/* $NetBSD: hpcKbd.c,v 1.4 2005/04/15 21:51:35 nakayama Exp $ */ /* $XConsortium: sunKbd.c,v 5.47 94/08/16 13:45:30 dpw Exp $ */ /*- * Copyright (c) 1987 by the Regents of the University of California * * Permission to use, copy, modify, and distribute this * software and its documentation for any purpose and without * fee is hereby granted, provided that the above copyright * notice appear in all copies. The University of California * makes no representations about the suitability of this * software for any purpose. It is provided "as is" without * express or implied warranty. */ /************************************************************ Copyright 1987 by Sun Microsystems, Inc. Mountain View, CA. All Rights Reserved Permission to use, copy, modify, and distribute this software and its documentation for any purpose and without fee is hereby granted, provided that the above copyright no- tice appear in all copies and that both that copyright no- tice and this permission notice appear in supporting docu- mentation, and that the names of Sun or X Consortium not be used in advertising or publicity pertaining to distribution of the software without specific prior written permission. Sun and X Consortium make no representations about the suitability of this software for any purpose. It is provided "as is" without any express or implied warranty. SUN DISCLAIMS ALL WARRANTIES WITH REGARD TO THIS SOFTWARE, INCLUDING ALL IMPLIED WARRANTIES OF MERCHANTABILITY AND FIT- NESS FOR A PARTICULAR PURPOSE. IN NO EVENT SHALL SUN BE LI- ABLE FOR ANY SPECIAL, INDIRECT OR CONSEQUENTIAL DAMAGES OR ANY DAMAGES WHATSOEVER RESULTING FROM LOSS OF USE, DATA OR PROFITS, WHETHER IN AN ACTION OF CONTRACT, NEGLIGENCE OR OTHER TORTIOUS ACTION, ARISING OUT OF OR IN CONNECTION WITH THE USE OR PERFORMANCE OF THIS SOFTWARE. ********************************************************/ #define NEED_EVENTS #include "hpc.h" #include "keysym.h" #include #include #include #include #include "atKeynames.h" #ifdef XKB #include #include #include #endif #define MOUSE_EMUL_KEY (KEY_Menu + MIN_KEYCODE) /* menu key on windows keyboard */ #define MOUSE_EMUL_KEY1 (KEY_1 + MIN_KEYCODE) #define MOUSE_EMUL_KEY5 (KEY_5 + MIN_KEYCODE) extern KeySymsRec hpcKeySyms[]; extern hpcModmapRec *hpcModMaps[]; static void hpcInitKbdNames(XkbComponentNamesRec *, hpcKbdPrivPtr); static int hpcKbdMuxSaveDevices(struct wsmux_device_list *); static int hpcKbdMuxRestoreDevices(struct wsmux_device_list *); static int hpcKbdMainKeyboardIoctl(hpcKbdPrivPtr); static int hpcKbdMainKeyboardDoIoctl(hpcKbdPrivPtr, const char *); /* * hpcBell -- * Ring the terminal/keyboard bell * * Results: * Ring the keyboard bell for an amount of time proportional to * "loudness." * * Side Effects: * None, really... */ static void hpcBell(percent, device, ctrl, unused) int percent; /* Percentage of full volume */ DeviceIntPtr device; /* Keyboard to ring */ pointer ctrl; int unused; { #if 0 KeybdCtrl* kctrl = (KeybdCtrl*) ctrl; hpcKbdPrivPtr pPriv = (hpcKbdPrivPtr) device->public.devicePrivate; struct wsconsio_bell_data wbd; if (percent == 0 || kctrl->bell == 0) return; wbd.wbd_flags = WSCONSIO_BELLDATA_VOLUME | WSCONSIO_BELLDATA_PITCH | WSCONSIO_BELLDATA_PERIOD; wbd.wbd_volume = percent; wbd.wbd_pitch = kctrl->bell_pitch; wbd.wbd_period = kctrl->bell_duration; if (ioctl (pPriv->fd, WSCONSIO_COMPLEXBELL, &wbd) == -1) { hpcError("Failed to activate bell"); return; } #endif } /* * hpcKbdCtrl -- * Alter some of the keyboard control parameters * * Results: * None. * * Side Effects: * Some... */ static void hpcKbdCtrl(device, ctrl) DeviceIntPtr device; /* Keyboard to alter */ KeybdCtrl* ctrl; { hpcKbdPrivPtr pPriv = (hpcKbdPrivPtr) device->public.devicePrivate; if (pPriv->fd < 0) return; /* Bell info change needs nothing done here. */ } /* * hpcKbdProc -- * Handle the initialization, etc. of a keyboard. * * Results: * None. */ int hpcKbdProc(device, what) DeviceIntPtr device; /* Keyboard to manipulate */ int what; /* What to do to it */ { int i; DevicePtr pKeyboard = (DevicePtr) device; hpcKbdPrivPtr pPriv = &hpcKbdPriv; KeybdCtrl* ctrl = &device->kbdfeed->ctrl; extern int XkbDfltRepeatDelay, XkbDfltRepeatInterval; struct termios tkbdtty; static CARD8 *workingModMap = NULL; static KeySymsRec *workingKeySyms; switch (what) { case DEVICE_INIT: if (pKeyboard != LookupKeyboardDevice()) { hpcErrorF (("Cannot open non-system keyboard\n")); return (!Success); } if (!workingKeySyms) { workingKeySyms = &hpcKeySyms[hpcKbdPriv.type]; #if MIN_KEYCODE > 0 if (workingKeySyms->minKeyCode < MIN_KEYCODE) { workingKeySyms->minKeyCode += MIN_KEYCODE; workingKeySyms->maxKeyCode += MIN_KEYCODE; } #endif if (workingKeySyms->maxKeyCode > MAX_KEYCODE) workingKeySyms->maxKeyCode = MAX_KEYCODE; } if (!workingModMap) { workingModMap=(CARD8 *)xalloc(MAP_LENGTH); (void) memset(workingModMap, 0, MAP_LENGTH); for (i = 0; hpcModMaps[hpcKbdPriv.type][i].key != 0; i++) workingModMap[hpcModMaps[hpcKbdPriv.type][i].key + MIN_KEYCODE] = hpcModMaps[hpcKbdPriv.type][i].modifiers; } (void) memset ((void *) defaultKeyboardControl.autoRepeats, ~0, sizeof defaultKeyboardControl.autoRepeats); #if 0 /* XXX */ #ifdef XKB if (noXkbExtension) { hpcAutoRepeatInitiate = XkbDfltRepeatDelay * 1000; hpcAutoRepeatDelay = XkbDfltRepeatInterval * 1000; #endif autoRepeatKeyDown = 0; #ifdef XKB } #endif #endif /* 0 XXX */ pKeyboard->devicePrivate = (pointer)&hpcKbdPriv; pKeyboard->on = FALSE; #ifndef XKB InitKeyboardDeviceStruct(pKeyboard, workingKeySyms, workingModMap, hpcBell, hpcKbdCtrl); #else if (noXkbExtension || pPriv->devtype == HPC_KBDDEV_WSMUX || pPriv->devtype == HPC_KBDDEV_WSKBD) { /* * When using wskbd and its multiplexer, keysyms are * already converted from WSKBDIO_GETMAP ioctl. */ InitKeyboardDeviceStruct(pKeyboard, workingKeySyms, workingModMap, hpcBell, hpcKbdCtrl); } else { XkbComponentNamesRec names; hpcInitKbdNames(&names, &hpcKbdPriv); XkbInitKeyboardDeviceStruct((DeviceIntPtr)pKeyboard, &names, workingKeySyms, workingModMap, hpcBell, hpcKbdCtrl); } #endif break; case DEVICE_ON: if (!hpcKbdPriv.bedev) { hpcKbdPriv.bedev = (hpcPtrPrivPtr)(((DeviceIntPtr) LookupPointerDevice())->public.devicePrivate); if (hpcKbdPriv.bedev) hpcKbdPriv.bedev->bedev = &hpcKbdPriv; } hpcKbdPriv.bkeydown = 0; hpcKbdPriv.bkeymask = 0; hpcKbdPriv.bkeynrmask = 0; switch (pPriv->devtype) { case HPC_KBDDEV_RAW: pPriv->xlatestat = HPC_KBDXSTAT_INIT; if (ioctl(pPriv->fd, KDSKBMODE, K_RAW) < 0) { hpcFatalError(("Can't set keyboard mode\n")); } tcgetattr(pPriv->fd, &pPriv->kbdtty); tkbdtty = pPriv->kbdtty; tkbdtty.c_iflag = IGNPAR | IGNBRK; tkbdtty.c_oflag = 0; tkbdtty.c_cflag = CREAD | CS8; tkbdtty.c_lflag = 0; tkbdtty.c_cc[VTIME] = 0; tkbdtty.c_cc[VMIN] = 1; cfsetispeed(&tkbdtty, 9600); cfsetospeed(&tkbdtty, 9600); tcsetattr(pPriv->fd, TCSANOW, &tkbdtty); break; case HPC_KBDDEV_WSKBD: case HPC_KBDDEV_WSMUX: break; } hpcCleanupFd(pPriv->fd); AddEnabledDevice(pPriv->fd); pKeyboard->on = TRUE; break; case DEVICE_CLOSE: case DEVICE_OFF: RemoveEnabledDevice(pPriv->fd); pKeyboard->on = FALSE; switch (pPriv->devtype) { case HPC_KBDDEV_RAW: if (ioctl(pPriv->fd, KDSKBMODE, K_XLATE) < 0) { hpcError("Can't set keyboard mode\n"); } tcsetattr(pPriv->fd, TCSANOW, &pPriv->kbdtty); break; case HPC_KBDDEV_WSKBD: case HPC_KBDDEV_WSMUX: break; } break; default: hpcFatalError(("Unknown keyboard operation\n")); } return Success; } /* * hpcKbdGetEvents -- * Return the events waiting in the wings for the given keyboard. * * Results: * A pointer to an array of hpcEvents or (hpcEvent *)0 if no events * The number of events contained in the array. * A boolean as to whether more events might be available. * * Side Effects: * None. */ hpcEvent* hpcKbdGetEvents(pPriv, pNumEvents, pAgain) hpcKbdPrivPtr pPriv; int* pNumEvents; Bool* pAgain; { int fd; int nBytes; /* number of bytes of events available. */ struct timeval tv; u_char c, c2; static hpcEvent evBuf[MAXEVENTS]; /* Buffer for hpcEvents */ fd = pPriv->fd; AGAIN: switch (pPriv->devtype) { case HPC_KBDDEV_RAW: if (read(fd, &c, 1) < 0) { if (errno == EWOULDBLOCK) { *pNumEvents = 0; *pAgain = FALSE; } else { hpcError ("Reading keyboard"); hpcFatalError (("Could not read the keyboard")); } } else { *pAgain = TRUE; *pNumEvents = 0; switch (pPriv->xlatestat) { case HPC_KBDXSTAT_INIT: if (c == KBR_EXTENDED0) { pPriv->xlatestat = HPC_KBDXSTAT_EXT0; goto AGAIN; } else if (c == KBR_EXTENDED1) { pPriv->xlatestat = HPC_KBDXSTAT_EXT1; goto AGAIN; } else { switch (c & 0x7f) { case 0x59: c2 = KEY_0x59; break; case 0x5a: c2 = KEY_0x5A; break; case 0x5b: c2 = KEY_0x5B; break; case 0x5c: c2 = KEY_KP_Equal; break; /* Keypad Equal */ case 0x5d: c2 = KEY_0x5D; break; case 0x5e: c2 = KEY_0x5E; break; case 0x5f: c2 = KEY_0x5F; break; case 0x62: c2 = KEY_0x62; break; case 0x63: c2 = KEY_0x63; break; case 0x64: c2 = KEY_0x64; break; case 0x65: c2 = KEY_0x65; break; case 0x66: c2 = KEY_0x66; break; case 0x67: c2 = KEY_0x67; break; case 0x68: c2 = KEY_0x68; break; case 0x69: c2 = KEY_0x69; break; case 0x6a: c2 = KEY_0x6A; break; case 0x6b: c2 = KEY_0x6B; break; case 0x6c: c2 = KEY_0x6C; break; case 0x6d: c2 = KEY_0x6D; break; case 0x6e: c2 = KEY_0x6E; break; case 0x6f: c2 = KEY_0x6F; break; case 0x70: c2 = KEY_0x70; break; case 0x71: c2 = KEY_0x71; break; case 0x72: c2 = KEY_0x72; break; case 0x73: c2 = KEY_0x73; break; case 0x74: c2 = KEY_0x74; break; case 0x75: c2 = KEY_0x75; break; case 0x76: c2 = KEY_0x76; break; default: c2 = c & 0x7f; break; } *pNumEvents = 1; evBuf[0].value = c2; evBuf[0].type = (c & 0x80) ? WSCONS_EVENT_KEY_UP : WSCONS_EVENT_KEY_DOWN; TIMEVAL_TO_TIMESPEC(&tv, &evBuf[0].time); return evBuf; } break; case HPC_KBDXSTAT_EXT0: /* * extended scan codes are mapped to 0x80~0x95 * see xf86PostKbdEvent() in * Xserver/hw/xfree86/common/xf86Events.c */ switch (c & 0x7f) { case KEY_KP_7: c2 = KEY_Home; break; case KEY_KP_8: c2 = KEY_Up; break; case KEY_KP_9: c2 = KEY_PgUp; break; case KEY_KP_4: c2 = KEY_Left; break; case KEY_KP_5: c2 = KEY_Begin; break; case KEY_KP_6: c2 = KEY_Right; break; case KEY_KP_1: c2 = KEY_End; break; case KEY_KP_2: c2 = KEY_Down; break; case KEY_KP_3: c2 = KEY_PgDown; break; case KEY_KP_0: c2 = KEY_Insert; break; case KEY_KP_Decimal: c2 = KEY_Delete; break; case KEY_Enter: c2 = KEY_KP_Enter; break; case KEY_LCtrl: c2 = KEY_RCtrl; break; case KEY_KP_Multiply: c2 = KEY_Print; break; case KEY_Slash: c2 = KEY_KP_Divide; break; case KEY_Alt: c2 = KEY_AltLang; break; case KEY_ScrollLock: c2 = KEY_Break; break; case 0x5b: c2 = KEY_LMeta; break; case 0x5c: c2 = KEY_RMeta; break; case 0x5d: c2 = KEY_Menu; break; case KEY_F3: c2 = KEY_F13; break; case KEY_F4: c2 = KEY_F14; break; case KEY_F5: c2 = KEY_F15; break; case KEY_F6: c2 = KEY_F16; break; case KEY_F7: c2 = KEY_F17; break; case KEY_KP_Plus: c2 = KEY_KP_DEC; break; /* * Ignore virtual shifts (E0 2A, E0 AA, E0 36, E0 B6) */ default: pPriv->xlatestat = HPC_KBDXSTAT_INIT; return; /* skip illegal */ } *pNumEvents = 1; evBuf[0].value = c2; pPriv->xlatestat = HPC_KBDXSTAT_INIT; break; case HPC_KBDXSTAT_EXT1: if (c == 0x1d) { pPriv->xlatestat = HPC_KBDXSTAT_EXT1_1D; goto AGAIN; } else if (c == 0x9d) { pPriv->xlatestat = HPC_KBDXSTAT_EXT1_9D; goto AGAIN; } else { hpcErrorF(("hpcKbdGetEvents: unexpected input" " %02x, stat=%d", c, pPriv->xlatestat)); pPriv->xlatestat = HPC_KBDXSTAT_INIT; goto AGAIN; } break; case HPC_KBDXSTAT_EXT1_1D: case HPC_KBDXSTAT_EXT1_9D: if (c == 0x45 || c == (0x45 | 0x80)) { *pNumEvents = 1; evBuf[0].value = KEY_Break; pPriv->xlatestat = HPC_KBDXSTAT_INIT; } else { hpcErrorF(("hpcKbdGetEvents: unexpected input %02x, stat=%d", c, pPriv->xlatestat)); pPriv->xlatestat = HPC_KBDXSTAT_INIT; goto AGAIN; } break; default: hpcFatalError(("hpcKbdGetEvents: invalid xlate status")); break; } if (*pNumEvents != 0) { gettimeofday(&tv, NULL); evBuf[0].type = (c & 0x80) ? WSCONS_EVENT_KEY_UP : WSCONS_EVENT_KEY_DOWN; TIMEVAL_TO_TIMESPEC(&tv, &evBuf[0].time); } } break; case HPC_KBDDEV_WSKBD: case HPC_KBDDEV_WSMUX: if ((nBytes = read(fd, evBuf, sizeof(evBuf))) == -1) { if (errno == EWOULDBLOCK) { *pNumEvents = 0; *pAgain = FALSE; } else { hpcError ("Reading keyboard"); hpcFatalError (("Could not read the keyboard")); } } else { *pNumEvents = nBytes / sizeof (hpcEvent); *pAgain = (nBytes == sizeof (evBuf)); } break; } return evBuf; } /* * hpcKbdEnqueueEvent -- */ void hpcKbdEnqueueEvent (device, fe) DeviceIntPtr device; hpcEvent *fe; { xEvent xE; BYTE keycode; CARD8 keyModifiers; hpcKbdPrivPtr pPriv; hpcPtrPrivPtr ptrPriv; Bool skipKeyEvent; pPriv = (hpcKbdPrivPtr)device->public.devicePrivate; ptrPriv = pPriv->bedev; skipKeyEvent = FALSE; keycode = (fe->value & 0xff) + MIN_KEYCODE; keyModifiers = device->key->modifierMap[keycode]; #if 0 /* XXX */ #ifdef XKB if (noXkbExtension) { #endif if (autoRepeatKeyDown && (keyModifiers == 0) && ((fe->value == VKEY_DOWN) || (keycode == autoRepeatEvent.u.u.detail))) { /* * Kill AutoRepeater on any real non-modifier key down, or auto key up */ autoRepeatKeyDown = 0; } #ifdef XKB } #endif #endif /* 0 XXX */ xE.u.keyButtonPointer.time = TSTOMILLI(fe->time); xE.u.u.type = ((fe->type == WSCONS_EVENT_KEY_UP) ? KeyRelease : KeyPress); xE.u.u.detail = keycode; if (ptrPriv != NULL) { if (fe->type == WSCONS_EVENT_KEY_UP) { if (keycode == MOUSE_EMUL_KEY) { pPriv->bkeydown = 0; skipKeyEvent = 1; if (!ptrPriv->ebdown && ptrPriv->bemask) { xEvent xbE; int button; xbE.u.u.type = ButtonRelease; while ((button = ffs(ptrPriv->bemask) - 1) > 0) { ptrPriv->bemask &= ~(1 << button); xbE.u.u.detail = button; mieqEnqueue (&xbE); } } } else if (MOUSE_EMUL_KEY1 <= keycode && keycode <= MOUSE_EMUL_KEY5) { int button = keycode - 0x0a + 1; int bmask = 1 << button; if (pPriv->bkeynrmask & bmask) skipKeyEvent = 1; pPriv->bkeymask &= ~bmask; if (pPriv->bkeydown && ptrPriv->ebdown) { ptrPriv->bemask &= ~bmask; if (!(ptrPriv->brmask & bmask)) { xEvent xbE; xbE.u.u.type = ButtonRelease; xbE.u.u.detail = button; mieqEnqueue (&xbE); } } } } else { /* WSCONS_EVENT_KEY_DOWN */ if (keycode == MOUSE_EMUL_KEY) { pPriv->bkeydown = 1; skipKeyEvent = 1; if (ptrPriv->ebdown && pPriv->bkeymask) { xEvent xbE; int button; xbE.u.u.type = ButtonPress; while ((button = ffs(pPriv->bkeymask & ~ptrPriv->bemask) - 1) > 0) { ptrPriv->bemask &= ~(1 << button); xbE.u.u.detail = button; mieqEnqueue (&xbE); } } } else if (MOUSE_EMUL_KEY1 <= keycode && keycode <= MOUSE_EMUL_KEY5) { int button = keycode - 0x0a + 1; int bmask = 1 << button; if (pPriv->bkeydown) { pPriv->bkeynrmask |= bmask; pPriv->bkeymask |= bmask; skipKeyEvent = 1; if (ptrPriv->ebdown && !(ptrPriv->bemask & bmask)) { ptrPriv->bemask |= bmask; if (!(ptrPriv->brmask & bmask)) { xEvent xbE; xbE.u.u.type = ButtonPress; xbE.u.u.detail = button; mieqEnqueue (&xbE); } } } else if (pPriv->bkeynrmask & bmask) pPriv->bkeynrmask &= ~bmask; } } if (skipKeyEvent) return; } /* ptrPriv != NULL */ #if 0 /* XXX */ #ifdef XKB if (noXkbExtension) { #endif if (DoSpecialKeys(device, &xE, fe)) return; #ifdef XKB } #endif /* ! XKB */ #endif /* 0 XXX */ mieqEnqueue (&xE); } /*ARGSUSED*/ Bool LegalModifier(key, pDev) unsigned int key; DevicePtr pDev; { return TRUE; } /*- *----------------------------------------------------------------------- * hpcInitKbdNames -- * Handle the XKB initialization * * Results: * None. * * Comments: *----------------------------------------------------------------------- */ #ifdef XKB static void hpcInitKbdNames (XkbComponentNamesRec* names, hpcKbdPrivPtr pKbd) { #ifndef XKBBUFSIZE #define XKBBUFSIZE 64 #endif static char keycodesbuf[XKBBUFSIZE]; static char geometrybuf[XKBBUFSIZE]; static char symbolsbuf[XKBBUFSIZE]; names->keymap = NULL; names->compat = "compat/complete"; names->types = "types/complete"; names->keycodes = keycodesbuf; names->geometry = geometrybuf; names->symbols = symbolsbuf; strcpy(keycodesbuf, "keycodes/"); strcpy(geometrybuf, "geometry/"); strcpy(symbolsbuf, "symbols/"); /* keycodes & geometry */ switch (KB_ENCODING(pKbd->encode)) { case KB_DE: strcat(names->keycodes, "xfree86"); strcat(names->geometry, "pc(pc102)"); strcat(names->symbols, "en_US(pc105)+de"); hpcPrintF(("keymap: en_US(pc105)+de\n")); break; case KB_FR: strcat(names->keycodes, "xfree86"); strcat(names->geometry, "pc(pc102)"); strcat(names->symbols, "en_US(pc105)+fr"); hpcPrintF(("keymap: en_US(pc105)+fr\n")); break; case KB_JP: strcat(names->keycodes, "xfree86(jp106)"); strcat(names->geometry, "pc(jp106)"); strcat(names->symbols, "jp(jp106)"); hpcPrintF(("keymap: jp(jp106)\n")); break; case KB_PT: strcat(names->keycodes, "xfree86"); strcat(names->geometry, "pc(pc102)"); strcat(names->symbols, "en_US(pc105)+pt"); hpcPrintF(("keymap: en_US(pc105)+pt\n")); break; case KB_US: default: strcat(names->keycodes, "xfree86"); strcat(names->geometry, "pc"); strcat(names->symbols, "us(pc105)"); hpcPrintF(("keymap: us(pc105)\n")); break; } if (pKbd->encode & KB_SWAPCTRLCAPS) strcat(names->symbols, "+ctrl(swapcaps)"); } #endif /* XKB */ /* * Inquire built-in keyboard encoding type and keymap. */ void hpcKbdGetInfo(hpcKbdPrivPtr pPriv) { struct wsmux_device_list devlist; /* try to open multiplexer */ if (hpcKbdMuxSaveDevices(&devlist) == 0) { pPriv->multiplexer = TRUE; hpcKbdMainKeyboardIoctl(pPriv); hpcKbdMuxRestoreDevices(&devlist); } else { pPriv->multiplexer = FALSE; hpcKbdMainKeyboardIoctl(pPriv); } } /* * Save attached device of mulitiplexer to devlist. */ int hpcKbdMuxSaveDevices(struct wsmux_device_list *devlist) { struct wsmux_device *dev; int i, fd; if ((fd = open("/dev/wskbd", O_RDWR)) == -1) { hpcPrintF(("can't open /dev/wskbd multiplexer (not fatal)")); return 1; } if (ioctl(fd, WSMUXIO_LIST_DEVICES, devlist) == -1) { hpcPrintF(("can't WSMUXIO_LIST_DEVICES (not fatal)")); close(fd); return 1; } close(fd); return 0; } int hpcKbdMuxRestoreDevices(struct wsmux_device_list *odevlist) { struct wsmux_device_list devlist; struct wsmux_device *odev, *dev; int fd, i, j, n; /* Get current list */ if (hpcKbdMuxSaveDevices(&devlist) != 0) return 1; fd = open("/dev/wskbd", O_RDWR); /* Compare old list, if find detatched device, reconnect again. */ n = devlist.ndevices; for (odev = odevlist->devices, i = 0; i < odevlist->ndevices; i++, odev++) { for (dev = devlist.devices, j = 0; j < n; j++, dev++) if (dev->type == odev->type && dev->idx == odev->idx) break; if (j != n) continue; if (ioctl(fd, WSMUXIO_ADD_DEVICE, odev) == -1) { hpcPrintF(("failed to add type %d idx %d\n", odev->type, odev->idx)); } } close(fd); } int hpcKbdMainKeyboardIoctl(hpcKbdPrivPtr pPriv) { char device[16]; int i; if (pPriv->multiplexer) { /* find builtin-keyboard */ for (i = 0; i < 8; i++) { sprintf(device, "/dev/wskbd%d", i); if (hpcKbdMainKeyboardDoIoctl(pPriv, device) == 0) break; } } else { hpcKbdMainKeyboardDoIoctl(pPriv, pPriv->devname); } if (pPriv->encode == 0) pPriv->encode = KB_USER; } int hpcKbdMainKeyboardDoIoctl(hpcKbdPrivPtr pPriv, const char *device) { extern int XkbDfltRepeatDelay, XkbDfltRepeatInterval; struct wskbd_keyrepeat_data keyrepeat; int fd; kbd_t kbdencoding = 0; u_int kbdtype; if ((fd = open(device, O_RDWR)) == -1) return 1; if (ioctl(fd, WSKBDIO_GTYPE, &kbdtype) == -1) { hpcErrorF(("can't get keyboard type.\n")); close(fd); return 1; } if (ioctl(fd, WSKBDIO_GETKEYREPEAT, &keyrepeat) == -1) { hpcErrorF(("can't get keyrepeat configuration. (not fatal)\n")); } else { XkbDfltRepeatDelay = keyrepeat.del1; XkbDfltRepeatInterval = keyrepeat.delN; hpcPrintF(("key repeat: %d/%d ms.\n", XkbDfltRepeatDelay, XkbDfltRepeatInterval)); } if (ioctl(fd, WSKBDIO_GETENCODING, &kbdencoding) != -1) { pPriv->encode = kbdencoding; } else { hpcErrorF(("can't get keyboard encoding. (not fatal)\n")); } switch (kbdtype) { default: hpcErrorF(("unsupported keyboard type %d.\n", kbdtype)); break; case WSKBD_TYPE_USB: hpcErrorF(("USB keyboard.\n")); /* FALLTHROUGH */ case WSKBD_TYPE_HPC_KBD: if (pPriv->devtype == HPC_KBDDEV_WSMUX || pPriv->devtype == HPC_KBDDEV_WSKBD) hpcKeymapConvertWssymToXsym(fd); break; } close(fd); return 0; }