(("ray%d: ray_start_join_done card request update of network parameters\n", sc->unit));
o_net_type = sc->sc_net_type;
ray_read_region(sc, RAY_HOST_TO_ECF_BASE,
&sc->sc_cnet_2, sizeof(struct ray_net_params));
if (sc->sc_net_type != o_net_type) {
printf("ray%d: ray_start_join_done card request change of network type - why?\n", sc->unit);
#if XXX
restart ray_start_join sequence ?
may need to split download_timo for this
#endif
}
}
RAY_DNET_DUMP(sc, " after start/join network completed.");
#if XXX
netbsd has already cleared OACTIVE so packets may be queued
need to know interrupt level before calling ray_start
is ray_intr_start === ray_start?
yup apart from groking the sc from the ifp
/* network is now active */
ray_cmd_schedule(sc, SCP_UPD_MCAST|SCP_UPD_PROMISC);
if (cmd == RAY_CMD_JOIN_NET)
return (ray_start_assoc);
else {
sc->sc_havenet = 1;
return (ray_intr_start);
}
#endif
}
return;
};
#if RAY_NEED_STARTJOIN_TIMO
/*
* Back stop catcher for start_join command. The NetBSD driver
* suggests that they need it to catch a bug in the firmware or the
* parameters they use - they are not sure. I'll just panic as I seem
* to get interrupts back fine and I have version 4 firmware.
*/
static void
ray_start_join_timo (xsc)
void *xsc;
{
struct ray_softc *sc = xsc;
RAY_DPRINTF(("ray%d: ray_start_join_timo\n", sc->unit));
RAY_MAP_CM(sc);
panic("ray%d: ray-start_join_timo occured\n", sc->unit);
return;
}
#endif /* RAY_NEED_STARTJOIN_TIMO */
/*
* Obtain a free ccs buffer.
*
* Returns 1 and in `ccsp' the bus offset of the free ccs
* or 0 if none are free
*
* If `track' is not zero, handles tracking this command
* possibly indicating a callback is needed and setting a timeout
* also if ECF isn't ready we terminate earlier to avoid overhead.
*
* This routine is only used for commands
*/
static int
ray_alloc_ccs (sc, ccsp, cmd, track)
struct ray_softc *sc;
size_t *ccsp;
u_int cmd, track;
{
size_t ccs;
u_int i;
RAY_DPRINTF(("ray%d: ray_alloc_ccs for cmd %d\n", sc->unit, cmd));
RAY_MAP_CM(sc);
#if XXX
/* for tracked commands, if not ready just set pending */
if (track && !RAY_ECF_READY(sc)) {
ray_cmd_schedule(sc, track);
return (0);
}
#endif /* XXX */
for (i = RAY_CCS_CMD_FIRST; i <= RAY_CCS_CMD_LAST; i++) {
/* probe here to make the card go */
(void)SRAM_READ_FIELD_1(sc, RAY_CCS_ADDRESS(i), ray_cmd, c_status);
if (!sc->sc_ccsinuse[i])
break;
}
if (i > RAY_CCS_CMD_LAST) {
#if XXX
if (track)
ray_cmd_schedule(sc, track);
#endif /* XXX */
return (0);
}
sc->sc_ccsinuse[i] = 1;
ccs = RAY_CCS_ADDRESS(i);
SRAM_WRITE_FIELD_1(sc, ccs, ray_cmd, c_status, RAY_CCS_STATUS_BUSY);
SRAM_WRITE_FIELD_1(sc, ccs, ray_cmd, c_cmd, cmd);
SRAM_WRITE_FIELD_1(sc, ccs, ray_cmd, c_link, RAY_CCS_LINK_NULL);
*ccsp = ccs;
return (1);
}
/*
* Free up a ccs/cmd and return the old status.
* This routine is only used for commands.
*/
static u_int8_t
ray_free_ccs (sc, ccs)
struct ray_softc *sc;
size_t ccs;
{
u_int8_t stat;
RAY_DPRINTF(("ray%d: free_ccs 0x%02x\n", sc->unit, RAY_CCS_INDEX(ccs)));
RAY_MAP_CM(sc);
stat = SRAM_READ_FIELD_1(sc, ccs, ray_cmd, c_status);
SRAM_WRITE_FIELD_1(sc, ccs, ray_cmd, c_status, RAY_CCS_STATUS_FREE);
if (ccs <= RAY_CCS_ADDRESS(RAY_CCS_LAST))
sc->sc_ccsinuse[RAY_CCS_INDEX(ccs)] = 0;
return (stat);
}
/*
* Issue a command by writing the mailbox and tickling the card.
* Only used for commands not transmitted packets.
*/
static int
ray_issue_cmd(sc, ccs, track)
struct ray_softc *sc;
size_t ccs;
u_int track;
{
u_int i;
RAY_DPRINTF(("ray%d: ray_cmd_issue, track = 0x%x\n", sc->unit, track));
RAY_MAP_CM(sc);
/*
* XXX other drivers did this, but I think
* what we really want to do is just make sure we don't
* get here or that spinning is ok
*/
i = 0;
while (!RAY_ECF_READY(sc))
if (++i > 50) {
ray_free_ccs(sc, ccs);
#if XXX_TRACKING
if (track)
ray_cmd_schedule(sc, track);
#endif /* XXX_TRACKING */
return (0);
}
SRAM_WRITE_1(sc, RAY_SCB_CCSI, RAY_CCS_INDEX(ccs));
RAY_ECF_START_CMD(sc);
#if XXX_TRACKING
ray_cmd_ran(sc, track);
#endif /* XXX_TRACKING */
return (1);
}
#if RAY_DEBUG > 10
static void
ray_dump_mbuf(sc, m, s)
struct ray_softc *sc;
struct mbuf *m;
char *s;
{
u_int8_t *d, *ed;
u_int i;
char p[17];
printf("ray%d: %s mbuf dump:", sc->unit, s);
i = 0;
bzero(p, 17);
for (; m; m = m->m_next) {
d = mtod(m, u_int8_t *);
ed = d + m->m_len;
for (; d < ed; i++, d++) {
if ((i % 16) == 0) {
printf(" %s\n\t", p);
} else if ((i % 8) == 0)
printf(" ");
printf(" %02x", *d);
p[i % 16] = ((*d >= 0x20) && (*d < 0x80)) ? *d : '.';
}
}
if ((i - 1) % 16)
printf("%s\n", p);
}
#endif /* RAY_DEBUG > 10 */
/*
* Routines to read from/write to the attribute memory.
*
* Taken from if_xe.c.
*
* Until there is a real way of accessing the attribute memory from a driver
* these have to stay.
*
* The hack to use the crdread/crdwrite device functions causes the attribute
* memory to be remapped into the controller and looses the mapping of
* the common memory.
*
* We cheat by using PIOCSMEM and assume that the common memory window
* is in window 0 of the card structure.
*
* Also
* pccard/pcic.c/crdread does mark the unmapped window as inactive
* pccard/pccard.c/map_mem toggles the mapping of a window on
* successive calls
*
*/
#if RAY_NEED_CM_REMAPPING
static void
ray_attr_getmap (struct ray_softc *sc)
{
struct ucred uc;
struct pcred pc;
struct proc p;
RAY_DPRINTF(("ray%d: attempting to get map for common memory\n", sc->unit));
sc->md.window = 0;
p.p_cred = &pc;
p.p_cred->pc_ucred = &uc;
p.p_cred->pc_ucred->cr_uid = 0;
RAY_DPRINTF((" ioctl returns 0x%0x\n", cdevsw[CARD_MAJOR]->d_ioctl(makedev(CARD_MAJOR, sc->slotnum), PIOCGMEM, (caddr_t)&sc->md, 0, &p)));
RAY_DPRINTF((" flags 0x%02x, start 0x%p, size 0x%08x, card address 0x%lx\n", sc->md.flags, sc->md.start, sc->md.size, sc->md.card));
return;
}
static void
ray_attr_cm (struct ray_softc *sc)
{
struct ucred uc;
struct pcred pc;
struct proc p;
RAY_DPRINTF(("ray%d: attempting to remap common memory\n", sc->unit));
p.p_cred = &pc;
p.p_cred->pc_ucred = &uc;
p.p_cred->pc_ucred->cr_uid = 0;
cdevsw[CARD_MAJOR]->d_ioctl(makedev(CARD_MAJOR, sc->slotnum), PIOCSMEM, (caddr_t)&sc->md, 0, &p);
return;
}
#endif /* RAY_NEED_CM_REMAPPING */
static int
ray_attr_write (struct ray_softc *sc, off_t offset, u_int8_t byte)
{
struct iovec iov;
struct uio uios;
int err;
iov.iov_base = &byte;
iov.iov_len = sizeof(byte);
uios.uio_iov = &iov;
uios.uio_iovcnt = 1;
uios.uio_offset = offset;
uios.uio_resid = sizeof(byte);
uios.uio_segflg = UIO_SYSSPACE;
uios.uio_rw = UIO_WRITE;
uios.uio_procp = 0;
err = cdevsw[CARD_MAJOR]->d_write(makedev(CARD_MAJOR, sc->slotnum), &uios, 0);
#if RAY_NEED_CM_REMAPPING
ray_attr_cm(sc);
#endif /* RAY_NEED_CM_REMAPPING */
return(err);
}
static int
ray_attr_read (struct ray_softc *sc, off_t offset, u_int8_t *buf, int size)
{
struct iovec iov;
struct uio uios;
int err;
iov.iov_base = buf;
iov.iov_len = size;
uios.uio_iov = &iov;
uios.uio_iovcnt = 1;
uios.uio_offset = offset;
uios.uio_resid = size;
uios.uio_segflg = UIO_SYSSPACE;
uios.uio_rw = UIO_READ;
uios.uio_procp = 0;
err = cdevsw[CARD_MAJOR]->d_read(makedev(CARD_MAJOR, sc->slotnum), &uios, 0);
#if RAY_NEED_CM_REMAPPING
ray_attr_cm(sc);
#endif /* RAY_NEED_CM_REMAPPING */
return(err);
}
static u_int8_t
ray_read_reg (sc, reg)
struct ray_softc *sc;
off_t reg;
{
u_int8_t byte;
ray_attr_read(sc, reg, &byte, 1);
return(byte);
}
#if XXX
/*
* Could be replaced by the following macro
* RAY_ECF_READY(sc) (!(REG_READ(sc, RAY_ECFIR) & RAY_ECFIR_IRQ))
* where reg_read is a suitable macro to read a byte in the attribute memory.
*/
static int
ray_ecf_ready(struct ray_softc *sc)
{
u_int8_t byte;
ray_attr_read(sc, RAY_ECFIR, &byte, 1);
return (!(byte & RAY_ECFIR_IRQ));
}
/*
* Could be replaced by the following macro
* RAY_HCS_INTR(sc) (REG_READ(sc, RAY_HCSIR) & RAY_HCSIR_IRQ)
* where reg_read is a suitable macro to read a byte in the attribute memory.
*/
static int
ray_hcs_intr(struct ray_softc *sc)
{
u_int8_t byte;
ray_attr_read(sc, RAY_HCSIR, &byte, 1);
return (byte & RAY_HCSIR_IRQ);
}
#endif
#endif /* NRAY */
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