/************************************************************ Copyright 1987, 1998 The Open Group Permission to use, copy, modify, distribute, and sell this software and its documentation for any purpose is hereby granted without fee, provided that the above copyright notice appear in all copies and that both that copyright notice and this permission notice appear in supporting documentation. The above copyright notice and this permission notice shall be included in all copies or substantial portions of the Software. THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL THE OPEN GROUP BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE SOFTWARE. Except as contained in this notice, the name of The Open Group shall not be used in advertising or otherwise to promote the sale, use or other dealings in this Software without prior written authorization from The Open Group. Copyright 1987 by Digital Equipment Corporation, Maynard, Massachusetts. 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 notice appear in all copies and that both that copyright notice and this permission notice appear in supporting documentation, and that the name of Digital not be used in advertising or publicity pertaining to distribution of the software without specific, written prior permission. DIGITAL DISCLAIMS ALL WARRANTIES WITH REGARD TO THIS SOFTWARE, INCLUDING ALL IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS, IN NO EVENT SHALL DIGITAL BE LIABLE 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. ********************************************************/ #ifdef HAVE_DIX_CONFIG_H #include #endif #include #include "misc.h" #include "resource.h" #define NEED_EVENTS #define NEED_REPLIES #include #include #include "windowstr.h" #include "inputstr.h" #include "scrnintstr.h" #include "cursorstr.h" #include "dixstruct.h" #include "ptrveloc.h" #include "site.h" #ifndef XKB_IN_SERVER #define XKB_IN_SERVER #endif #ifdef XKB #include #endif #include "privates.h" #include "xace.h" #include "mi.h" #include "dispatch.h" #include "swaprep.h" #include "dixevents.h" #include "mipointer.h" #include #include #include "exglobals.h" #include "exevents.h" #include "listdev.h" /* for CopySwapXXXClass */ #include "xiproperty.h" #include "enterleave.h" /* for EnterWindow() */ #include "xserver-properties.h" /** @file * This file handles input device-related stuff. */ static int CoreDevicePrivateKeyIndex; DevPrivateKey CoreDevicePrivateKey = &CoreDevicePrivateKeyIndex; /* Used to sture classes currently not in use by an MD */ static int UnusedClassesPrivateKeyIndex; DevPrivateKey UnusedClassesPrivateKey = &UnusedClassesPrivateKeyIndex; /** * DIX property handler. */ static int DeviceSetProperty(DeviceIntPtr dev, Atom property, XIPropertyValuePtr prop, BOOL checkonly) { if (property == XIGetKnownProperty(XI_PROP_ENABLED)) { if (prop->format != 8 || prop->type != XA_INTEGER || prop->size != 1) return BadValue; /* Don't allow disabling of VCP/VCK */ if ((dev == inputInfo.pointer || dev == inputInfo.keyboard) && !(*(CARD8*)prop->data)) return BadAccess; if (!checkonly) { if ((*((CARD8*)prop->data)) && !dev->enabled) EnableDevice(dev); else if (!(*((CARD8*)prop->data)) && dev->enabled) DisableDevice(dev); } } return Success; } /* Pair the keyboard to the pointer device. Keyboard events will follow the * pointer sprite. Only applicable for master devices. * If the client is set, the request to pair comes from some client. In this * case, we need to check for access. If the client is NULL, it's from an * internal automatic pairing, we must always permit this. */ static int PairDevices(ClientPtr client, DeviceIntPtr ptr, DeviceIntPtr kbd) { if (!ptr) return BadDevice; /* Don't allow pairing for slave devices */ if (!ptr->isMaster || !kbd->isMaster) return BadDevice; if (ptr->spriteInfo->paired) return BadDevice; if (kbd->spriteInfo->spriteOwner) { xfree(kbd->spriteInfo->sprite); kbd->spriteInfo->sprite = NULL; kbd->spriteInfo->spriteOwner = FALSE; } kbd->spriteInfo->sprite = ptr->spriteInfo->sprite; kbd->spriteInfo->paired = ptr; ptr->spriteInfo->paired = kbd; return Success; } /** * Find and return the next unpaired MD pointer device. */ static DeviceIntPtr NextFreePointerDevice(void) { DeviceIntPtr dev; for (dev = inputInfo.devices; dev; dev = dev->next) if (dev->isMaster && dev->spriteInfo->spriteOwner && !dev->spriteInfo->paired) return dev; return NULL; } /** * Create a new input device and init it to sane values. The device is added * to the server's off_devices list. * * @param deviceProc Callback for device control function (switch dev on/off). * @return The newly created device. */ DeviceIntPtr AddInputDevice(ClientPtr client, DeviceProc deviceProc, Bool autoStart) { DeviceIntPtr dev, *prev; /* not a typo */ DeviceIntPtr devtmp; int devid; char devind[MAXDEVICES]; BOOL enabled; /* Find next available id */ memset(devind, 0, sizeof(char)*MAXDEVICES); for (devtmp = inputInfo.devices; devtmp; devtmp = devtmp->next) devind[devtmp->id]++; for (devtmp = inputInfo.off_devices; devtmp; devtmp = devtmp->next) devind[devtmp->id]++; for (devid = 0; devid < MAXDEVICES && devind[devid]; devid++) ; if (devid >= MAXDEVICES) return (DeviceIntPtr)NULL; dev = xcalloc(sizeof(DeviceIntRec) + sizeof(SpriteInfoRec), 1); if (!dev) return (DeviceIntPtr)NULL; dev->id = devid; dev->public.processInputProc = (ProcessInputProc)NoopDDA; dev->public.realInputProc = (ProcessInputProc)NoopDDA; dev->public.enqueueInputProc = EnqueueEvent; dev->deviceProc = deviceProc; dev->startup = autoStart; /* device grab defaults */ dev->deviceGrab.grabTime = currentTime; dev->coreEvents = TRUE; /* sprite defaults */ dev->spriteInfo = (SpriteInfoPtr)&dev[1]; /* security creation/labeling check */ if (XaceHook(XACE_DEVICE_ACCESS, client, dev, DixCreateAccess)) { xfree(dev); return NULL; } inputInfo.numDevices++; for (prev = &inputInfo.off_devices; *prev; prev = &(*prev)->next) ; *prev = dev; dev->next = NULL; enabled = FALSE; XIChangeDeviceProperty(dev, XIGetKnownProperty(XI_PROP_ENABLED), XA_INTEGER, 8, PropModeReplace, 1, &enabled, FALSE); XISetDevicePropertyDeletable(dev, XIGetKnownProperty(XI_PROP_ENABLED), FALSE); XIRegisterPropertyHandler(dev, DeviceSetProperty, NULL, NULL); return dev; } /** * Enable the device through the driver, add the device to the device list. * Switch device ON through the driver and push it onto the global device * list. Initialize the DIX sprite or pair the device. All clients are * notified about the device being enabled. * * A master pointer device needs to be enabled before a master keyboard * device. * * @param The device to be enabled. * @return TRUE on success or FALSE otherwise. */ Bool EnableDevice(DeviceIntPtr dev) { DeviceIntPtr *prev; int ret; DeviceIntRec dummyDev; DeviceIntPtr other; devicePresenceNotify ev; int namelen = 0; /* dummy */ int evsize = sizeof(xEvent); int listlen; EventListPtr evlist; BOOL enabled; for (prev = &inputInfo.off_devices; *prev && (*prev != dev); prev = &(*prev)->next) ; if (!dev->spriteInfo->sprite) { if (dev->isMaster) { /* Sprites appear on first root window, so we can hardcode it */ if (dev->spriteInfo->spriteOwner) { InitializeSprite(dev, WindowTable[0]); /* mode doesn't matter */ EnterWindow(dev, WindowTable[0], NotifyAncestor); } else if ((other = NextFreePointerDevice()) == NULL) { ErrorF("[dix] cannot find pointer to pair with. " "This is a bug.\n"); return FALSE; } else PairDevices(NULL, other, dev); } else { other = (IsPointerDevice(dev)) ? inputInfo.pointer : inputInfo.keyboard; AttachDevice(NULL, dev, other); } } /* Before actually enabling the device, we need to make sure the event * list's events have enough memory for a ClassesChangedEvent from the * device */ SizeDeviceInfo(dev, &namelen, &evsize); listlen = GetEventList(&evlist); OsBlockSignals(); SetMinimumEventSize(evlist, listlen, evsize); mieqResizeEvents(evsize); OsReleaseSignals(); if ((*prev != dev) || !dev->inited || ((ret = (*dev->deviceProc)(dev, DEVICE_ON)) != Success)) { ErrorF("[dix] couldn't enable device %d\n", dev->id); return FALSE; } dev->enabled = TRUE; *prev = dev->next; for (prev = &inputInfo.devices; *prev; prev = &(*prev)->next) ; *prev = dev; dev->next = NULL; enabled = TRUE; XIChangeDeviceProperty(dev, XIGetKnownProperty(XI_PROP_ENABLED), XA_INTEGER, 8, PropModeReplace, 1, &enabled, TRUE); ev.type = DevicePresenceNotify; ev.time = currentTime.milliseconds; ev.devchange = DeviceEnabled; ev.deviceid = dev->id; dummyDev.id = MAXDEVICES; SendEventToAllWindows(&dummyDev, DevicePresenceNotifyMask, (xEvent *) &ev, 1); return TRUE; } /** * Switch a device off through the driver and push it onto the off_devices * list. A device will not send events while disabled. All clients are * notified about the device being disabled. * * Master keyboard devices have to be disabled before master pointer devices * otherwise things turn bad. * * @return TRUE on success or FALSE otherwise. */ Bool DisableDevice(DeviceIntPtr dev) { DeviceIntPtr *prev, other; DeviceIntRec dummyDev; devicePresenceNotify ev; BOOL enabled; for (prev = &inputInfo.devices; *prev && (*prev != dev); prev = &(*prev)->next) ; if (*prev != dev) return FALSE; /* float attached devices */ if (dev->isMaster) { for (other = inputInfo.devices; other; other = other->next) { if (other->u.master == dev) AttachDevice(NULL, other, NULL); } } else { for (other = inputInfo.devices; other; other = other->next) { if (other->isMaster && other->u.lastSlave == dev) other->u.lastSlave = NULL; } } if (dev->isMaster && dev->spriteInfo->sprite) { for (other = inputInfo.devices; other; other = other->next) { if (other->spriteInfo->paired == dev) { ErrorF("[dix] cannot disable device, still paired. " "This is a bug. \n"); return FALSE; } } } (void)(*dev->deviceProc)(dev, DEVICE_OFF); dev->enabled = FALSE; *prev = dev->next; dev->next = inputInfo.off_devices; inputInfo.off_devices = dev; enabled = FALSE; XIChangeDeviceProperty(dev, XIGetKnownProperty(XI_PROP_ENABLED), XA_INTEGER, 8, PropModeReplace, 1, &enabled, TRUE); ev.type = DevicePresenceNotify; ev.time = currentTime.milliseconds; ev.devchange = DeviceDisabled; ev.deviceid = dev->id; dummyDev.id = MAXDEVICES; SendEventToAllWindows(&dummyDev, DevicePresenceNotifyMask, (xEvent *) &ev, 1); return TRUE; } /** * Initialise a new device through the driver and tell all clients about the * new device. * * Must be called before EnableDevice. * The device will NOT send events until it is enabled! * * @return Success or an error code on failure. */ int ActivateDevice(DeviceIntPtr dev) { int ret = Success; devicePresenceNotify ev; DeviceIntRec dummyDev; ScreenPtr pScreen = screenInfo.screens[0]; if (!dev || !dev->deviceProc) return BadImplementation; ret = (*dev->deviceProc) (dev, DEVICE_INIT); dev->inited = (ret == Success); /* Initialize memory for sprites. */ if (dev->isMaster && dev->spriteInfo->spriteOwner) pScreen->DeviceCursorInitialize(dev, pScreen); ev.type = DevicePresenceNotify; ev.time = currentTime.milliseconds; ev.devchange = DeviceAdded; ev.deviceid = dev->id; memset(&dummyDev, 0, sizeof(DeviceIntRec)); dummyDev.id = MAXDEVICES; SendEventToAllWindows(&dummyDev, DevicePresenceNotifyMask, (xEvent *) &ev, 1); return ret; } /** * Ring the bell. * The actual task of ringing the bell is the job of the DDX. */ static void CoreKeyboardBell(int volume, DeviceIntPtr pDev, pointer arg, int something) { KeybdCtrl *ctrl = arg; DDXRingBell(volume, ctrl->bell_pitch, ctrl->bell_duration); } static void CoreKeyboardCtl(DeviceIntPtr pDev, KeybdCtrl *ctrl) { return; } /** * Device control function for the Virtual Core Keyboard. */ static int CoreKeyboardProc(DeviceIntPtr pDev, int what) { CARD8 *modMap; KeySymsRec keySyms; #ifdef XKB XkbComponentNamesRec names; #endif ClassesPtr classes; switch (what) { case DEVICE_INIT: if (!(classes = xcalloc(1, sizeof(ClassesRec)))) { ErrorF("[dix] Could not allocate device classes.\n"); return BadAlloc; } keySyms.minKeyCode = 8; keySyms.maxKeyCode = 255; keySyms.mapWidth = 4; keySyms.map = (KeySym *)xcalloc(sizeof(KeySym), (keySyms.maxKeyCode - keySyms.minKeyCode + 1) * keySyms.mapWidth); if (!keySyms.map) { ErrorF("[dix] Couldn't allocate core keymap\n"); xfree(classes); return BadAlloc; } modMap = xcalloc(1, MAP_LENGTH); if (!modMap) { ErrorF("[dix] Couldn't allocate core modifier map\n"); xfree(classes); return BadAlloc; } #ifdef XKB if (!noXkbExtension) { bzero(&names, sizeof(names)); XkbSetRulesDflts("base", "pc105", "us", NULL, NULL); XkbInitKeyboardDeviceStruct(pDev, &names, &keySyms, modMap, CoreKeyboardBell, CoreKeyboardCtl); } else #endif { /* FIXME Our keymap here isn't exactly useful. */ InitKeyboardDeviceStruct((DevicePtr)pDev, &keySyms, modMap, CoreKeyboardBell, CoreKeyboardCtl); } xfree(keySyms.map); xfree(modMap); break; case DEVICE_CLOSE: break; default: break; } return Success; } /** * Device control function for the Virtual Core Pointer. * * Aside from initialisation, it backs up the original device classes into the * devicePrivates. This only needs to be done for master devices. */ static int CorePointerProc(DeviceIntPtr pDev, int what) { BYTE map[33]; int i = 0; ClassesPtr classes; switch (what) { case DEVICE_INIT: if (!(classes = xcalloc(1, sizeof(ClassesRec)))) return BadAlloc; for (i = 1; i <= 32; i++) map[i] = i; InitPointerDeviceStruct((DevicePtr)pDev, map, 32, (PtrCtrlProcPtr)NoopDDA, GetMotionHistorySize(), 2); pDev->valuator->axisVal[0] = screenInfo.screens[0]->width / 2; pDev->last.valuators[0] = pDev->valuator->axisVal[0]; pDev->valuator->axisVal[1] = screenInfo.screens[0]->height / 2; pDev->last.valuators[1] = pDev->valuator->axisVal[1]; break; case DEVICE_CLOSE: break; default: break; } return Success; } /** * Initialise the two core devices, VCP and VCK (see events.c). * Both devices are not tied to physical devices, but guarantee that there is * always a keyboard and a pointer present and keep the protocol semantics. * * Note that the server MUST have two core devices at all times, even if there * is no physical device connected. */ void InitCoreDevices(void) { if (AllocMasterDevice(serverClient, "Virtual core", &inputInfo.pointer, &inputInfo.keyboard) != Success) FatalError("Failed to allocate core devices"); ActivateDevice(inputInfo.pointer); ActivateDevice(inputInfo.keyboard); EnableDevice(inputInfo.pointer); EnableDevice(inputInfo.keyboard); } /** * Activate all switched-off devices and then enable all those devices. * * Will return an error if no core keyboard or core pointer is present. * In theory this should never happen if you call InitCoreDevices() first. * * InitAndStartDevices needs to be called AFTER the windows are initialized. * Devices will start sending events after InitAndStartDevices() has * completed. * * @return Success or error code on failure. */ int InitAndStartDevices() { DeviceIntPtr dev, next; for (dev = inputInfo.off_devices; dev; dev = dev->next) { DebugF("(dix) initialising device %d\n", dev->id); if (!dev->inited) ActivateDevice(dev); } /* enable real devices */ for (dev = inputInfo.off_devices; dev; dev = next) { DebugF("(dix) enabling device %d\n", dev->id); next = dev->next; if (dev->inited && dev->startup) (void)EnableDevice(dev); } return Success; } /** * Free the given device class and reset the pointer to NULL. */ static void FreeDeviceClass(int type, pointer *class) { if (!(*class)) return; switch(type) { case KeyClass: { KeyClassPtr* k = (KeyClassPtr*)class; #ifdef XKB if ((*k)->xkbInfo) { XkbFreeInfo((*k)->xkbInfo); (*k)->xkbInfo = NULL; } #endif xfree((*k)->curKeySyms.map); xfree((*k)->modifierKeyMap); xfree((*k)); break; } case ButtonClass: { ButtonClassPtr *b = (ButtonClassPtr*)class; #ifdef XKB if ((*b)->xkb_acts) xfree((*b)->xkb_acts); #endif xfree((*b)); break; } case ValuatorClass: { ValuatorClassPtr *v = (ValuatorClassPtr*)class; /* Counterpart to 'biggest hack ever' in init. */ if ((*v)->motion) xfree((*v)->motion); xfree((*v)); break; } case FocusClass: { FocusClassPtr *f = (FocusClassPtr*)class; xfree((*f)->trace); xfree((*f)); break; } case ProximityClass: { ProximityClassPtr *p = (ProximityClassPtr*)class; xfree((*p)); break; } } *class = NULL; } static void FreeFeedbackClass(int type, pointer *class) { if (!(*class)) return; switch(type) { case KbdFeedbackClass: { KbdFeedbackPtr *kbdfeed = (KbdFeedbackPtr*)class; KbdFeedbackPtr k, knext; for (k = (*kbdfeed); k; k = knext) { knext = k->next; #ifdef XKB if (k->xkb_sli) XkbFreeSrvLedInfo(k->xkb_sli); #endif xfree(k); } break; } case PtrFeedbackClass: { PtrFeedbackPtr *ptrfeed = (PtrFeedbackPtr*)class; PtrFeedbackPtr p, pnext; for (p = (*ptrfeed); p; p = pnext) { pnext = p->next; xfree(p); } break; } case IntegerFeedbackClass: { IntegerFeedbackPtr *intfeed = (IntegerFeedbackPtr*)class; IntegerFeedbackPtr i, inext; for (i = (*intfeed); i; i = inext) { inext = i->next; xfree(i); } break; } case StringFeedbackClass: { StringFeedbackPtr *stringfeed = (StringFeedbackPtr*)class; StringFeedbackPtr s, snext; for (s = (*stringfeed); s; s = snext) { snext = s->next; xfree(s->ctrl.symbols_supported); xfree(s->ctrl.symbols_displayed); xfree(s); } break; } case BellFeedbackClass: { BellFeedbackPtr *bell = (BellFeedbackPtr*)class; BellFeedbackPtr b, bnext; for (b = (*bell); b; b = bnext) { bnext = b->next; xfree(b); } break; } case LedFeedbackClass: { LedFeedbackPtr *leds = (LedFeedbackPtr*)class; LedFeedbackPtr l, lnext; for (l = (*leds); l; l = lnext) { lnext = l->next; #ifdef XKB if (l->xkb_sli) XkbFreeSrvLedInfo(l->xkb_sli); #endif xfree(l); } break; } } *class = NULL; } static void FreeAllDeviceClasses(ClassesPtr classes) { if (!classes) return; FreeDeviceClass(KeyClass, (pointer)&classes->key); FreeDeviceClass(ValuatorClass, (pointer)&classes->valuator); FreeDeviceClass(ButtonClass, (pointer)&classes->button); FreeDeviceClass(FocusClass, (pointer)&classes->focus); FreeDeviceClass(ProximityClass, (pointer)&classes->proximity); FreeFeedbackClass(KbdFeedbackClass, (pointer)&classes->kbdfeed); FreeFeedbackClass(PtrFeedbackClass, (pointer)&classes->ptrfeed); FreeFeedbackClass(IntegerFeedbackClass, (pointer)&classes->intfeed); FreeFeedbackClass(StringFeedbackClass, (pointer)&classes->stringfeed); FreeFeedbackClass(BellFeedbackClass, (pointer)&classes->bell); FreeFeedbackClass(LedFeedbackClass, (pointer)&classes->leds); } /** * Close down a device and free all resources. * Once closed down, the driver will probably not expect you that you'll ever * enable it again and free associated structs. If you want the device to just * be disabled, DisableDevice(). * Don't call this function directly, use RemoveDevice() instead. */ static void CloseDevice(DeviceIntPtr dev) { ScreenPtr screen = screenInfo.screens[0]; ClassesPtr classes; int j; if (!dev) return; XIDeleteAllDeviceProperties(dev); if (dev->inited) (void)(*dev->deviceProc)(dev, DEVICE_CLOSE); /* free sprite memory */ if (dev->isMaster && dev->spriteInfo->sprite) screen->DeviceCursorCleanup(dev, screen); /* free acceleration info */ if(dev->valuator && dev->valuator->accelScheme.AccelCleanupProc) dev->valuator->accelScheme.AccelCleanupProc(dev); xfree(dev->name); classes = (ClassesPtr)&dev->key; FreeAllDeviceClasses(classes); if (dev->isMaster) { classes = dixLookupPrivate(&dev->devPrivates, UnusedClassesPrivateKey); FreeAllDeviceClasses(classes); } #ifdef XKB while (dev->xkb_interest) XkbRemoveResourceClient((DevicePtr)dev,dev->xkb_interest->resource); #endif if (DevHasCursor(dev) && dev->spriteInfo->sprite) { xfree(dev->spriteInfo->sprite->spriteTrace); xfree(dev->spriteInfo->sprite); } /* a client may have the device set as client pointer */ for (j = 0; j < currentMaxClients; j++) { if (clients[j] && clients[j]->clientPtr == dev) { clients[j]->clientPtr = NULL; clients[j]->clientPtr = PickPointer(clients[j]); } } xfree(dev->deviceGrab.sync.event); dixFreePrivates(dev->devPrivates); xfree(dev); } /** * Shut down all devices, free all resources, etc. * Only useful if you're shutting down the server! */ void CloseDownDevices(void) { DeviceIntPtr dev, next; /* Float all SDs before closing them. Note that at this point resources * (e.g. cursors) have been freed already, so we can't just call * AttachDevice(NULL, dev, NULL). Instead, we have to forcibly set master * to NULL and pretend nothing happened. */ for (dev = inputInfo.devices; dev; dev = dev->next) { if (!dev->isMaster && dev->u.master) dev->u.master = NULL; } for (dev = inputInfo.devices; dev; dev = next) { next = dev->next; DeleteInputDeviceRequest(dev); } for (dev = inputInfo.off_devices; dev; dev = next) { next = dev->next; DeleteInputDeviceRequest(dev); } inputInfo.devices = NULL; inputInfo.off_devices = NULL; inputInfo.keyboard = NULL; inputInfo.pointer = NULL; #ifdef XKB XkbDeleteRulesDflts(); #endif } /** * Remove the cursor sprite for all devices. This needs to be done before any * resources are freed or any device is deleted. */ void UndisplayDevices() { DeviceIntPtr dev; ScreenPtr screen = screenInfo.screens[0]; for (dev = inputInfo.devices; dev; dev = dev->next) screen->DisplayCursor(dev, screen, NullCursor); } /** * Remove a device from the device list, closes it and thus frees all * resources. * Removes both enabled and disabled devices and notifies all devices about * the removal of the device. * * No PresenceNotify is sent for device that the client never saw. This can * happen if a malloc fails during the addition of master devices. If * dev->init is FALSE it means the client never received a DeviceAdded event, * so let's not send a DeviceRemoved event either. */ int RemoveDevice(DeviceIntPtr dev) { DeviceIntPtr prev,tmp,next; int ret = BadMatch; devicePresenceNotify ev; DeviceIntRec dummyDev; ScreenPtr screen = screenInfo.screens[0]; int deviceid; int initialized; DebugF("(dix) removing device %d\n", dev->id); if (!dev || dev == inputInfo.keyboard || dev == inputInfo.pointer) return BadImplementation; initialized = dev->inited; if (DevHasCursor(dev)) screen->DisplayCursor(dev, screen, NullCursor); deviceid = dev->id; DisableDevice(dev); prev = NULL; for (tmp = inputInfo.devices; tmp; (prev = tmp), (tmp = next)) { next = tmp->next; if (tmp == dev) { if (prev==NULL) inputInfo.devices = next; else prev->next = next; CloseDevice(tmp); ret = Success; } } prev = NULL; for (tmp = inputInfo.off_devices; tmp; (prev = tmp), (tmp = next)) { next = tmp->next; if (tmp == dev) { CloseDevice(tmp); if (prev == NULL) inputInfo.off_devices = next; else prev->next = next; ret = Success; } } if (ret == Success && initialized) { inputInfo.numDevices--; ev.type = DevicePresenceNotify; ev.time = currentTime.milliseconds; ev.devchange = DeviceRemoved; ev.deviceid = deviceid; dummyDev.id = MAXDEVICES; SendEventToAllWindows(&dummyDev, DevicePresenceNotifyMask, (xEvent *) &ev, 1); } return ret; } int NumMotionEvents(void) { /* only called to fill data in initial connection reply. * VCP is ok here, it is the only fixed device we have. */ return inputInfo.pointer->valuator->numMotionEvents; } void RegisterPointerDevice(DeviceIntPtr device) { RegisterOtherDevice(device); } void RegisterKeyboardDevice(DeviceIntPtr device) { RegisterOtherDevice(device); } int dixLookupDevice(DeviceIntPtr *pDev, int id, ClientPtr client, Mask access_mode) { DeviceIntPtr dev; int rc; *pDev = NULL; for (dev=inputInfo.devices; dev; dev=dev->next) { if (dev->id == (CARD8)id) goto found; } for (dev=inputInfo.off_devices; dev; dev=dev->next) { if (dev->id == (CARD8)id) goto found; } return BadDevice; found: rc = XaceHook(XACE_DEVICE_ACCESS, client, dev, access_mode); if (rc == Success) *pDev = dev; return rc; } void QueryMinMaxKeyCodes(KeyCode *minCode, KeyCode *maxCode) { if (inputInfo.keyboard) { *minCode = inputInfo.keyboard->key->curKeySyms.minKeyCode; *maxCode = inputInfo.keyboard->key->curKeySyms.maxKeyCode; } } Bool SetKeySymsMap(KeySymsPtr dst, KeySymsPtr src) { int i, j; int rowDif = src->minKeyCode - dst->minKeyCode; /* if keysym map size changes, grow map first */ if (src->mapWidth < dst->mapWidth) { for (i = src->minKeyCode; i <= src->maxKeyCode; i++) { #define SI(r, c) (((r-src->minKeyCode)*src->mapWidth) + (c)) #define DI(r, c) (((r - dst->minKeyCode)*dst->mapWidth) + (c)) for (j = 0; j < src->mapWidth; j++) dst->map[DI(i, j)] = src->map[SI(i, j)]; for (j = src->mapWidth; j < dst->mapWidth; j++) dst->map[DI(i, j)] = NoSymbol; #undef SI #undef DI } return TRUE; } else if (src->mapWidth > dst->mapWidth) { KeySym *map; int bytes = sizeof(KeySym) * src->mapWidth * (dst->maxKeyCode - dst->minKeyCode + 1); map = (KeySym *)xcalloc(1, bytes); if (!map) return FALSE; if (dst->map) { for (i = 0; i <= dst->maxKeyCode-dst->minKeyCode; i++) memmove((char *)&map[i*src->mapWidth], (char *)&dst->map[i*dst->mapWidth], dst->mapWidth * sizeof(KeySym)); xfree(dst->map); } dst->mapWidth = src->mapWidth; dst->map = map; } else if (!dst->map) { KeySym *map; int bytes = sizeof(KeySym) * src->mapWidth * (dst->maxKeyCode - dst->minKeyCode + 1); map = (KeySym *)xcalloc(1, bytes); if (!map) return FALSE; dst->map = map; dst->mapWidth = src->mapWidth; } memmove((char *)&dst->map[rowDif * dst->mapWidth], (char *)src->map, (int)(src->maxKeyCode - src->minKeyCode + 1) * dst->mapWidth * sizeof(KeySym)); return TRUE; } static Bool InitModMap(KeyClassPtr keyc) { int i, j; CARD8 keysPerModifier[8]; CARD8 mask; keyc->maxKeysPerModifier = 0; for (i = 0; i < 8; i++) keysPerModifier[i] = 0; for (i = 8; i < MAP_LENGTH; i++) { for (j = 0, mask = 1; j < 8; j++, mask <<= 1) { if (mask & keyc->modifierMap[i]) { if (++keysPerModifier[j] > keyc->maxKeysPerModifier) keyc->maxKeysPerModifier = keysPerModifier[j]; } } } keyc->modifierKeyMap = xcalloc(8, keyc->maxKeysPerModifier); if (!keyc->modifierKeyMap && keyc->maxKeysPerModifier) return (FALSE); for (i = 0; i < 8; i++) keysPerModifier[i] = 0; for (i = 8; i < MAP_LENGTH; i++) { for (j = 0, mask = 1; j < 8; j++, mask <<= 1) { if (mask & keyc->modifierMap[i]) { keyc->modifierKeyMap[(j*keyc->maxKeysPerModifier) + keysPerModifier[j]] = i; keysPerModifier[j]++; } } } return TRUE; } _X_EXPORT Bool InitKeyClassDeviceStruct(DeviceIntPtr dev, KeySymsPtr pKeySyms, CARD8 pModifiers[]) { KeyClassPtr keyc; keyc = xcalloc(1, sizeof(KeyClassRec)); if (!keyc) return FALSE; keyc->curKeySyms.minKeyCode = pKeySyms->minKeyCode; keyc->curKeySyms.maxKeyCode = pKeySyms->maxKeyCode; if (pModifiers) memmove((char *)keyc->modifierMap, (char *)pModifiers, MAP_LENGTH); if (!SetKeySymsMap(&keyc->curKeySyms, pKeySyms) || !InitModMap(keyc)) { xfree(keyc->curKeySyms.map); xfree(keyc->modifierKeyMap); xfree(keyc); return FALSE; } dev->key = keyc; #ifdef XKB dev->key->xkbInfo= NULL; if (!noXkbExtension) XkbInitDevice(dev); #endif return TRUE; } _X_EXPORT Bool InitButtonClassDeviceStruct(DeviceIntPtr dev, int numButtons, CARD8 *map) { ButtonClassPtr butc; int i; butc = xcalloc(1, sizeof(ButtonClassRec)); if (!butc) return FALSE; butc->numButtons = numButtons; for (i = 1; i <= numButtons; i++) butc->map[i] = map[i]; dev->button = butc; return TRUE; } _X_EXPORT Bool InitValuatorClassDeviceStruct(DeviceIntPtr dev, int numAxes, int numMotionEvents, int mode) { int i; ValuatorClassPtr valc; if (!dev) return FALSE; valc = (ValuatorClassPtr)xcalloc(1, sizeof(ValuatorClassRec) + numAxes * sizeof(AxisInfo) + numAxes * sizeof(unsigned int)); if (!valc) return FALSE; valc->motion = NULL; valc->first_motion = 0; valc->last_motion = 0; valc->numMotionEvents = numMotionEvents; valc->motionHintWindow = NullWindow; valc->numAxes = numAxes; valc->mode = mode; valc->axes = (AxisInfoPtr)(valc + 1); valc->axisVal = (int *)(valc->axes + numAxes); dev->valuator = valc; AllocateMotionHistory(dev); for (i=0; iaxisVal[i]=0; } dev->last.numValuators = numAxes; if(dev->isMaster) /* master devs do not accelerate */ InitPointerAccelerationScheme(dev, PtrAccelNoOp); else InitPointerAccelerationScheme(dev, PtrAccelDefault); return TRUE; } /* global list of acceleration schemes */ ValuatorAccelerationRec pointerAccelerationScheme[] = { {PtrAccelNoOp, NULL, NULL, NULL}, {PtrAccelPredictable, acceleratePointerPredictable, NULL, AccelerationDefaultCleanup}, {PtrAccelLightweight, acceleratePointerLightweight, NULL, NULL}, {-1, NULL, NULL, NULL} /* terminator */ }; /** * install an acceleration scheme. returns TRUE on success, and should not * change anything if unsuccessful. */ _X_EXPORT Bool InitPointerAccelerationScheme(DeviceIntPtr dev, int scheme) { int x, i = -1; void* data = NULL; ValuatorClassPtr val; val = dev->valuator; if(!val) return FALSE; if(dev->isMaster && (scheme != PtrAccelNoOp)) scheme = PtrAccelNoOp; /* no accel for master devices */ for(x = 0; pointerAccelerationScheme[x].number >= 0; x++) { if(pointerAccelerationScheme[x].number == scheme){ i = x; break; } } if(-1 == i) return FALSE; /* init scheme-specific data */ switch(scheme){ case PtrAccelPredictable: { DeviceVelocityPtr s; s = (DeviceVelocityPtr)xalloc(sizeof(DeviceVelocityRec)); if(!s) return FALSE; InitVelocityData(s); data = s; break; } default: break; } val->accelScheme = pointerAccelerationScheme[i]; val->accelScheme.accelData = data; return TRUE; } _X_EXPORT Bool InitAbsoluteClassDeviceStruct(DeviceIntPtr dev) { AbsoluteClassPtr abs; abs = (AbsoluteClassPtr)xalloc(sizeof(AbsoluteClassRec)); if (!abs) return FALSE; /* we don't do anything sensible with these, but should */ abs->min_x = NO_AXIS_LIMITS; abs->min_y = NO_AXIS_LIMITS; abs->max_x = NO_AXIS_LIMITS; abs->max_y = NO_AXIS_LIMITS; abs->flip_x = 0; abs->flip_y = 0; abs->rotation = 0; abs->button_threshold = 0; abs->offset_x = 0; abs->offset_y = 0; abs->width = NO_AXIS_LIMITS; abs->height = NO_AXIS_LIMITS; abs->following = 0; abs->screen = 0; dev->absolute = abs; return TRUE; } _X_EXPORT Bool InitFocusClassDeviceStruct(DeviceIntPtr dev) { FocusClassPtr focc; focc = (FocusClassPtr)xalloc(sizeof(FocusClassRec)); if (!focc) return FALSE; focc->win = PointerRootWin; focc->revert = None; focc->time = currentTime; focc->trace = (WindowPtr *)NULL; focc->traceSize = 0; focc->traceGood = 0; dev->focus = focc; return TRUE; } _X_EXPORT Bool InitKbdFeedbackClassDeviceStruct(DeviceIntPtr dev, BellProcPtr bellProc, KbdCtrlProcPtr controlProc) { KbdFeedbackPtr feedc; feedc = (KbdFeedbackPtr)xalloc(sizeof(KbdFeedbackClassRec)); if (!feedc) return FALSE; feedc->BellProc = bellProc; feedc->CtrlProc = controlProc; #ifdef XKB defaultKeyboardControl.autoRepeat = TRUE; #endif feedc->ctrl = defaultKeyboardControl; feedc->ctrl.id = 0; if ((feedc->next = dev->kbdfeed) != 0) feedc->ctrl.id = dev->kbdfeed->ctrl.id + 1; dev->kbdfeed = feedc; #ifdef XKB feedc->xkb_sli= NULL; if (!noXkbExtension) XkbFinishDeviceInit(dev); #endif (*dev->kbdfeed->CtrlProc)(dev,&dev->kbdfeed->ctrl); return TRUE; } _X_EXPORT Bool InitPtrFeedbackClassDeviceStruct(DeviceIntPtr dev, PtrCtrlProcPtr controlProc) { PtrFeedbackPtr feedc; feedc = (PtrFeedbackPtr)xalloc(sizeof(PtrFeedbackClassRec)); if (!feedc) return FALSE; feedc->CtrlProc = controlProc; feedc->ctrl = defaultPointerControl; feedc->ctrl.id = 0; if ( (feedc->next = dev->ptrfeed) ) feedc->ctrl.id = dev->ptrfeed->ctrl.id + 1; dev->ptrfeed = feedc; (*controlProc)(dev, &feedc->ctrl); return TRUE; } static LedCtrl defaultLedControl = { DEFAULT_LEDS, DEFAULT_LEDS_MASK, 0}; static BellCtrl defaultBellControl = { DEFAULT_BELL, DEFAULT_BELL_PITCH, DEFAULT_BELL_DURATION, 0}; static IntegerCtrl defaultIntegerControl = { DEFAULT_INT_RESOLUTION, DEFAULT_INT_MIN_VALUE, DEFAULT_INT_MAX_VALUE, DEFAULT_INT_DISPLAYED, 0}; _X_EXPORT Bool InitStringFeedbackClassDeviceStruct ( DeviceIntPtr dev, StringCtrlProcPtr controlProc, int max_symbols, int num_symbols_supported, KeySym *symbols) { int i; StringFeedbackPtr feedc; feedc = (StringFeedbackPtr)xalloc(sizeof(StringFeedbackClassRec)); if (!feedc) return FALSE; feedc->CtrlProc = controlProc; feedc->ctrl.num_symbols_supported = num_symbols_supported; feedc->ctrl.num_symbols_displayed = 0; feedc->ctrl.max_symbols = max_symbols; feedc->ctrl.symbols_supported = (KeySym *) xalloc (sizeof (KeySym) * num_symbols_supported); feedc->ctrl.symbols_displayed = (KeySym *) xalloc (sizeof (KeySym) * max_symbols); if (!feedc->ctrl.symbols_supported || !feedc->ctrl.symbols_displayed) { if (feedc->ctrl.symbols_supported) xfree(feedc->ctrl.symbols_supported); if (feedc->ctrl.symbols_displayed) xfree(feedc->ctrl.symbols_displayed); xfree(feedc); return FALSE; } for (i=0; ictrl.symbols_supported+i) = *symbols++; for (i=0; ictrl.symbols_displayed+i) = (KeySym) NULL; feedc->ctrl.id = 0; if ( (feedc->next = dev->stringfeed) ) feedc->ctrl.id = dev->stringfeed->ctrl.id + 1; dev->stringfeed = feedc; (*controlProc)(dev, &feedc->ctrl); return TRUE; } _X_EXPORT Bool InitBellFeedbackClassDeviceStruct (DeviceIntPtr dev, BellProcPtr bellProc, BellCtrlProcPtr controlProc) { BellFeedbackPtr feedc; feedc = (BellFeedbackPtr)xalloc(sizeof(BellFeedbackClassRec)); if (!feedc) return FALSE; feedc->CtrlProc = controlProc; feedc->BellProc = bellProc; feedc->ctrl = defaultBellControl; feedc->ctrl.id = 0; if ( (feedc->next = dev->bell) ) feedc->ctrl.id = dev->bell->ctrl.id + 1; dev->bell = feedc; (*controlProc)(dev, &feedc->ctrl); return TRUE; } _X_EXPORT Bool InitLedFeedbackClassDeviceStruct (DeviceIntPtr dev, LedCtrlProcPtr controlProc) { LedFeedbackPtr feedc; feedc = (LedFeedbackPtr)xalloc(sizeof(LedFeedbackClassRec)); if (!feedc) return FALSE; feedc->CtrlProc = controlProc; feedc->ctrl = defaultLedControl; feedc->ctrl.id = 0; if ( (feedc->next = dev->leds) ) feedc->ctrl.id = dev->leds->ctrl.id + 1; #ifdef XKB feedc->xkb_sli= NULL; #endif dev->leds = feedc; (*controlProc)(dev, &feedc->ctrl); return TRUE; } _X_EXPORT Bool InitIntegerFeedbackClassDeviceStruct (DeviceIntPtr dev, IntegerCtrlProcPtr controlProc) { IntegerFeedbackPtr feedc; feedc = (IntegerFeedbackPtr)xalloc(sizeof(IntegerFeedbackClassRec)); if (!feedc) return FALSE; feedc->CtrlProc = controlProc; feedc->ctrl = defaultIntegerControl; feedc->ctrl.id = 0; if ( (feedc->next = dev->intfeed) ) feedc->ctrl.id = dev->intfeed->ctrl.id + 1; dev->intfeed = feedc; (*controlProc)(dev, &feedc->ctrl); return TRUE; } _X_EXPORT Bool InitPointerDeviceStruct(DevicePtr device, CARD8 *map, int numButtons, PtrCtrlProcPtr controlProc, int numMotionEvents, int numAxes) { DeviceIntPtr dev = (DeviceIntPtr)device; return(InitButtonClassDeviceStruct(dev, numButtons, map) && InitValuatorClassDeviceStruct(dev, numAxes, numMotionEvents, 0) && InitPtrFeedbackClassDeviceStruct(dev, controlProc)); } _X_EXPORT Bool InitKeyboardDeviceStruct(DevicePtr device, KeySymsPtr pKeySyms, CARD8 pModifiers[], BellProcPtr bellProc, KbdCtrlProcPtr controlProc) { DeviceIntPtr dev = (DeviceIntPtr)device; return(InitKeyClassDeviceStruct(dev, pKeySyms, pModifiers) && InitFocusClassDeviceStruct(dev) && InitKbdFeedbackClassDeviceStruct(dev, bellProc, controlProc)); } _X_EXPORT void SendMappingNotify(DeviceIntPtr pDev, unsigned request, unsigned firstKeyCode, unsigned count, ClientPtr client) { int i; xEvent event; event.u.u.type = MappingNotify; event.u.mappingNotify.request = request; if (request == MappingKeyboard) { event.u.mappingNotify.firstKeyCode = firstKeyCode; event.u.mappingNotify.count = count; } #ifdef XKB if (!noXkbExtension && ((request == MappingKeyboard) || (request == MappingModifier))) { XkbApplyMappingChange(pDev,request,firstKeyCode,count, client); } #endif /* 0 is the server client */ for (i=1; iclientState == ClientStateRunning) { #ifdef XKB if (!noXkbExtension && (request == MappingKeyboard) && (clients[i]->xkbClientFlags != 0) && (clients[i]->mapNotifyMask&XkbKeySymsMask)) continue; #endif event.u.u.sequenceNumber = clients[i]->sequence; WriteEventsToClient(clients[i], 1, &event); } } } /* * Check if the given buffer contains elements between low (inclusive) and * high (inclusive) only. * * @return TRUE if the device map is invalid, FALSE otherwise. */ Bool BadDeviceMap(BYTE *buff, int length, unsigned low, unsigned high, XID *errval) { int i; for (i = 0; i < length; i++) if (buff[i]) /* only check non-zero elements */ { if ((low > buff[i]) || (high < buff[i])) { *errval = buff[i]; return TRUE; } } return FALSE; } Bool AllModifierKeysAreUp(dev, map1, per1, map2, per2) DeviceIntPtr dev; CARD8 *map1, *map2; int per1, per2; { int i, j, k; CARD8 *down = dev->key->down; for (i = 8; --i >= 0; map2 += per2) { for (j = per1; --j >= 0; map1++) { if (*map1 && BitIsOn(down, *map1)) { for (k = per2; (--k >= 0) && (*map1 != map2[k]);) ; if (k < 0) return FALSE; } } } return TRUE; } static int DoSetModifierMapping(ClientPtr client, KeyCode *inputMap, int numKeyPerModifier, xSetModifierMappingReply *rep) { DeviceIntPtr pDev = NULL; DeviceIntPtr cp = PickKeyboard(client); /* ClientPointer keyboard */ int rc, i = 0, inputMapLen = numKeyPerModifier * 8; for (pDev = inputInfo.devices; pDev; pDev = pDev->next) { if (pDev == cp || (!pDev->isMaster && (pDev->u.master == cp) && pDev->key)) { for (i = 0; i < inputMapLen; i++) { /* Check that all the new modifiers fall within the advertised * keycode range, and are okay with the DDX. */ if (inputMap[i] && ((inputMap[i] < pDev->key->curKeySyms.minKeyCode || inputMap[i] > pDev->key->curKeySyms.maxKeyCode) || !LegalModifier(inputMap[i], pDev))) { client->errorValue = inputMap[i]; return BadValue; } } rc = XaceHook(XACE_DEVICE_ACCESS, client, pDev, DixManageAccess); if (rc != Success) return rc; /* None of the modifiers (old or new) may be down while we change * the map. */ if (!AllModifierKeysAreUp(pDev, pDev->key->modifierKeyMap, pDev->key->maxKeysPerModifier, inputMap, numKeyPerModifier) || !AllModifierKeysAreUp(pDev, inputMap, numKeyPerModifier, pDev->key->modifierKeyMap, pDev->key->maxKeysPerModifier)) { rep->success = MappingBusy; return Success; } } } for (pDev = inputInfo.devices; pDev; pDev = pDev->next) { if ((pDev->coreEvents || pDev == inputInfo.keyboard) && pDev->key) { bzero(pDev->key->modifierMap, MAP_LENGTH); /* Annoyingly, we lack a modifierKeyMap size, so we have to just free * and re-alloc it every time. */ if (pDev->key->modifierKeyMap) xfree(pDev->key->modifierKeyMap); if (inputMapLen) { pDev->key->modifierKeyMap = (KeyCode *) xalloc(inputMapLen); if (!pDev->key->modifierKeyMap) return BadAlloc; memcpy(pDev->key->modifierKeyMap, inputMap, inputMapLen); pDev->key->maxKeysPerModifier = numKeyPerModifier; for (i = 0; i < inputMapLen; i++) { if (inputMap[i]) { pDev->key->modifierMap[inputMap[i]] |= (1 << (((unsigned int)i) / numKeyPerModifier)); } } } else { pDev->key->modifierKeyMap = NULL; pDev->key->maxKeysPerModifier = 0; } } } rep->success = Success; return Success; } int ProcSetModifierMapping(ClientPtr client) { xSetModifierMappingReply rep; DeviceIntPtr dev; int rc; REQUEST(xSetModifierMappingReq); REQUEST_AT_LEAST_SIZE(xSetModifierMappingReq); if (client->req_len != ((stuff->numKeyPerModifier << 1) + (sizeof (xSetModifierMappingReq) >> 2))) return BadLength; rep.type = X_Reply; rep.length = 0; rep.sequenceNumber = client->sequence; rc = DoSetModifierMapping(client, (KeyCode *)&stuff[1], stuff->numKeyPerModifier, &rep); if (rc != Success) return rc; for (dev = inputInfo.devices; dev; dev = dev->next) if (dev->key && dev->coreEvents) SendDeviceMappingNotify(client, MappingModifier, 0, 0, dev); WriteReplyToClient(client, sizeof(xSetModifierMappingReply), &rep); return client->noClientException; } int ProcGetModifierMapping(ClientPtr client) { xGetModifierMappingReply rep; DeviceIntPtr dev = PickKeyboard(client); KeyClassPtr keyc = dev->key; int rc; REQUEST_SIZE_MATCH(xReq); rc = XaceHook(XACE_DEVICE_ACCESS, client, dev, DixGetAttrAccess); if (rc != Success) return rc; rep.type = X_Reply; rep.numKeyPerModifier = keyc->maxKeysPerModifier; rep.sequenceNumber = client->sequence; /* length counts 4 byte quantities - there are 8 modifiers 1 byte big */ rep.length = keyc->maxKeysPerModifier << 1; WriteReplyToClient(client, sizeof(xGetModifierMappingReply), &rep); /* Use the (modified by DDX) map that SetModifierMapping passed in */ (void)WriteToClient(client, (int)(keyc->maxKeysPerModifier << 3), (char *)keyc->modifierKeyMap); return client->noClientException; } int ProcChangeKeyboardMapping(ClientPtr client) { REQUEST(xChangeKeyboardMappingReq); unsigned len; KeySymsRec keysyms; KeySymsPtr curKeySyms = &PickKeyboard(client)->key->curKeySyms; DeviceIntPtr pDev = NULL; int rc; REQUEST_AT_LEAST_SIZE(xChangeKeyboardMappingReq); len = client->req_len - (sizeof(xChangeKeyboardMappingReq) >> 2); if (len != (stuff->keyCodes * stuff->keySymsPerKeyCode)) return BadLength; if ((stuff->firstKeyCode < curKeySyms->minKeyCode) || (stuff->firstKeyCode > curKeySyms->maxKeyCode)) { client->errorValue = stuff->firstKeyCode; return BadValue; } if (((unsigned)(stuff->firstKeyCode + stuff->keyCodes - 1) > curKeySyms->maxKeyCode) || (stuff->keySymsPerKeyCode == 0)) { client->errorValue = stuff->keySymsPerKeyCode; return BadValue; } for (pDev = inputInfo.devices; pDev; pDev = pDev->next) { if ((pDev->coreEvents || pDev == inputInfo.keyboard) && pDev->key) { rc = XaceHook(XACE_DEVICE_ACCESS, client, pDev, DixManageAccess); if (rc != Success) return rc; } } keysyms.minKeyCode = stuff->firstKeyCode; keysyms.maxKeyCode = stuff->firstKeyCode + stuff->keyCodes - 1; keysyms.mapWidth = stuff->keySymsPerKeyCode; keysyms.map = (KeySym *)&stuff[1]; for (pDev = inputInfo.devices; pDev; pDev = pDev->next) if ((pDev->coreEvents || pDev == inputInfo.keyboard) && pDev->key) if (!SetKeySymsMap(&pDev->key->curKeySyms, &keysyms)) return BadAlloc; for (pDev = inputInfo.devices; pDev; pDev = pDev->next) if (pDev->key && pDev->coreEvents) SendDeviceMappingNotify(client, MappingKeyboard, stuff->firstKeyCode, stuff->keyCodes, pDev); return client->noClientException; } static int DoSetPointerMapping(ClientPtr client, DeviceIntPtr device, BYTE *map, int n) { int rc, i = 0; DeviceIntPtr dev = NULL; if (!device || !device->button) return BadDevice; for (dev = inputInfo.devices; dev; dev = dev->next) { if ((dev->coreEvents || dev == inputInfo.pointer) && dev->button) { rc = XaceHook(XACE_DEVICE_ACCESS, client, dev, DixManageAccess); if (rc != Success) return rc; } } for (dev = inputInfo.devices; dev; dev = dev->next) { if ((dev->coreEvents || dev == inputInfo.pointer) && dev->button) { for (i = 0; i < n; i++) { if ((device->button->map[i + 1] != map[i]) && device->button->down[i + 1]) { return MappingBusy; } } } } for (dev = inputInfo.devices; dev; dev = dev->next) { if ((dev->coreEvents || dev == inputInfo.pointer) && dev->button) { for (i = 0; i < n; i++) dev->button->map[i + 1] = map[i]; } } return Success; } int ProcSetPointerMapping(ClientPtr client) { BYTE *map; int ret; int i, j; DeviceIntPtr ptr = PickPointer(client); xSetPointerMappingReply rep; REQUEST(xSetPointerMappingReq); REQUEST_AT_LEAST_SIZE(xSetPointerMappingReq); if (client->req_len != (sizeof(xSetPointerMappingReq)+stuff->nElts+3) >> 2) return BadLength; rep.type = X_Reply; rep.length = 0; rep.sequenceNumber = client->sequence; rep.success = MappingSuccess; map = (BYTE *)&stuff[1]; /* So we're bounded here by the number of core buttons. This check * probably wants disabling through XFixes. */ /* MPX: With ClientPointer, we can return the right number of buttons. * Let's just hope nobody changed ClientPointer between GetPointerMapping * and SetPointerMapping */ if (stuff->nElts != ptr->button->numButtons) { client->errorValue = stuff->nElts; return BadValue; } if (BadDeviceMap(&map[0], (int)stuff->nElts, 1, 255, &client->errorValue)) return BadValue; /* core protocol specs don't allow for duplicate mappings. */ for (i = 0; i < stuff->nElts; i++) { for (j = i + 1; j < stuff->nElts; j++) { if (map[i] && map[i] == map[j]) { client->errorValue = map[i]; return BadValue; } } } ret = DoSetPointerMapping(client, ptr, map, stuff->nElts); if (ret != Success) { rep.success = ret; WriteReplyToClient(client, sizeof(xSetPointerMappingReply), &rep); return Success; } /* FIXME: Send mapping notifies for all the extended devices as well. */ SendMappingNotify(ptr, MappingPointer, 0, 0, client); WriteReplyToClient(client, sizeof(xSetPointerMappingReply), &rep); return Success; } int ProcGetKeyboardMapping(ClientPtr client) { xGetKeyboardMappingReply rep; DeviceIntPtr kbd = PickKeyboard(client); KeySymsPtr curKeySyms = &kbd->key->curKeySyms; int rc; REQUEST(xGetKeyboardMappingReq); REQUEST_SIZE_MATCH(xGetKeyboardMappingReq); rc = XaceHook(XACE_DEVICE_ACCESS, client, kbd, DixGetAttrAccess); if (rc != Success) return rc; if ((stuff->firstKeyCode < curKeySyms->minKeyCode) || (stuff->firstKeyCode > curKeySyms->maxKeyCode)) { client->errorValue = stuff->firstKeyCode; return BadValue; } if (stuff->firstKeyCode + stuff->count > (unsigned)(curKeySyms->maxKeyCode + 1)) { client->errorValue = stuff->count; return BadValue; } rep.type = X_Reply; rep.sequenceNumber = client->sequence; rep.keySymsPerKeyCode = curKeySyms->mapWidth; /* length is a count of 4 byte quantities and KeySyms are 4 bytes */ rep.length = (curKeySyms->mapWidth * stuff->count); WriteReplyToClient(client, sizeof(xGetKeyboardMappingReply), &rep); client->pSwapReplyFunc = (ReplySwapPtr) CopySwap32Write; WriteSwappedDataToClient( client, curKeySyms->mapWidth * stuff->count * sizeof(KeySym), &curKeySyms->map[(stuff->firstKeyCode - curKeySyms->minKeyCode) * curKeySyms->mapWidth]); return client->noClientException; } int ProcGetPointerMapping(ClientPtr client) { xGetPointerMappingReply rep; /* Apps may get different values each time they call GetPointerMapping as * the ClientPointer could change. */ DeviceIntPtr ptr = PickPointer(client); ButtonClassPtr butc = ptr->button; int rc; REQUEST_SIZE_MATCH(xReq); rc = XaceHook(XACE_DEVICE_ACCESS, client, ptr, DixGetAttrAccess); if (rc != Success) return rc; rep.type = X_Reply; rep.sequenceNumber = client->sequence; rep.nElts = butc->numButtons; rep.length = ((unsigned)rep.nElts + (4-1))/4; WriteReplyToClient(client, sizeof(xGetPointerMappingReply), &rep); (void)WriteToClient(client, (int)rep.nElts, (char *)&butc->map[1]); return Success; } void NoteLedState(DeviceIntPtr keybd, int led, Bool on) { KeybdCtrl *ctrl = &keybd->kbdfeed->ctrl; if (on) ctrl->leds |= ((Leds)1 << (led - 1)); else ctrl->leds &= ~((Leds)1 << (led - 1)); } _X_EXPORT int Ones(unsigned long mask) /* HACKMEM 169 */ { unsigned long y; y = (mask >> 1) &033333333333; y = mask - y - ((y >>1) & 033333333333); return (((y + (y >> 3)) & 030707070707) % 077); } static int DoChangeKeyboardControl (ClientPtr client, DeviceIntPtr keybd, XID *vlist, BITS32 vmask) { #define DO_ALL (-1) KeybdCtrl ctrl; int t; int led = DO_ALL; int key = DO_ALL; BITS32 index2; int mask = vmask, i; ctrl = keybd->kbdfeed->ctrl; while (vmask) { index2 = (BITS32) lowbit (vmask); vmask &= ~index2; switch (index2) { case KBKeyClickPercent: t = (INT8)*vlist; vlist++; if (t == -1) { t = defaultKeyboardControl.click; } else if (t < 0 || t > 100) { client->errorValue = t; return BadValue; } ctrl.click = t; break; case KBBellPercent: t = (INT8)*vlist; vlist++; if (t == -1) { t = defaultKeyboardControl.bell; } else if (t < 0 || t > 100) { client->errorValue = t; return BadValue; } ctrl.bell = t; break; case KBBellPitch: t = (INT16)*vlist; vlist++; if (t == -1) { t = defaultKeyboardControl.bell_pitch; } else if (t < 0) { client->errorValue = t; return BadValue; } ctrl.bell_pitch = t; break; case KBBellDuration: t = (INT16)*vlist; vlist++; if (t == -1) t = defaultKeyboardControl.bell_duration; else if (t < 0) { client->errorValue = t; return BadValue; } ctrl.bell_duration = t; break; case KBLed: led = (CARD8)*vlist; vlist++; if (led < 1 || led > 32) { client->errorValue = led; return BadValue; } if (!(mask & KBLedMode)) return BadMatch; break; case KBLedMode: t = (CARD8)*vlist; vlist++; if (t == LedModeOff) { if (led == DO_ALL) ctrl.leds = 0x0; else ctrl.leds &= ~(((Leds)(1)) << (led - 1)); } else if (t == LedModeOn) { if (led == DO_ALL) ctrl.leds = ~0L; else ctrl.leds |= (((Leds)(1)) << (led - 1)); } else { client->errorValue = t; return BadValue; } #ifdef XKB if (!noXkbExtension) { XkbEventCauseRec cause; XkbSetCauseCoreReq(&cause,X_ChangeKeyboardControl,client); XkbSetIndicators(keybd,((led == DO_ALL) ? ~0L : (1L<<(led-1))), ctrl.leds, &cause); ctrl.leds = keybd->kbdfeed->ctrl.leds; } #endif break; case KBKey: key = (KeyCode)*vlist; vlist++; if ((KeyCode)key < keybd->key->curKeySyms.minKeyCode || (KeyCode)key > keybd->key->curKeySyms.maxKeyCode) { client->errorValue = key; return BadValue; } if (!(mask & KBAutoRepeatMode)) return BadMatch; break; case KBAutoRepeatMode: i = (key >> 3); mask = (1 << (key & 7)); t = (CARD8)*vlist; vlist++; #ifdef XKB if (!noXkbExtension && key != DO_ALL) XkbDisableComputedAutoRepeats(keybd,key); #endif if (t == AutoRepeatModeOff) { if (key == DO_ALL) ctrl.autoRepeat = FALSE; else ctrl.autoRepeats[i] &= ~mask; } else if (t == AutoRepeatModeOn) { if (key == DO_ALL) ctrl.autoRepeat = TRUE; else ctrl.autoRepeats[i] |= mask; } else if (t == AutoRepeatModeDefault) { if (key == DO_ALL) ctrl.autoRepeat = defaultKeyboardControl.autoRepeat; else ctrl.autoRepeats[i] = (ctrl.autoRepeats[i] & ~mask) | (defaultKeyboardControl.autoRepeats[i] & mask); } else { client->errorValue = t; return BadValue; } break; default: client->errorValue = mask; return BadValue; } } keybd->kbdfeed->ctrl = ctrl; #ifdef XKB /* The XKB RepeatKeys control and core protocol global autorepeat */ /* value are linked */ if (!noXkbExtension) XkbSetRepeatKeys(keybd, key, keybd->kbdfeed->ctrl.autoRepeat); else #endif (*keybd->kbdfeed->CtrlProc)(keybd, &keybd->kbdfeed->ctrl); return Success; #undef DO_ALL } int ProcChangeKeyboardControl (ClientPtr client) { XID *vlist; BITS32 vmask; int ret = Success, error = Success; DeviceIntPtr pDev = NULL; REQUEST(xChangeKeyboardControlReq); REQUEST_AT_LEAST_SIZE(xChangeKeyboardControlReq); vmask = stuff->mask; vlist = (XID *)&stuff[1]; if (client->req_len != (sizeof(xChangeKeyboardControlReq)>>2)+Ones(vmask)) return BadLength; for (pDev = inputInfo.devices; pDev; pDev = pDev->next) { if ((pDev->coreEvents || pDev == inputInfo.keyboard) && pDev->kbdfeed && pDev->kbdfeed->CtrlProc) { ret = XaceHook(XACE_DEVICE_ACCESS, client, pDev, DixManageAccess); if (ret != Success) return ret; } } for (pDev = inputInfo.devices; pDev; pDev = pDev->next) { if ((pDev->coreEvents || pDev == inputInfo.keyboard) && pDev->kbdfeed && pDev->kbdfeed->CtrlProc) { ret = DoChangeKeyboardControl(client, pDev, vlist, vmask); if (ret != Success) error = ret; } } return error; } int ProcGetKeyboardControl (ClientPtr client) { int rc, i; DeviceIntPtr kbd = PickKeyboard(client); KeybdCtrl *ctrl = &kbd->kbdfeed->ctrl; xGetKeyboardControlReply rep; REQUEST_SIZE_MATCH(xReq); rc = XaceHook(XACE_DEVICE_ACCESS, client, kbd, DixGetAttrAccess); if (rc != Success) return rc; rep.type = X_Reply; rep.length = 5; rep.sequenceNumber = client->sequence; rep.globalAutoRepeat = ctrl->autoRepeat; rep.keyClickPercent = ctrl->click; rep.bellPercent = ctrl->bell; rep.bellPitch = ctrl->bell_pitch; rep.bellDuration = ctrl->bell_duration; rep.ledMask = ctrl->leds; for (i = 0; i < 32; i++) rep.map[i] = ctrl->autoRepeats[i]; WriteReplyToClient(client, sizeof(xGetKeyboardControlReply), &rep); return Success; } int ProcBell(ClientPtr client) { DeviceIntPtr keybd = PickKeyboard(client); int base = keybd->kbdfeed->ctrl.bell; int newpercent; int rc; REQUEST(xBellReq); REQUEST_SIZE_MATCH(xBellReq); /* Seems like no keyboard actually has the BellProc set. Returning * BadDevice (previous code) will make apps crash badly. The man pages * doesn't say anything about a BadDevice being returned either. * So just quietly do nothing and pretend everything has worked. */ if (!keybd->kbdfeed->BellProc) return Success; if (stuff->percent < -100 || stuff->percent > 100) { client->errorValue = stuff->percent; return BadValue; } newpercent = (base * stuff->percent) / 100; if (stuff->percent < 0) newpercent = base + newpercent; else newpercent = base - newpercent + stuff->percent; for (keybd = inputInfo.devices; keybd; keybd = keybd->next) { if ((keybd->coreEvents || keybd == inputInfo.keyboard) && keybd->kbdfeed && keybd->kbdfeed->BellProc) { rc = XaceHook(XACE_DEVICE_ACCESS, client, keybd, DixBellAccess); if (rc != Success) return rc; #ifdef XKB if (!noXkbExtension) XkbHandleBell(FALSE, FALSE, keybd, newpercent, &keybd->kbdfeed->ctrl, 0, None, NULL, client); else #endif (*keybd->kbdfeed->BellProc)(newpercent, keybd, &keybd->kbdfeed->ctrl, 0); } } return Success; } int ProcChangePointerControl(ClientPtr client) { DeviceIntPtr mouse = PickPointer(client); PtrCtrl ctrl; /* might get BadValue part way through */ int rc; REQUEST(xChangePointerControlReq); REQUEST_SIZE_MATCH(xChangePointerControlReq); if (!mouse->ptrfeed->CtrlProc) return BadDevice; ctrl = mouse->ptrfeed->ctrl; if ((stuff->doAccel != xTrue) && (stuff->doAccel != xFalse)) { client->errorValue = stuff->doAccel; return(BadValue); } if ((stuff->doThresh != xTrue) && (stuff->doThresh != xFalse)) { client->errorValue = stuff->doThresh; return(BadValue); } if (stuff->doAccel) { if (stuff->accelNum == -1) { ctrl.num = defaultPointerControl.num; } else if (stuff->accelNum < 0) { client->errorValue = stuff->accelNum; return BadValue; } else { ctrl.num = stuff->accelNum; } if (stuff->accelDenum == -1) { ctrl.den = defaultPointerControl.den; } else if (stuff->accelDenum <= 0) { client->errorValue = stuff->accelDenum; return BadValue; } else { ctrl.den = stuff->accelDenum; } } if (stuff->doThresh) { if (stuff->threshold == -1) { ctrl.threshold = defaultPointerControl.threshold; } else if (stuff->threshold < 0) { client->errorValue = stuff->threshold; return BadValue; } else { ctrl.threshold = stuff->threshold; } } for (mouse = inputInfo.devices; mouse; mouse = mouse->next) { if ((mouse->coreEvents || mouse == inputInfo.pointer) && mouse->ptrfeed && mouse->ptrfeed->CtrlProc) { rc = XaceHook(XACE_DEVICE_ACCESS, client, mouse, DixManageAccess); if (rc != Success) return rc; } } for (mouse = inputInfo.devices; mouse; mouse = mouse->next) { if ((mouse->coreEvents || mouse == PickPointer(client)) && mouse->ptrfeed && mouse->ptrfeed->CtrlProc) { mouse->ptrfeed->ctrl = ctrl; (*mouse->ptrfeed->CtrlProc)(mouse, &mouse->ptrfeed->ctrl); } } return Success; } int ProcGetPointerControl(ClientPtr client) { DeviceIntPtr ptr = PickPointer(client); PtrCtrl *ctrl = &ptr->ptrfeed->ctrl; xGetPointerControlReply rep; int rc; REQUEST_SIZE_MATCH(xReq); rc = XaceHook(XACE_DEVICE_ACCESS, client, ptr, DixGetAttrAccess); if (rc != Success) return rc; rep.type = X_Reply; rep.length = 0; rep.sequenceNumber = client->sequence; rep.threshold = ctrl->threshold; rep.accelNumerator = ctrl->num; rep.accelDenominator = ctrl->den; WriteReplyToClient(client, sizeof(xGenericReply), &rep); return Success; } void MaybeStopHint(DeviceIntPtr dev, ClientPtr client) { GrabPtr grab = dev->deviceGrab.grab; if ((grab && SameClient(grab, client) && ((grab->eventMask & PointerMotionHintMask) || (grab->ownerEvents && (EventMaskForClient(dev->valuator->motionHintWindow, client) & PointerMotionHintMask)))) || (!grab && (EventMaskForClient(dev->valuator->motionHintWindow, client) & PointerMotionHintMask))) dev->valuator->motionHintWindow = NullWindow; } int ProcGetMotionEvents(ClientPtr client) { WindowPtr pWin; xTimecoord * coords = (xTimecoord *) NULL; xGetMotionEventsReply rep; int i, count, xmin, xmax, ymin, ymax, rc; unsigned long nEvents; DeviceIntPtr mouse = PickPointer(client); TimeStamp start, stop; REQUEST(xGetMotionEventsReq); REQUEST_SIZE_MATCH(xGetMotionEventsReq); rc = dixLookupWindow(&pWin, stuff->window, client, DixGetAttrAccess); if (rc != Success) return rc; rc = XaceHook(XACE_DEVICE_ACCESS, client, mouse, DixReadAccess); if (rc != Success) return rc; if (mouse->valuator->motionHintWindow) MaybeStopHint(mouse, client); rep.type = X_Reply; rep.sequenceNumber = client->sequence; nEvents = 0; start = ClientTimeToServerTime(stuff->start); stop = ClientTimeToServerTime(stuff->stop); if ((CompareTimeStamps(start, stop) != LATER) && (CompareTimeStamps(start, currentTime) != LATER) && mouse->valuator->numMotionEvents) { if (CompareTimeStamps(stop, currentTime) == LATER) stop = currentTime; count = GetMotionHistory(mouse, &coords, start.milliseconds, stop.milliseconds, pWin->drawable.pScreen, TRUE); xmin = pWin->drawable.x - wBorderWidth (pWin); xmax = pWin->drawable.x + (int)pWin->drawable.width + wBorderWidth (pWin); ymin = pWin->drawable.y - wBorderWidth (pWin); ymax = pWin->drawable.y + (int)pWin->drawable.height + wBorderWidth (pWin); for (i = 0; i < count; i++) if ((xmin <= coords[i].x) && (coords[i].x < xmax) && (ymin <= coords[i].y) && (coords[i].y < ymax)) { coords[nEvents].time = coords[i].time; coords[nEvents].x = coords[i].x - pWin->drawable.x; coords[nEvents].y = coords[i].y - pWin->drawable.y; nEvents++; } } rep.length = nEvents * (sizeof(xTimecoord) >> 2); rep.nEvents = nEvents; WriteReplyToClient(client, sizeof(xGetMotionEventsReply), &rep); if (nEvents) { client->pSwapReplyFunc = (ReplySwapPtr) SwapTimeCoordWrite; WriteSwappedDataToClient(client, nEvents * sizeof(xTimecoord), (char *)coords); } if (coords) xfree(coords); return Success; } int ProcQueryKeymap(ClientPtr client) { xQueryKeymapReply rep; int rc, i; DeviceIntPtr keybd = PickKeyboard(client); CARD8 *down = keybd->key->down; REQUEST_SIZE_MATCH(xReq); rep.type = X_Reply; rep.sequenceNumber = client->sequence; rep.length = 2; rc = XaceHook(XACE_DEVICE_ACCESS, client, keybd, DixReadAccess); if (rc != Success) return rc; for (i = 0; i<32; i++) rep.map[i] = down[i]; WriteReplyToClient(client, sizeof(xQueryKeymapReply), &rep); return Success; } /** * Attach device 'dev' to device 'master'. * Client is set to the client that issued the request, or NULL if it comes * from some internal automatic pairing. * * Master may be NULL to set the device floating. * * We don't allow multi-layer hierarchies right now. You can't attach a slave * to another slave. */ int AttachDevice(ClientPtr client, DeviceIntPtr dev, DeviceIntPtr master) { ScreenPtr screen; DeviceIntPtr oldmaster; if (!dev || dev->isMaster) return BadDevice; if (master && !master->isMaster) /* can't attach to slaves */ return BadDevice; /* set from floating to floating? */ if (!dev->u.master && !master) return Success; /* free the existing sprite. */ if (!dev->u.master && dev->spriteInfo->paired == dev) { screen = miPointerGetScreen(dev); screen->DeviceCursorCleanup(dev, screen); xfree(dev->spriteInfo->sprite); } oldmaster = dev->u.master; dev->u.master = master; /* If device is set to floating, we need to create a sprite for it, * otherwise things go bad. However, we don't want to render the cursor, * so we reset spriteOwner. * Sprite has to be forced to NULL first, otherwise InitializeSprite won't * alloc new memory but overwrite the previous one. */ if (!master) { WindowPtr currentRoot = dev->spriteInfo->sprite->spriteTrace[0]; /* we need to init a fake sprite */ screen = currentRoot->drawable.pScreen; screen->DeviceCursorInitialize(dev, screen); dev->spriteInfo->sprite = NULL; InitializeSprite(dev, currentRoot); dev->spriteInfo->spriteOwner = FALSE; dev->spriteInfo->paired = dev; } else { dev->spriteInfo->sprite = master->spriteInfo->sprite; dev->spriteInfo->paired = master; dev->spriteInfo->spriteOwner = FALSE; } /* If we were connected to master device before, this MD may need to * change back to it's original classes. */ if (oldmaster) { DeviceIntPtr it; for (it = inputInfo.devices; it; it = it->next) if (!it->isMaster && it->u.master == oldmaster) break; } return Success; } /** * Return the device paired with the given device or NULL. * Returns the device paired with the parent master if the given device is a * slave device. */ _X_EXPORT DeviceIntPtr GetPairedDevice(DeviceIntPtr dev) { if (!dev->isMaster && dev->u.master) dev = dev->u.master; return dev->spriteInfo->paired; } /** * Create a new master device (== one pointer, one keyboard device). * Only allocates the devices, you will need to call ActivateDevice() and * EnableDevice() manually. */ int AllocMasterDevice(ClientPtr client, char* name, DeviceIntPtr* ptr, DeviceIntPtr* keybd) { DeviceIntPtr pointer; DeviceIntPtr keyboard; ClassesPtr classes; *ptr = *keybd = NULL; pointer = AddInputDevice(client, CorePointerProc, TRUE); if (!pointer) return BadAlloc; pointer->name = xcalloc(strlen(name) + strlen(" pointer") + 1, sizeof(char)); strcpy(pointer->name, name); strcat(pointer->name, " pointer"); #ifdef XKB pointer->public.processInputProc = ProcessOtherEvent; pointer->public.realInputProc = ProcessOtherEvent; if (!noXkbExtension) XkbSetExtension(pointer, ProcessPointerEvent); #else pointer->public.processInputProc = ProcessPointerEvent; pointer->public.realInputProc = ProcessPointerEvent; #endif pointer->deviceGrab.ActivateGrab = ActivatePointerGrab; pointer->deviceGrab.DeactivateGrab = DeactivatePointerGrab; pointer->coreEvents = TRUE; pointer->spriteInfo->spriteOwner = TRUE; pointer->u.lastSlave = NULL; pointer->isMaster = TRUE; keyboard = AddInputDevice(client, CoreKeyboardProc, TRUE); if (!keyboard) { RemoveDevice(pointer); return BadAlloc; } keyboard->name = xcalloc(strlen(name) + strlen(" keyboard") + 1, sizeof(char)); strcpy(keyboard->name, name); strcat(keyboard->name, " keyboard"); #ifdef XKB keyboard->public.processInputProc = ProcessOtherEvent; keyboard->public.realInputProc = ProcessOtherEvent; if (!noXkbExtension) XkbSetExtension(keyboard, ProcessKeyboardEvent); #else keyboard->public.processInputProc = ProcessKeyboardEvent; keyboard->public.realInputProc = ProcessKeyboardEvent; #endif keyboard->deviceGrab.ActivateGrab = ActivateKeyboardGrab; keyboard->deviceGrab.DeactivateGrab = DeactivateKeyboardGrab; keyboard->coreEvents = TRUE; keyboard->spriteInfo->spriteOwner = FALSE; keyboard->u.lastSlave = NULL; keyboard->isMaster = TRUE; /* The ClassesRec stores the device classes currently not used. */ classes = xcalloc(1, sizeof(ClassesRec)); dixSetPrivate(&pointer->devPrivates, UnusedClassesPrivateKey, classes); classes = xcalloc(1, sizeof(ClassesRec)); dixSetPrivate(&keyboard->devPrivates, UnusedClassesPrivateKey, classes); *ptr = pointer; *keybd = keyboard; return Success; }