int main (int argc, char **argv)
{
int fd, rd, i, j, k;
struct input_event ev[64];
int version;
unsigned short id[4];
unsigned long bit[EV_MAX][NBITS(KEY_MAX)];
char name[256] = "Unknown";
int abs[5];
if (argc < 2) {
printf("Usage: evtest /dev/input/eventX\n");
printf("Where X = input device number\n");
return 1;
}
if ((fd = open(argv[argc - 1], O_RDONLY)) < 0) {
perror("evtest");
return 1;
}
if (ioctl(fd, EVIOCGVERSION, &version)) {
perror("evtest: can't get version");
return 1;
}
printf("Input driver version is %d.%d.%d\n",
version >> 16, (version >> 8) & 0xff, version & 0xff);
ioctl(fd, EVIOCGID, id);
printf("Input device ID: bus 0x%x vendor 0x%x product 0x%x version 0x%x\n",
id[ID_BUS], id[ID_VENDOR], id[ID_PRODUCT], id[ID_VERSION]);
ioctl(fd, EVIOCGNAME(sizeof(name)), name);
printf("Input device name: \"%s\"\n", name);
memset(bit, 0, sizeof(bit));
ioctl(fd, EVIOCGBIT(0, EV_MAX), bit[0]);
printf("Supported events:\n");
for (i = 0; i < EV_MAX; i++)
if (test_bit(i, bit[0])) {
printf(" Event type %d (%s)\n", i, events[i] ? events[i] : "?");
if (!i) continue;
ioctl(fd, EVIOCGBIT(i, KEY_MAX), bit[i]);
for (j = 0; j < KEY_MAX; j++)
if (test_bit(j, bit[i])) {
printf(" Event code %d (%s)\n", j, names[i] ? (names[i][j] ? names[i][j] : "?") : "?");
if (i == EV_ABS) {
ioctl(fd, EVIOCGABS(j), abs);
for (k = 0; k < 5; k++)
if ((k < 3) || abs[k])
printf(" %s %6d\n", absval[k], abs[k]);
}
}
}
printf("Testing ... (interrupt to exit)\n");
while (1) {
rd = read(fd, ev, sizeof(struct input_event) * 64);
if (rd < (int) sizeof(struct input_event)) {
printf("yyy\n");
perror("\nevtest: error reading");
return 1;
}
for (i = 0; i < rd / sizeof(struct input_event); i++)
if (ev[i].type == EV_SYN) {
printf("Event: time %ld.%06ld, -------------- %s ------------\n",
ev[i].time.tv_sec, ev[i].time.tv_usec, ev[i].code ? "Config Sync" : "Report Sync" );
} else if (ev[i].type == EV_MSC && (ev[i].code == MSC_RAW || ev[i].code == MSC_SCAN)) {
printf("Event: time %ld.%06ld, type %d (%s), code %d (%s), value %02x\n",
ev[i].time.tv_sec, ev[i].time.tv_usec, ev[i].type,
events[ev[i].type] ? events[ev[i].type] : "?",
ev[i].code,
names[ev[i].type] ? (names[ev[i].type][ev[i].code] ? names[ev[i].type][ev[i].code] : "?") : "?",
ev[i].value);
} else {
printf("Event: time %ld.%06ld, type %d (%s), code %d (%s), value %d\n",
ev[i].time.tv_sec, ev[i].time.tv_usec, ev[i].type,
events[ev[i].type] ? events[ev[i].type] : "?",
ev[i].code,
names[ev[i].type] ? (names[ev[i].type][ev[i].code] ? names[ev[i].type][ev[i].code] : "?") : "?",
ev[i].value);
}
}
}
void Gamepad_detectDevices() {
unsigned int numPaths;
char ** gamepadPaths;
bool duplicate;
unsigned int pathIndex, gamepadIndex;
struct stat statBuf;
struct Gamepad_device * deviceRecord;
struct Gamepad_devicePrivate * deviceRecordPrivate;
int fd;
char name[128];
char * description;
int evKeyBits[(KEY_CNT - 1) / sizeof(int) * 8 + 1];
int evAbsBits[(ABS_CNT - 1) / sizeof(int) * 8 + 1];
int bit;
struct input_id id;
if (!inited) {
return;
}
gamepadPaths = findGamepadPaths(&numPaths);
pthread_mutex_lock(&devicesMutex);
for (pathIndex = 0; pathIndex < numPaths; pathIndex++) {
duplicate = false;
for (gamepadIndex = 0; gamepadIndex < numDevices; gamepadIndex++) {
if (!strcmp(((struct Gamepad_devicePrivate *) devices[gamepadIndex]->privateData)->path, gamepadPaths[pathIndex])) {
duplicate = true;
break;
}
}
if (duplicate) {
free(gamepadPaths[pathIndex]);
continue;
}
if (!stat(gamepadPaths[pathIndex], &statBuf)) {
deviceRecord = (Gamepad_device*)malloc(sizeof(struct Gamepad_device));
deviceRecord->deviceID = nextDeviceID++;
deviceRecord->eventDispatcher = EventDispatcher_create(deviceRecord);
devices = (Gamepad_device**)realloc(devices, sizeof(struct Gamepad_device *) * (numDevices + 1));
devices[numDevices++] = deviceRecord;
fd = open(gamepadPaths[pathIndex], O_RDONLY, 0);
deviceRecordPrivate = (Gamepad_devicePrivate*)malloc(sizeof(struct Gamepad_devicePrivate));
deviceRecordPrivate->fd = fd;
deviceRecordPrivate->path = gamepadPaths[pathIndex];
memset(deviceRecordPrivate->buttonMap, 0xFF, sizeof(deviceRecordPrivate->buttonMap));
memset(deviceRecordPrivate->axisMap, 0xFF, sizeof(deviceRecordPrivate->axisMap));
deviceRecord->privateData = deviceRecordPrivate;
if (ioctl(fd, EVIOCGNAME(sizeof(name)), name) > 0) {
description = (char*)malloc(strlen(name + 1));
strcpy(description, name);
} else {
description = (char*)malloc(strlen(gamepadPaths[pathIndex] + 1));
strcpy(description, gamepadPaths[pathIndex]);
}
deviceRecord->description = description;
if (!ioctl(fd, EVIOCGID, &id)) {
deviceRecord->vendorID = id.vendor;
deviceRecord->productID = id.product;
} else {
deviceRecord->vendorID = deviceRecord->productID = 0;
}
memset(evKeyBits, 0, sizeof(evKeyBits));
memset(evAbsBits, 0, sizeof(evAbsBits));
ioctl(fd, EVIOCGBIT(EV_KEY, sizeof(evKeyBits)), evKeyBits);
ioctl(fd, EVIOCGBIT(EV_ABS, sizeof(evAbsBits)), evAbsBits);
deviceRecord->numAxes = 0;
for (bit = 0; bit < ABS_CNT; bit++) {
if (test_bit(bit, evAbsBits)) {
if (ioctl(fd, EVIOCGABS(bit), &deviceRecordPrivate->axisInfo[bit]) < 0 ||
deviceRecordPrivate->axisInfo[bit].minimum == deviceRecordPrivate->axisInfo[bit].maximum) {
continue;
}
deviceRecordPrivate->axisMap[bit] = deviceRecord->numAxes;
deviceRecord->numAxes++;
}
}
deviceRecord->numButtons = 0;
for (bit = BTN_MISC; bit < KEY_CNT; bit++) {
if (test_bit(bit, evKeyBits)) {
deviceRecordPrivate->buttonMap[bit - BTN_MISC] = deviceRecord->numButtons;
deviceRecord->numButtons++;
}
}
deviceRecord->axisStates = (float*)calloc(sizeof(float), deviceRecord->numAxes);
deviceRecord->buttonStates = (bool*)calloc(sizeof(bool), deviceRecord->numButtons);
Gamepad_eventDispatcher()->dispatchEvent(Gamepad_eventDispatcher(), GAMEPAD_EVENT_DEVICE_ATTACHED, deviceRecord);
pthread_create(&deviceRecordPrivate->thread, NULL, deviceThread, deviceRecord);
}
}
pthread_mutex_unlock(&devicesMutex);
}
int evio_get_joystick_status(evio_handle v, float *abs_x1, float *abs_y1,
float *abs_x2, float *abs_y2, int *buttons) {
struct input_absinfo absinfo;
int xax2, yax2;
evio *evp = (evio *) v;
int rc=0;
memset(&absinfo, 0, sizeof(absinfo));
*abs_x1 = 0;
*abs_y1 = 0;
*abs_x2 = 0;
*abs_y2 = 0;
*buttons = 0;
if (ioctl(evp->fd, EVIOCGABS(ABS_X), &absinfo) < 0) {
return 0;
} else {
rc |= 1;
*abs_x1 = evio_absinfo2float(&absinfo);
}
if (ioctl(evp->fd, EVIOCGABS(ABS_Y), &absinfo) < 0) {
return 0;
} else {
rc |= 1;
*abs_y1 = evio_absinfo2float(&absinfo);
}
switch (evp->devjoystick) {
case EVENTIO_JOYSTICK_LOGIF310:
xax2 = ABS_RX;
yax2 = ABS_RY;
break;
case EVENTIO_JOYSTICK_NYKO:
xax2 = ABS_Z;
yax2 = ABS_RZ;
break;
default:
case EVENTIO_JOYSTICK_STD:
xax2 = 0;
yax2 = 0;
break;
}
if (xax2 && yax2) {
if (ioctl(evp->fd, EVIOCGABS(xax2), &absinfo) < 0) {
return 0;
} else {
rc |= 1;
*abs_x2 = evio_absinfo2float(&absinfo);
}
if (ioctl(evp->fd, EVIOCGABS(yax2), &absinfo) < 0) {
return 0;
} else {
rc |= 1;
*abs_y2 = evio_absinfo2float(&absinfo);
}
}
if (ioctl(evp->fd, EVIOCGKEY(sizeof(evp->keystate)), evp->keystate) >= 0) {
#if 1
int btmp=0;
btmp |= evio_get_button_status(v, BTN_BACK, EVENTIO_BACK);
btmp |= evio_get_button_status(v, BTN_TASK, EVENTIO_TASK);
btmp |= evio_get_button_status(v, BTN_START, EVENTIO_START);
btmp |= evio_get_button_status(v, BTN_A, EVENTIO_GAMEPAD_A);
btmp |= evio_get_button_status(v, BTN_B, EVENTIO_GAMEPAD_B);
btmp |= evio_get_button_status(v, BTN_X, EVENTIO_GAMEPAD_X);
btmp |= evio_get_button_status(v, BTN_Y, EVENTIO_GAMEPAD_Y);
btmp |= evio_get_button_status(v, BTN_TL, EVENTIO_TL);
btmp |= evio_get_button_status(v, BTN_TR, EVENTIO_TR);
btmp |= evio_get_button_status(v, BTN_THUMBL, EVENTIO_THUMBL);
btmp |= evio_get_button_status(v, BTN_THUMBR, EVENTIO_THUMBR);
#else
int i, btmp=0;
for (i=0; i<31; i++) {
if (EVIO_TESTBIT(BTN_GAMEPAD+i, evp->keybit))
btmp |= (1 << i);
}
#endif
*buttons = btmp;
}
return rc;
}
static int
SDL_EVDEV_init_touchscreen(SDL_evdevlist_item* item)
{
int ret, i;
char name[64];
struct input_absinfo abs_info;
if (!item->is_touchscreen)
return 0;
item->touchscreen_data = SDL_calloc(1, sizeof(*item->touchscreen_data));
if (item->touchscreen_data == NULL)
return SDL_OutOfMemory();
ret = ioctl(item->fd, EVIOCGNAME(sizeof(name)), name);
if (ret < 0) {
SDL_free(item->touchscreen_data);
return SDL_SetError("Failed to get evdev touchscreen name");
}
item->touchscreen_data->name = SDL_strdup(name);
if (item->touchscreen_data->name == NULL) {
SDL_free(item->touchscreen_data);
return SDL_OutOfMemory();
}
ret = ioctl(item->fd, EVIOCGABS(ABS_MT_POSITION_X), &abs_info);
if (ret < 0) {
SDL_free(item->touchscreen_data->name);
SDL_free(item->touchscreen_data);
return SDL_SetError("Failed to get evdev touchscreen limits");
}
item->touchscreen_data->min_x = abs_info.minimum;
item->touchscreen_data->max_x = abs_info.maximum;
item->touchscreen_data->range_x = abs_info.maximum - abs_info.minimum;
ret = ioctl(item->fd, EVIOCGABS(ABS_MT_POSITION_Y), &abs_info);
if (ret < 0) {
SDL_free(item->touchscreen_data->name);
SDL_free(item->touchscreen_data);
return SDL_SetError("Failed to get evdev touchscreen limits");
}
item->touchscreen_data->min_y = abs_info.minimum;
item->touchscreen_data->max_y = abs_info.maximum;
item->touchscreen_data->range_y = abs_info.maximum - abs_info.minimum;
ret = ioctl(item->fd, EVIOCGABS(ABS_MT_SLOT), &abs_info);
if (ret < 0) {
SDL_free(item->touchscreen_data->name);
SDL_free(item->touchscreen_data);
return SDL_SetError("Failed to get evdev touchscreen limits");
}
item->touchscreen_data->max_slots = abs_info.maximum + 1;
item->touchscreen_data->slots = SDL_calloc(
item->touchscreen_data->max_slots,
sizeof(*item->touchscreen_data->slots));
if (item->touchscreen_data->slots == NULL) {
SDL_free(item->touchscreen_data->name);
SDL_free(item->touchscreen_data);
return SDL_OutOfMemory();
}
for(i = 0; i < item->touchscreen_data->max_slots; i++) {
item->touchscreen_data->slots[i].tracking_id = -1;
}
ret = SDL_AddTouch(item->fd, /* I guess our fd is unique enough */
item->touchscreen_data->name);
if (ret < 0) {
SDL_free(item->touchscreen_data->slots);
SDL_free(item->touchscreen_data->name);
SDL_free(item->touchscreen_data);
return ret;
}
return 0;
}
static int
touchpad_init(struct touchpad_dispatch *touchpad,
struct evdev_device *device)
{
struct motion_filter *accel;
unsigned long prop_bits[INPUT_PROP_MAX];
struct input_absinfo absinfo;
unsigned long abs_bits[NBITS(ABS_MAX)];
bool has_buttonpad;
double width;
double height;
double diagonal;
touchpad->base.interface = &touchpad_interface;
touchpad->device = device;
/* Detect model */
touchpad->model = get_touchpad_model(device);
ioctl(device->fd, EVIOCGPROP(sizeof(prop_bits)), prop_bits);
has_buttonpad = TEST_BIT(prop_bits, INPUT_PROP_BUTTONPAD);
/* Configure pressure */
ioctl(device->fd, EVIOCGBIT(EV_ABS, sizeof(abs_bits)), abs_bits);
if (TEST_BIT(abs_bits, ABS_PRESSURE)) {
ioctl(device->fd, EVIOCGABS(ABS_PRESSURE), &absinfo);
configure_touchpad_pressure(touchpad,
absinfo.minimum,
absinfo.maximum);
}
/* Configure acceleration factor */
width = abs(device->abs.max_x - device->abs.min_x);
height = abs(device->abs.max_y - device->abs.min_y);
diagonal = sqrt(width*width + height*height);
/* Set default parameters */
touchpad->constant_accel_factor =
DEFAULT_CONSTANT_ACCEL_NUMERATOR / diagonal;
touchpad->min_accel_factor = DEFAULT_MIN_ACCEL_FACTOR;
touchpad->max_accel_factor = DEFAULT_MAX_ACCEL_FACTOR;
touchpad->hysteresis.margin_x =
diagonal / DEFAULT_HYSTERESIS_MARGIN_DENOMINATOR;
touchpad->hysteresis.margin_y =
diagonal / DEFAULT_HYSTERESIS_MARGIN_DENOMINATOR;
touchpad->hysteresis.center_x = 0;
touchpad->hysteresis.center_y = 0;
/* Configure acceleration profile */
accel = create_pointer_accelator_filter(touchpad_profile);
if (accel == NULL)
return -1;
touchpad->filter = accel;
/* Setup initial state */
touchpad->reset = 1;
memset(touchpad->motion_history, 0, sizeof touchpad->motion_history);
touchpad->motion_index = 0;
touchpad->motion_count = 0;
touchpad->state = TOUCHPAD_STATE_NONE;
touchpad->last_finger_state = 0;
touchpad->finger_state = 0;
touchpad->fsm.events = NULL;
touchpad->fsm.events_count = 0;
touchpad->fsm.events_len = 0;
touchpad->fsm.state = FSM_IDLE;
touchpad->fsm.timer.fd = timerfd_create(CLOCK_MONOTONIC, TFD_CLOEXEC);
touchpad->fsm.timer.source =
libinput_add_fd(touchpad->device->base.seat->libinput,
touchpad->fsm.timer.fd,
fsm_timeout_handler,
touchpad);
if (touchpad->fsm.timer.source == NULL) {
close(touchpad->fsm.timer.fd);
accel->interface->destroy(accel);
return -1;
}
/* Configure */
touchpad->fsm.enable = !has_buttonpad;
return 0;
}
int
main(void)
{
TEST_NULL_ARG(EVIOCGVERSION);
TEST_NULL_ARG(EVIOCGEFFECTS);
TEST_NULL_ARG(EVIOCGID);
TEST_NULL_ARG(EVIOCGKEYCODE);
TEST_NULL_ARG(EVIOCSKEYCODE);
TEST_NULL_ARG(EVIOCSFF);
# ifdef EVIOCGKEYCODE_V2
TEST_NULL_ARG(EVIOCGKEYCODE_V2);
# endif
# ifdef EVIOCSKEYCODE_V2
TEST_NULL_ARG(EVIOCSKEYCODE_V2);
# endif
# ifdef EVIOCGREP
TEST_NULL_ARG(EVIOCGREP);
# endif
# ifdef EVIOCSREP
TEST_NULL_ARG(EVIOCSREP);
# endif
# ifdef EVIOCSCLOCKID
TEST_NULL_ARG(EVIOCSCLOCKID);
# endif
TEST_NULL_ARG(EVIOCGNAME(0));
TEST_NULL_ARG(EVIOCGPHYS(0));
TEST_NULL_ARG(EVIOCGUNIQ(0));
TEST_NULL_ARG(EVIOCGKEY(0));
TEST_NULL_ARG(EVIOCGLED(0));
# ifdef EVIOCGMTSLOTS
TEST_NULL_ARG(EVIOCGMTSLOTS(0));
# endif
# ifdef EVIOCGPROP
TEST_NULL_ARG(EVIOCGPROP(0));
# endif
TEST_NULL_ARG(EVIOCGSND(0));
# ifdef EVIOCGSW
TEST_NULL_ARG(EVIOCGSW(0));
# endif
TEST_NULL_ARG(EVIOCGABS(ABS_X));
TEST_NULL_ARG(EVIOCSABS(ABS_X));
TEST_NULL_ARG(EVIOCGBIT(EV_SYN, 0));
TEST_NULL_ARG(EVIOCGBIT(EV_KEY, 1));
TEST_NULL_ARG(EVIOCGBIT(EV_REL, 2));
TEST_NULL_ARG(EVIOCGBIT(EV_ABS, 3));
TEST_NULL_ARG(EVIOCGBIT(EV_MSC, 4));
# ifdef EV_SW
TEST_NULL_ARG(EVIOCGBIT(EV_SW, 5));
# endif
TEST_NULL_ARG(EVIOCGBIT(EV_LED, 6));
TEST_NULL_ARG(EVIOCGBIT(EV_SND, 7));
TEST_NULL_ARG(EVIOCGBIT(EV_REP, 8));
TEST_NULL_ARG(EVIOCGBIT(EV_FF, 9));
TEST_NULL_ARG(EVIOCGBIT(EV_PWR, 10));
TEST_NULL_ARG(EVIOCGBIT(EV_FF_STATUS, 11));
ioctl(-1, EVIOCGBIT(EV_MAX, 42), 0);
printf("ioctl(-1, EVIOCGBIT(%#x /* EV_??? */, 42), NULL)"
" = -1 EBADF (%m)\n", EV_MAX);
ioctl(-1, EVIOCRMFF, lmagic);
printf("ioctl(-1, EVIOCRMFF, %d) = -1 EBADF (%m)\n", (int) lmagic);
ioctl(-1, EVIOCGRAB, lmagic);
printf("ioctl(-1, EVIOCGRAB, %lu) = -1 EBADF (%m)\n", lmagic);
# ifdef EVIOCREVOKE
ioctl(-1, EVIOCREVOKE, lmagic);
printf("ioctl(-1, EVIOCREVOKE, %lu) = -1 EBADF (%m)\n", lmagic);
# endif
const unsigned int size = get_page_size();
void *const page = tail_alloc(size);
fill_memory(page, size);
int *const val_int = tail_alloc(sizeof(*val_int));
*val_int = magic;
# ifdef EVIOCSCLOCKID
ioctl(-1, EVIOCSCLOCKID, val_int);
printf("ioctl(-1, EVIOCSCLOCKID, [%u]) = -1 EBADF (%m)\n", *val_int);
# endif
int *pair_int = tail_alloc(sizeof(*pair_int) * 2);
pair_int[0] = 0xdeadbeef;
pair_int[1] = 0xbadc0ded;
# ifdef EVIOSGREP
ioctl(-1, EVIOCSREP, pair_int);
printf("ioctl(-1, EVIOCSREP, [%u, %u]) = -1 EBADF (%m)\n",
pair_int[0], pair_int[1]);
# endif
pair_int[1] = 1;
ioctl(-1, EVIOCSKEYCODE, pair_int);
printf("ioctl(-1, EVIOCSKEYCODE, [%u, %s]) = -1 EBADF (%m)\n",
pair_int[0], "KEY_ESC");
# ifdef EVIOCSKEYCODE_V2
struct input_keymap_entry *const ike = tail_alloc(sizeof(*ike));
fill_memory(ike, sizeof(*ike));
ike->keycode = 2;
ioctl(-1, EVIOCSKEYCODE_V2, ike);
printf("ioctl(-1, EVIOCSKEYCODE_V2, {flags=%" PRIu8
", len=%" PRIu8 ", ", ike->flags, ike->len);
# if VERBOSE
printf("index=%" PRIu16 ", keycode=%s, scancode=[",
ike->index, "KEY_1");
unsigned int i;
for (i = 0; i < ARRAY_SIZE(ike->scancode); ++i) {
if (i > 0)
printf(", ");
printf("%" PRIx8, ike->scancode[i]);
}
printf("]");
# else
printf("...");
# endif
errno = EBADF;
printf("}) = -1 EBADF (%m)\n");
# endif
struct ff_effect *const ffe = tail_alloc(sizeof(*ffe));
fill_memory(ffe, sizeof(*ffe));
ffe->type = FF_CONSTANT;
ioctl(-1, EVIOCSFF, ffe);
print_ffe_common(ffe, "FF_CONSTANT");
# if VERBOSE
printf(", constant={level=%hd", ffe->u.constant.level);
print_envelope(&ffe->u.constant.envelope);
printf("}");
# else
printf("...");
# endif
errno = EBADF;
printf("}) = -1 EBADF (%m)\n");
# if VERBOSE
ffe->type = FF_RAMP;
ioctl(-1, EVIOCSFF, ffe);
print_ffe_common(ffe, "FF_RAMP");
printf(", ramp={start_level=%hd, end_level=%hd",
ffe->u.ramp.start_level, ffe->u.ramp.end_level);
print_envelope(&ffe->u.ramp.envelope);
errno = EBADF;
printf("}}) = -1 EBADF (%m)\n");
ffe->type = FF_PERIODIC;
ioctl(-1, EVIOCSFF, ffe);
print_ffe_common(ffe, "FF_PERIODIC");
printf(", periodic={waveform=%hu, period=%hu, magnitude=%hd"
", offset=%hd, phase=%hu",
ffe->u.periodic.waveform, ffe->u.periodic.period,
ffe->u.periodic.magnitude, ffe->u.periodic.offset,
ffe->u.periodic.phase);
print_envelope(&ffe->u.periodic.envelope);
printf(", custom_len=%u, custom_data=%p}",
ffe->u.periodic.custom_len, ffe->u.periodic.custom_data);
errno = EBADF;
printf("}) = -1 EBADF (%m)\n");
ffe->type = FF_RUMBLE;
ioctl(-1, EVIOCSFF, ffe);
print_ffe_common(ffe, "FF_RUMBLE");
printf(", rumble={strong_magnitude=%hu, weak_magnitude=%hu}",
ffe->u.rumble.strong_magnitude, ffe->u.rumble.weak_magnitude);
errno = EBADF;
printf("}) = -1 EBADF (%m)\n");
ffe->type = 0xff;
ioctl(-1, EVIOCSFF, ffe);
print_ffe_common(ffe, "0xff /* FF_??? */");
errno = EBADF;
printf("}) = -1 EBADF (%m)\n");
# endif
ioctl(-1, _IOC(_IOC_READ, 0x45, 0x1, 0xff), lmagic);
printf("ioctl(-1, %s, %#lx) = -1 EBADF (%m)\n",
"_IOC(_IOC_READ, 0x45, 0x1, 0xff)", lmagic);
ioctl(-1, _IOC(_IOC_WRITE, 0x45, 0x1, 0xff), lmagic);
printf("ioctl(-1, %s, %#lx) = -1 EBADF (%m)\n",
"_IOC(_IOC_WRITE, 0x45, 0x1, 0xff)", lmagic);
ioctl(-1, _IOC(_IOC_READ|_IOC_WRITE, 0x45, 0xfe, 0xff), lmagic);
printf("ioctl(-1, %s, %#lx) = -1 EBADF (%m)\n",
"_IOC(_IOC_READ|_IOC_WRITE, 0x45, 0xfe, 0xff)", lmagic);
ioctl(-1, _IOC(_IOC_READ|_IOC_WRITE, 0x45, 0, 0), lmagic);
printf("ioctl(-1, %s, %#lx) = -1 EBADF (%m)\n",
"_IOC(_IOC_READ|_IOC_WRITE, 0x45, 0, 0)", lmagic);
puts("+++ exited with 0 +++");
return 0;
}
static SDL_bool EV_ConfigJoystick(STJoystick::STJoystickData* joystick, int fd)
{
int i, t;
unsigned long keybit[40];
unsigned long absbit[40];
unsigned long relbit[40];
/* See if this device uses the new unified event API */
if ( (ioctl(fd, EVIOCGBIT(EV_KEY, sizeof(keybit)), keybit) >= 0) &&
(ioctl(fd, EVIOCGBIT(EV_ABS, sizeof(absbit)), absbit) >= 0) &&
(ioctl(fd, EVIOCGBIT(EV_REL, sizeof(relbit)), relbit) >= 0) ) {
joystick->hwdata->is_hid = SDL_TRUE;
/* Get the number of buttons, axes, and other thingamajigs */
for ( i=BTN_JOYSTICK; i < KEY_MAX; ++i ) {
if ( test_bit(i, keybit) ) {
#ifdef DEBUG_INPUT_EVENTS
printf("Joystick has button: 0x%x\n", i);
#endif
joystick->hwdata->key_map[i-BTN_MISC] =
joystick->nbuttons;
++joystick->nbuttons;
}
}
for ( i=BTN_MISC; i < BTN_JOYSTICK; ++i ) {
if ( test_bit(i, keybit) ) {
#ifdef DEBUG_INPUT_EVENTS
printf("Joystick has button: 0x%x\n", i);
#endif
joystick->hwdata->key_map[i-BTN_MISC] =
joystick->nbuttons;
++joystick->nbuttons;
}
}
for ( i=0; i<ABS_MAX; ++i ) {
/* Skip hats */
if ( i == ABS_HAT0X ) {
i = ABS_HAT3Y;
continue;
}
if ( test_bit(i, absbit) ) {
int values[5];
if ( ioctl(fd, EVIOCGABS(i), values) < 0 )
continue;
#ifdef DEBUG_INPUT_EVENTS
printf("Joystick has absolute axis: %x\n", i);
printf("Values = { %d, %d, %d, %d, %d }\n",
values[0], values[1],
values[2], values[3], values[4]);
#endif /* DEBUG_INPUT_EVENTS */
joystick->hwdata->abs_map[i] = joystick->naxes;
if ( values[1] == values[2] ) {
joystick->hwdata->abs_correct[i].used = 0;
} else {
joystick->hwdata->abs_correct[i].used = 1;
joystick->hwdata->abs_correct[i].coef[0] =
(values[2] + values[1]) / 2 - values[4];
joystick->hwdata->abs_correct[i].coef[1] =
(values[2] + values[1]) / 2 + values[4];
t = ((values[2] - values[1]) / 2 - 2 * values[4]);
if ( t != 0 ) {
joystick->hwdata->abs_correct[i].coef[2] = (1 << 29) / t;
} else {
joystick->hwdata->abs_correct[i].coef[2] = 0;
}
}
++joystick->naxes;
}
}
for ( i=ABS_HAT0X; i <= ABS_HAT3Y; i += 2 ) {
if ( test_bit(i, absbit) || test_bit(i+1, absbit) ) {
#ifdef DEBUG_INPUT_EVENTS
printf("Joystick has hat %d\n",(i-ABS_HAT0X)/2);
#endif
++joystick->nhats;
}
}
if ( test_bit(REL_X, relbit) || test_bit(REL_Y, relbit) ) {
++joystick->nballs;
}
/* Allocate data to keep track of these thingamajigs */
if ( joystick->nhats > 0 ) {
if ( allocate_hatdata(joystick) < 0 ) {
joystick->nhats = 0;
}
}
if ( joystick->nballs > 0 ) {
if ( allocate_balldata(joystick) < 0 ) {
joystick->nballs = 0;
}
}
}
return(joystick->hwdata->is_hid);
}
void Gamepad_detectDevices() {
struct input_id id;
DIR * dev_input;
struct dirent * entity;
unsigned int charsConsumed;
int num;
int fd;
int evCapBits[(EV_CNT - 1) / sizeof(int) * 8 + 1];
int evKeyBits[(KEY_CNT - 1) / sizeof(int) * 8 + 1];
int evAbsBits[(ABS_CNT - 1) / sizeof(int) * 8 + 1];
char fileName[PATH_MAX];
bool duplicate;
unsigned int gamepadIndex;
struct stat statBuf;
struct Gamepad_device * deviceRecord;
struct Gamepad_devicePrivate * deviceRecordPrivate;
char name[128];
char * description;
int bit;
time_t currentTime;
static time_t lastInputStatTime;
if (!inited) {
return;
}
pthread_mutex_lock(&devicesMutex);
dev_input = opendir("/dev/input");
currentTime = time(NULL);
if (dev_input != NULL) {
while ((entity = readdir(dev_input)) != NULL) {
charsConsumed = 0;
if (sscanf(entity->d_name, "event%d%n", &num, &charsConsumed) && charsConsumed == strlen(entity->d_name)) {
snprintf(fileName, PATH_MAX, "/dev/input/%s", entity->d_name);
if (stat(fileName, &statBuf) || statBuf.st_mtime < lastInputStatTime) {
continue;
}
duplicate = false;
for (gamepadIndex = 0; gamepadIndex < numDevices; gamepadIndex++) {
if (!strcmp(((struct Gamepad_devicePrivate *) devices[gamepadIndex]->privateData)->path, fileName)) {
duplicate = true;
break;
}
}
if (duplicate) {
continue;
}
fd = open(fileName, O_RDONLY, 0);
memset(evCapBits, 0, sizeof(evCapBits));
memset(evKeyBits, 0, sizeof(evKeyBits));
memset(evAbsBits, 0, sizeof(evAbsBits));
if (ioctl(fd, EVIOCGBIT(0, sizeof(evCapBits)), evCapBits) < 0 ||
ioctl(fd, EVIOCGBIT(EV_KEY, sizeof(evKeyBits)), evKeyBits) < 0 ||
ioctl(fd, EVIOCGBIT(EV_ABS, sizeof(evAbsBits)), evAbsBits) < 0) {
close(fd);
continue;
}
if (!test_bit(EV_KEY, evCapBits) || !test_bit(EV_ABS, evCapBits) ||
!test_bit(ABS_X, evAbsBits) || !test_bit(ABS_Y, evAbsBits) ||
(!test_bit(BTN_TRIGGER, evKeyBits) && !test_bit(BTN_A, evKeyBits) && !test_bit(BTN_1, evKeyBits))) {
close(fd);
continue;
}
deviceRecord = malloc(sizeof(struct Gamepad_device));
deviceRecord->deviceID = nextDeviceID++;
devices = realloc(devices, sizeof(struct Gamepad_device *) * (numDevices + 1));
devices[numDevices++] = deviceRecord;
deviceRecordPrivate = malloc(sizeof(struct Gamepad_devicePrivate));
deviceRecordPrivate->fd = fd;
deviceRecordPrivate->path = malloc(strlen(fileName) + 1);
strcpy(deviceRecordPrivate->path, fileName);
memset(deviceRecordPrivate->buttonMap, 0xFF, sizeof(deviceRecordPrivate->buttonMap));
memset(deviceRecordPrivate->axisMap, 0xFF, sizeof(deviceRecordPrivate->axisMap));
deviceRecord->privateData = deviceRecordPrivate;
if (ioctl(fd, EVIOCGNAME(sizeof(name)), name) > 0) {
description = malloc(strlen(name) + 1);
strcpy(description, name);
} else {
description = malloc(strlen(fileName) + 1);
strcpy(description, fileName);
}
deviceRecord->description = description;
if (!ioctl(fd, EVIOCGID, &id)) {
deviceRecord->vendorID = id.vendor;
deviceRecord->productID = id.product;
} else {
deviceRecord->vendorID = deviceRecord->productID = 0;
}
memset(evKeyBits, 0, sizeof(evKeyBits));
memset(evAbsBits, 0, sizeof(evAbsBits));
ioctl(fd, EVIOCGBIT(EV_KEY, sizeof(evKeyBits)), evKeyBits);
ioctl(fd, EVIOCGBIT(EV_ABS, sizeof(evAbsBits)), evAbsBits);
deviceRecord->numAxes = 0;
for (bit = 0; bit < ABS_CNT; bit++) {
if (test_bit(bit, evAbsBits)) {
if (ioctl(fd, EVIOCGABS(bit), &deviceRecordPrivate->axisInfo[bit]) < 0 ||
deviceRecordPrivate->axisInfo[bit].minimum == deviceRecordPrivate->axisInfo[bit].maximum) {
continue;
}
deviceRecordPrivate->axisMap[bit] = deviceRecord->numAxes;
deviceRecord->numAxes++;
}
}
deviceRecord->numButtons = 0;
for (bit = BTN_MISC; bit < KEY_CNT; bit++) {
if (test_bit(bit, evKeyBits)) {
deviceRecordPrivate->buttonMap[bit - BTN_MISC] = deviceRecord->numButtons;
deviceRecord->numButtons++;
}
}
deviceRecord->axisStates = calloc(sizeof(float), deviceRecord->numAxes);
deviceRecord->buttonStates = calloc(sizeof(bool), deviceRecord->numButtons);
if (Gamepad_deviceAttachCallback != NULL) {
Gamepad_deviceAttachCallback(deviceRecord, Gamepad_deviceAttachContext);
}
pthread_create(&deviceRecordPrivate->thread, NULL, deviceThread, deviceRecord);
}
}
closedir(dev_input);
}
lastInputStatTime = currentTime;
pthread_mutex_unlock(&devicesMutex);
}
static int vk_init(struct ev *e)
{
char vk_path[PATH_MAX] = "/sys/board_properties/virtualkeys.";
char vks[2048], *ts;
ssize_t len;
int vk_fd;
int i;
e->vk_count = 0;
len = strlen(vk_path);
len = ioctl(e->fd->fd, EVIOCGNAME(sizeof(vk_path) - len), vk_path + len);
if (len <= 0)
return -1;
vk_fd = open(vk_path, O_RDONLY);
if (vk_fd < 0)
return -1;
len = read(vk_fd, vks, sizeof(vks)-1);
close(vk_fd);
if (len <= 0)
return -1;
vks[len] = '\0';
/* Parse a line like:
keytype:keycode:centerx:centery:width:height:keytype2:keycode2:centerx2:...
*/
for (ts = vks, e->vk_count = 1; *ts; ++ts) {
if (*ts == ':')
++e->vk_count;
}
if (e->vk_count % 6) {
LOGW("minui: %s is %d %% 6\n", vk_path, e->vk_count % 6);
}
e->vk_count /= 6;
if (e->vk_count <= 0)
return -1;
e->sent = 0;
e->mt_idx = 0;
ioctl(e->fd->fd, EVIOCGABS(ABS_X), &e->p.xi);
ioctl(e->fd->fd, EVIOCGABS(ABS_Y), &e->p.yi);
e->p.pressed = 0;
ioctl(e->fd->fd, EVIOCGABS(ABS_MT_POSITION_X), &e->mt_p.xi);
ioctl(e->fd->fd, EVIOCGABS(ABS_MT_POSITION_Y), &e->mt_p.yi);
e->mt_p.pressed = 0;
e->vks = malloc(sizeof(*e->vks) * e->vk_count);
for (i = 0; i < e->vk_count; ++i) {
char *token[6];
int j;
for (j = 0; j < 6; ++j) {
token[j] = vk_strtok_r((i||j)?NULL:vks, ":", &ts);
}
if (strcmp(token[0], "0x01") != 0) {
/* Java does string compare, so we do too. */
LOGW("minui: %s: ignoring unknown virtual key type %s\n", vk_path, token[0]);
continue;
}
e->vks[i].scancode = strtol(token[1], NULL, 0);
e->vks[i].centerx = strtol(token[2], NULL, 0);
e->vks[i].centery = strtol(token[3], NULL, 0);
e->vks[i].width = strtol(token[4], NULL, 0);
e->vks[i].height = strtol(token[5], NULL, 0);
}
return 0;
}
#endif
IOCTL(EVIOCGNAME(0)),
IOCTL(EVIOCGPHYS(0)),
IOCTL(EVIOCGUNIQ(0)),
#ifdef EVIOCGPROP
IOCTL(EVIOCGPROP(0)),
#endif
#ifdef EVIOCGMTSLOTS
IOCTL(EVIOCGMTSLOTS(0)),
#endif
IOCTL(EVIOCGKEY(0)),
IOCTL(EVIOCGLED(0)),
IOCTL(EVIOCGSND(0)),
IOCTL(EVIOCGSW(0)),
IOCTL(EVIOCGBIT(0,0)),
IOCTL(EVIOCGABS(0)),
IOCTL(EVIOCSABS(0)),
IOCTL(EVIOCSFF),
IOCTL(EVIOCRMFF),
IOCTL(EVIOCGEFFECTS),
IOCTL(EVIOCGRAB),
#ifdef EVIOCSCLOCKID
IOCTL(EVIOCSCLOCKID),
#endif
};
static const char *const input_devs[] = {
"input",
};
static void input_sanitise(const struct ioctl_group *grp, int childno)
static void input_sanitise(const struct ioctl_group *grp, int childno)
{
unsigned int u, r;
pick_random_ioctl(grp, childno);
switch (shm->syscall[childno].a2) {
case EVIOCGNAME(0):
u = rand();
shm->syscall[childno].a2 = EVIOCGNAME(u);
break;
case EVIOCGPHYS(0):
u = rand();
shm->syscall[childno].a2 = EVIOCGPHYS(u);
break;
case EVIOCGUNIQ(0):
u = rand();
shm->syscall[childno].a2 = EVIOCGUNIQ(u);
break;
#ifdef EVIOCGPROP
case EVIOCGPROP(0):
u = rand();
shm->syscall[childno].a2 = EVIOCGPROP(u);
break;
#endif
#ifdef EVIOCGMTSLOTS
case EVIOCGMTSLOTS(0):
u = rand();
shm->syscall[childno].a2 = EVIOCGMTSLOTS(u);
break;
#endif
case EVIOCGKEY(0):
u = rand();
shm->syscall[childno].a2 = EVIOCGKEY(u);
break;
case EVIOCGLED(0):
u = rand();
shm->syscall[childno].a2 = EVIOCGLED(u);
break;
case EVIOCGSND(0):
u = rand();
shm->syscall[childno].a2 = EVIOCGSND(u);
break;
case EVIOCGSW(0):
u = rand();
shm->syscall[childno].a2 = EVIOCGSW(u);
break;
case EVIOCGBIT(0,0):
u = rand();
r = rand();
if (u % 10) u %= EV_CNT;
if (r % 10) r /= 4;
shm->syscall[childno].a2 = EVIOCGBIT(u, r);
break;
case EVIOCGABS(0):
u = rand();
if (u % 10) u %= ABS_CNT;
shm->syscall[childno].a2 = EVIOCGABS(u);
break;
case EVIOCSABS(0):
u = rand();
if (u % 10) u %= ABS_CNT;
shm->syscall[childno].a2 = EVIOCSABS(u);
break;
default:
break;
}
}
/* Init Event Device Properties */
static byte aipInitEventDev(AIP_EVP e){
/* Variables */
char vk_path[PATH_MAX] = "/sys/board_properties/virtualkeys.";
char vks[2048], *ts = NULL;
ssize_t len;
int vk_fd;
int i;
e->vkn = 0;
len = strlen(vk_path);
len = ioctl(_aip->fds[e->fd_id].fd, EVIOCGNAME(sizeof(e->device_name)), e->device_name);
if (len <= 0){
return 0;
}
/* Blacklist these "input" devices */
if (strcmp(e->device_name, "bma250") == 0){
e->ignored = 1;
}
/* virtualkeys.{device_name} */
strcat(vk_path, e->device_name);
/* Some devices split the keys from the touchscreen */
e->vkn = 0;
vk_fd = open(vk_path, O_RDONLY);
if (vk_fd >= 0){
/* Read Contents */
len = read(vk_fd, vks, sizeof(vks)-1);
close(vk_fd);
/* Return False on Failed */
if (len<=0){
return 0;
}
/* Add string break */
vks[len] = '\0';
/* Parse a line like:
keytype:keycode:centerx:centery:width:height:keytype2:keycode2:centerx2:...
*/
for (ts=vks, e->vkn=1; *ts; ++ts) {
if (*ts == ':'){
e->vkn++;
}
}
e->vkn /= 6;
if (e->vkn <= 0){
return 0;
}
e->down = 0;
}
/* IOCTL ABS DEVICE */
ioctl(_aip->fds[e->fd_id].fd, EVIOCGABS(AIP_ABS_X), &e->p.xi);
ioctl(_aip->fds[e->fd_id].fd, EVIOCGABS(AIP_ABS_Y), &e->p.yi);
ioctl(_aip->fds[e->fd_id].fd, EVIOCGABS(AIP_ABS_MT_POSITION_X), &e->mt_p.xi);
ioctl(_aip->fds[e->fd_id].fd, EVIOCGABS(AIP_ABS_MT_POSITION_Y), &e->mt_p.yi);
e->p.synced = 0;
e->mt_p.synced = 0;
/* LOGS */
printf("\nDEVICE NAME: %s - %s\n", e->device_name, vk_path);
printf("EV ST: minX: %d maxX: %d minY: %d maxY: %d\n", e->p.xi.minimum, e->p.xi.maximum, e->p.yi.minimum, e->p.yi.maximum);
printf("EV MT: minX: %d maxX: %d minY: %d maxY: %d\n", e->mt_p.xi.minimum, e->mt_p.xi.maximum, e->mt_p.yi.minimum, e->mt_p.yi.maximum);
/* Allocate Virtualkeys Count */
e->vks = malloc(sizeof(AIP_VK) * e->vkn);
for (i=0; i<e->vkn; ++i) {
char * token[6];
int j;
for (j=0; j<6; ++j) {
token[j] = aipStrTokR((i||j)?NULL:vks, ":", &ts);
}
if (strcmp(token[0],"0x01") != 0) {
continue;
}
/* Dump It */
e->vks[i].scan = strtol(token[1], NULL, 0);
e->vks[i].x = strtol(token[2], NULL, 0);
e->vks[i].y = strtol(token[3], NULL, 0);
e->vks[i].w = strtol(token[4], NULL, 0);
e->vks[i].h = strtol(token[5], NULL, 0);
}
/* OK */
return 1;
}
void lightgun_event_abs_init(void)
{
int i;
for (i = 0; i < GUN_MAX; i++) {
char name[256] = "Unknown";
uint8_t abs_bitmask[ABS_MAX/8 + 1];
struct input_absinfo abs_features;
if (!lg_devices[i].device)
continue;
if ((lg_devices[i].fd = open(lg_devices[i].device, O_RDONLY)) < 0) {
fprintf(stderr_file, "Lightgun%d: %s[open]: %s",
i + 1, lg_devices[i].device, strerror(errno));
continue;
}
if (ioctl(lg_devices[i].fd, EVIOCGNAME(sizeof(name)), name) < 0) {
fprintf(stderr_file, "Lightgun%d: %s[ioctl/EVIOCGNAME]: %s\n",
i + 1, lg_devices[i].device, strerror(errno));
lg_devices[i].device = NULL;
continue;
}
memset(abs_bitmask, 0, sizeof(abs_bitmask));
if (ioctl(lg_devices[i].fd, EVIOCGBIT(EV_ABS, sizeof(abs_bitmask)), abs_bitmask) < 0) {
fprintf(stderr_file, "Lightgun%d: %s[ioctl/EVIOCGNAME]: %s\n",
i + 1, lg_devices[i].device, strerror(errno));
lg_devices[i].device = NULL;
continue;
}
/* Make sure we have an X and Y axis. Not much good
* without it. */
if (!test_bit(ABS_X, abs_bitmask) || !test_bit(ABS_Y, abs_bitmask)) {
fprintf(stderr_file, "Lightgun%d: %s: Does not contain both X and Y axis, "
"ignoring\n", i + 1, lg_devices[i].device);
lg_devices[i].device = NULL;
continue;
}
if (ioctl(lg_devices[i].fd, EVIOCGABS(ABS_X), &abs_features)) {
fprintf(stderr_file, "Lightgun%d: %s[ioctl/EVIOCGABS(ABX_X)]: %s\n",
i + 1, lg_devices[i].device, strerror(errno));
lg_devices[i].device = NULL;
continue;
}
lg_devices[i].min[LG_X_AXIS] = abs_features.minimum;
lg_devices[i].range[LG_X_AXIS] = abs_features.maximum - abs_features.minimum;
if (ioctl(lg_devices[i].fd, EVIOCGABS(ABS_Y), &abs_features)) {
fprintf(stderr_file, "Lightgun%d: %s[ioctl/EVIOCGABS(ABX_Y)]: %s\n",
i + 1, lg_devices[i].device, strerror(errno));
lg_devices[i].device = NULL;
continue;
}
lg_devices[i].min[LG_Y_AXIS] = abs_features.minimum;
lg_devices[i].range[LG_Y_AXIS] = abs_features.maximum - abs_features.minimum;
fprintf(stderr_file, "Lightgun%d: %s\n", i + 1, name);
fprintf(stderr_file, " X axis: min[%d] range[%d]\n",
lg_devices[i].min[LG_X_AXIS], lg_devices[i].range[LG_X_AXIS]);
fprintf(stderr_file, " Y axis: min[%d] range[%d]\n",
lg_devices[i].min[LG_Y_AXIS], lg_devices[i].range[LG_Y_AXIS]);
}
}
static int
evdev_handle_device(struct evdev_device *device)
{
struct input_absinfo absinfo;
unsigned long ev_bits[NBITS(EV_MAX)];
unsigned long abs_bits[NBITS(ABS_MAX)];
unsigned long rel_bits[NBITS(REL_MAX)];
unsigned long key_bits[NBITS(KEY_MAX)];
int has_key, has_abs;
unsigned int i;
has_key = 0;
has_abs = 0;
device->caps = 0;
ioctl(device->fd, EVIOCGBIT(0, sizeof(ev_bits)), ev_bits);
if (TEST_BIT(ev_bits, EV_ABS)) {
has_abs = 1;
ioctl(device->fd, EVIOCGBIT(EV_ABS, sizeof(abs_bits)),
abs_bits);
if (TEST_BIT(abs_bits, ABS_X)) {
ioctl(device->fd, EVIOCGABS(ABS_X), &absinfo);
device->abs.min_x = absinfo.minimum;
device->abs.max_x = absinfo.maximum;
device->caps |= EVDEV_MOTION_ABS;
}
if (TEST_BIT(abs_bits, ABS_Y)) {
ioctl(device->fd, EVIOCGABS(ABS_Y), &absinfo);
device->abs.min_y = absinfo.minimum;
device->abs.max_y = absinfo.maximum;
device->caps |= EVDEV_MOTION_ABS;
}
if (TEST_BIT(abs_bits, ABS_MT_SLOT)) {
ioctl(device->fd, EVIOCGABS(ABS_MT_POSITION_X),
&absinfo);
device->abs.min_x = absinfo.minimum;
device->abs.max_x = absinfo.maximum;
ioctl(device->fd, EVIOCGABS(ABS_MT_POSITION_Y),
&absinfo);
device->abs.min_y = absinfo.minimum;
device->abs.max_y = absinfo.maximum;
device->is_mt = 1;
device->mt.slot = 0;
device->caps |= EVDEV_TOUCH;
}
}
if (TEST_BIT(ev_bits, EV_REL)) {
ioctl(device->fd, EVIOCGBIT(EV_REL, sizeof(rel_bits)),
rel_bits);
if (TEST_BIT(rel_bits, REL_X) || TEST_BIT(rel_bits, REL_Y))
device->caps |= EVDEV_MOTION_REL;
}
if (TEST_BIT(ev_bits, EV_KEY)) {
has_key = 1;
ioctl(device->fd, EVIOCGBIT(EV_KEY, sizeof(key_bits)),
key_bits);
if (TEST_BIT(key_bits, BTN_TOOL_FINGER) &&
!TEST_BIT(key_bits, BTN_TOOL_PEN) &&
has_abs)
device->dispatch = evdev_touchpad_create(device);
for (i = KEY_ESC; i < KEY_MAX; i++) {
if (i >= BTN_MISC && i < KEY_OK)
continue;
if (TEST_BIT(key_bits, i)) {
device->caps |= EVDEV_KEYBOARD;
break;
}
}
for (i = BTN_MISC; i < KEY_OK; i++) {
if (TEST_BIT(key_bits, i)) {
device->caps |= EVDEV_BUTTON;
break;
}
}
}
if (TEST_BIT(ev_bits, EV_LED)) {
device->caps |= EVDEV_KEYBOARD;
}
/* This rule tries to catch accelerometer devices and opt out. We may
* want to adjust the protocol later adding a proper event for dealing
* with accelerometers and implement here accordingly */
if (has_abs && !has_key && !device->is_mt) {
weston_log("input device %s, %s "
"ignored: unsupported device type\n",
device->devname, device->devnode);
return 0;
}
return 1;
}
HIDDevice::HIDDevice(VRDevice::Factory* sFactory,VRDeviceManager* sDeviceManager,Misc::ConfigurationFile& configFile)
:VRDevice(sFactory,sDeviceManager,configFile),
deviceFd(-1),
keyMap(0),
absAxisMap(0),relAxisMap(0),axisConverters(0),
reportEvents(false),
buttonStates(0),valuatorStates(0)
{
/* First option: Open device by explicit event device file name: */
if(deviceFd<0)
{
std::string deviceFileName=configFile.retrieveString("./deviceFileName","");
if(deviceFileName!="")
{
#ifdef VERBOSE
printf("HIDDevice: Opening device %s\n",deviceFileName.c_str());
fflush(stdout);
#endif
deviceFd=open(deviceFileName.c_str(),O_RDONLY);
if(deviceFd<0)
Misc::throwStdErr("HIDDevice: Unable to open device file \"%s\"",deviceFileName.c_str());
}
}
/* Second option: Open device by vendor ID / product ID: */
if(deviceFd<0)
{
std::string deviceVendorProductId=configFile.retrieveString("./deviceVendorProductId","");
if(deviceVendorProductId!="")
{
/* Split ID string into vendor ID / product ID: */
char* colonPtr;
int vendorId=strtol(deviceVendorProductId.c_str(),&colonPtr,16);
char* endPtr;
int productId=strtol(colonPtr+1,&endPtr,16);
if(*colonPtr!=':'||*endPtr!='\0'||vendorId<0||productId<0)
Misc::throwStdErr("HIDDevice: Malformed vendorId:productId string \"%s\"",deviceVendorProductId.c_str());
#ifdef VERBOSE
printf("HIDDevice: Searching device %04x:%04x\n",vendorId,productId);
fflush(stdout);
#endif
deviceFd=findDevice(vendorId,productId);
if(deviceFd<0)
Misc::throwStdErr("HIDDevice: No device with vendorId:productId %04x:%04x found",vendorId,productId);
}
}
/* Third option: Open device by device name: */
if(deviceFd<0)
{
std::string deviceName=configFile.retrieveString("./deviceName","");
if(deviceName!="")
{
#ifdef VERBOSE
printf("HIDDevice: Searching device %s\n",deviceName.c_str());
fflush(stdout);
#endif
deviceFd=findDevice(deviceName.c_str());
if(deviceFd<0)
Misc::throwStdErr("HIDDevice: No device with name \"%s\" found",deviceName.c_str());
}
}
/* Bail out if no device was found: */
if(deviceFd<0)
Misc::throwStdErr("HIDDevice: No device specified");
/* Set number of trackers on device: */
setNumTrackers(0,configFile);
/* Query all feature types of the device: */
unsigned char featureTypeBits[EV_MAX/8+1];
memset(featureTypeBits,0,EV_MAX/8+1);
if(ioctl(deviceFd,EVIOCGBIT(0,sizeof(featureTypeBits)),featureTypeBits)<0)
Misc::throwStdErr("HIDDevice: Unable to query device feature types");
/* Query the number of keys on the device: */
if(featureTypeBits[EV_KEY/8]&(1<<(EV_KEY%8)))
{
#ifdef VERBOSE
printf("HIDDevice: Initializing buttons...\n");
fflush(stdout);
#endif
/* Query key features: */
unsigned char keyBits[KEY_MAX/8+1];
memset(keyBits,0,KEY_MAX/8+1);
if(ioctl(deviceFd,EVIOCGBIT(EV_KEY,sizeof(keyBits)),keyBits)<0)
Misc::throwStdErr("HIDDevice: Unable to query device key features");
/* Initialize the key translation array: */
keyMap=new int[KEY_MAX+1];
int numKeys=0;
for(int i=0;i<=KEY_MAX;++i)
{
if(keyBits[i/8]&(1<<(i%8)))
{
keyMap[i]=numKeys;
++numKeys;
}
else
keyMap[i]=-1;
}
/* Set number of buttons on device: */
#ifdef VERBOSE
printf("HIDDevice: %d buttons found\n",numKeys);
fflush(stdout);
#endif
setNumButtons(numKeys,configFile);
}
else
setNumButtons(0,configFile);
/* Count the number of absolute and relative axes: */
int numAxes=0;
/* Query the number of absolute axes on the device: */
if(featureTypeBits[EV_ABS/8]&(1<<(EV_ABS%8)))
{
#ifdef VERBOSE
printf("HIDDevice: Initializing absolute axes...\n");
fflush(stdout);
#endif
/* Query absolute axis features: */
unsigned char absAxisBits[ABS_MAX/8+1];
memset(absAxisBits,0,ABS_MAX/8+1);
if(ioctl(deviceFd,EVIOCGBIT(EV_ABS,sizeof(absAxisBits)),absAxisBits)<0)
Misc::throwStdErr("HIDDevice: Unable to query device absolute axis features");
/* Initialize the axis translation array: */
absAxisMap=new int[ABS_MAX+1];
int numAbsAxes=0;
for(int i=0;i<=ABS_MAX;++i)
{
if(absAxisBits[i/8]&(1<<(i%8)))
{
absAxisMap[i]=numAxes;
++numAxes;
++numAbsAxes;
}
else
absAxisMap[i]=-1;
}
#ifdef VERBOSE
printf("HIDDevice: %d absolute axes found\n",numAbsAxes);
fflush(stdout);
#endif
}
/* Query the number of relative axes on the device: */
if(featureTypeBits[EV_REL/8]&(1<<(EV_REL%8)))
{
#ifdef VERBOSE
printf("HIDDevice: Initializing relative axes...\n");
fflush(stdout);
#endif
/* Query relative axis features: */
unsigned char relAxisBits[REL_MAX/8+1];
memset(relAxisBits,0,REL_MAX/8+1);
if(ioctl(deviceFd,EVIOCGBIT(EV_REL,sizeof(relAxisBits)),relAxisBits)<0)
Misc::throwStdErr("HIDDevice: Unable to query device relative axis features");
/* Initialize the axis translation array: */
relAxisMap=new int[REL_MAX+1];
int numRelAxes=0;
for(int i=0;i<=REL_MAX;++i)
{
if(relAxisBits[i/8]&(1<<(i%8)))
{
relAxisMap[i]=numAxes;
++numAxes;
++numRelAxes;
}
else
relAxisMap[i]=-1;
}
#ifdef VERBOSE
printf("HIDDevice: %d relative axes found\n",numRelAxes);
fflush(stdout);
#endif
}
/* Set number of valuators on device: */
setNumValuators(numAxes,configFile);
/* Initialize axis converters: */
axisConverters=new AxisConverter[numAxes];
if(absAxisMap!=0)
{
/* Initialize absolute axis converters: */
#ifdef VERBOSE
printf("HIDDevice: Initializing absolute axis converters\n");
fflush(stdout);
#endif
for(int i=0;i<=ABS_MAX;++i)
if(absAxisMap[i]>=0)
{
/* Query configuration of this axis: */
input_absinfo absAxisConf;
if(ioctl(deviceFd,EVIOCGABS(i),&absAxisConf)<0)
Misc::throwStdErr("HIDDevice: Unable to query device absolute axis configuration");
#ifdef VERBOSE
printf("Axis %2d: min %d, max %d, fuzz %d, flat %d\n",absAxisMap[i],absAxisConf.minimum,absAxisConf.maximum,absAxisConf.fuzz,absAxisConf.flat);
fflush(stdout);
#endif
/* Initialize converter with queried values: */
AxisConverter& converter=axisConverters[absAxisMap[i]];
float mid=Math::mid(absAxisConf.minimum,absAxisConf.maximum);
converter=AxisConverter(absAxisConf.minimum,mid-absAxisConf.flat,mid+absAxisConf.flat,absAxisConf.maximum);
/* Override axis settings from configuration file: */
char axisSettingsTag[20];
snprintf(axisSettingsTag,sizeof(axisSettingsTag),"axis%dSettings",absAxisMap[i]);
converter=configFile.retrieveValue<AxisConverter>(axisSettingsTag,converter);
#ifdef VERBOSE
printf("Axis %2d: %s\n",absAxisMap[i],Misc::ValueCoder<AxisConverter>::encode(converter).c_str());
fflush(stdout);
#endif
}
}
if(relAxisMap!=0)
{
/* Initialize relative axis converters: */
#ifdef VERBOSE
printf("HIDDevice: Initializing relative axis converters\n");
fflush(stdout);
#endif
for(int i=0;i<=REL_MAX;++i)
if(relAxisMap[i]>=0)
{
/* Initialize converter with default values: */
AxisConverter& converter=axisConverters[relAxisMap[i]];
converter=AxisConverter(-1.0f,1.0f);
/* Override axis settings from configuration file: */
char axisSettingsTag[20];
snprintf(axisSettingsTag,sizeof(axisSettingsTag),"axis%dSettings",relAxisMap[i]);
converter=configFile.retrieveValue<AxisConverter>(axisSettingsTag,converter);
#ifdef VERBOSE
printf("Axis %2d: %s\n",relAxisMap[i],Misc::ValueCoder<AxisConverter>::encode(converter).c_str());
fflush(stdout);
#endif
}
}
#if 0
/* Initialize gain arrays: */
valuatorGains=new float[getNumValuators()];
for(int i=0;i<getNumValuators();++i)
{
char valuatorGainTag[40];
snprintf(valuatorGainTag,sizeof(valuatorGainTag),"./valuatorGain%d",i);
valuatorGains[i]=configFile.retrieveValue<float>(valuatorGainTag,1.0f);
}
#endif
/* Initialize state arrays: */
buttonStates=new bool[getNumButtons()];
for(int i=0;i<getNumButtons();++i)
buttonStates[i]=false;
valuatorStates=new float[getNumValuators()];
for(int i=0;i<getNumValuators();++i)
valuatorStates[i]=0.0f;
/* Start device thread (HID device cannot be disabled): */
startDeviceThread();
}
int init_hid_device(char* device_name)
{
int cnt;
unsigned long buttons,axes;
unsigned long key_bits[32],abs_bits[32],led_bits[32];
// unsigned long ff_bits[32];
int valbuf[16];
char name[MAX_NAME_LENGTH] = "Unknown";
stick_button_count = 0;
stick_axis_count = 0;
/* Detect device mode, event interface or joystick */
if (strstr( device_name, "event" ) == 0 ) {
dbgprintf(stderr," Using Joystick interface\n");
event_mode = STICK_MODE_JOYSTICK;
} else {
dbgprintf(stderr," Using Event interface\n");
event_mode = STICK_MODE_EVENT;
}
/* Open event device read only (with write permission for ff) */
stick_device_handle = open(device_name,O_RDONLY|O_NONBLOCK);
if (stick_device_handle<0) {
dbgprintf(stderr,"ERROR: can not open %s (%s) [%s:%d]\n",
device_name,strerror(errno),__FILE__,__LINE__);
return(1);
}
/* LED testing */
// led_test( );
/* Which buttons has the device? */
memset(key_bits,0,32*sizeof(unsigned long));
memset(led_bits,0,32*sizeof(unsigned long));
if (event_mode == STICK_MODE_EVENT ) {
if (ioctl(stick_device_handle,EVIOCGBIT(EV_KEY,32*sizeof(unsigned long)),key_bits)<0) {
dbgprintf(stderr,"ERROR: can not get key bits (%s) [%s:%d]\n",
strerror(errno),__FILE__,__LINE__);
return(1);
}
//read LED count
if (ioctl(stick_device_handle,EVIOCGLED(32*sizeof(led_bits)),led_bits)<0) {
dbgprintf(stderr,"ERROR: can not get LED bits (%s) [%s:%d]\n",
strerror(errno),__FILE__,__LINE__);
return(1);
}
dbgprintf(stderr,"LEDs: %X",*led_bits);
} else {
if (ioctl(stick_device_handle,JSIOCGBUTTONS,&buttons)<0) {
dbgprintf(stderr,"ERROR: can not get key bits (%s) [%s:%d]\n",
strerror(errno),__FILE__,__LINE__);
return(1);
}
}
/* Store buttons */
if (stick_init_param.button_count > 0) {
for (cnt = 0; cnt < MIN(stick_init_param.button_count,BUTTON_COUNT); cnt++) {
if (!TEST_BIT(stick_init_param.button_code[cnt], key_bits)) {
dbgprintf(stderr,"ERROR: no suitable custom button %d found [%s:%d]\n",cnt,__FILE__,__LINE__);
return 1;
}
}
stick_button_count = stick_init_param.button_count;
memcpy(button_code,stick_init_param.button_code,BUTTON_COUNT*sizeof(int));
}
else {
if (event_mode == STICK_MODE_EVENT) {
for (cnt = MIN_BUTTON_CODE; cnt < MAX_BUTTON_CODE; cnt++) {
if (TEST_BIT(cnt, key_bits)) {
button_code[stick_button_count++] = cnt;
dbgprintf(stderr,"Available button: %d (0x%x)\n",cnt,cnt);
}
if (stick_button_count == BUTTON_COUNT) break;
}
} else {
for (cnt = 0; cnt < buttons; cnt++) {
button_code[stick_button_count++] = cnt;
dbgprintf(stderr,"Available button: %d (0x%x)\n",cnt,cnt);
if (stick_button_count == BUTTON_COUNT) break;
}
}
if (stick_button_count == 0) {
dbgprintf(stderr,"ERROR: no suitable buttons found [%s:%d]\n",__FILE__,__LINE__);
}
}
/* Which axis has the device? */
memset(abs_bits,0,32*sizeof(unsigned long));
if (event_mode == STICK_MODE_EVENT ) {
if (ioctl(stick_device_handle,EVIOCGBIT(EV_ABS,32*sizeof(unsigned long)),abs_bits)<0) {
dbgprintf(stderr,"ERROR: can not get abs bits (%s) [%s:%d]\n",
strerror(errno),__FILE__,__LINE__);
return(1);
}
} else {
if (ioctl(stick_device_handle,JSIOCGAXES,&axes)<0) {
dbgprintf(stderr,"ERROR: can not get abs bits (%s) [%s:%d]\n",
strerror(errno),__FILE__,__LINE__);
return(1);
}
}
/* Store axis */
if (stick_init_param.axis_count > 0) {
for (cnt = 0; cnt < MIN(stick_init_param.axis_count,AXIS_COUNT); cnt++) {
if (!TEST_BIT(stick_init_param.axis_code[cnt], abs_bits)) {
dbgprintf(stderr,"ERROR: no suitable custom axis %d found [%s:%d]\n",cnt,__FILE__,__LINE__);
return 1;
}
}
stick_axis_count = stick_init_param.axis_count;
memcpy(axis_code,stick_init_param.axis_code,AXIS_COUNT*sizeof(int));
}
else {
if(event_mode == STICK_MODE_EVENT) {
for (cnt = MIN_ABS_CODE; cnt < MAX_ABS_CODE; cnt++) {
if (TEST_BIT(cnt, abs_bits)) {
axis_code[stick_axis_count++] = cnt;
dbgprintf(stderr,"Available axis: %d (0x%x)\n",cnt,cnt);
}
if (stick_axis_count == AXIS_COUNT) break;
}
} else {
for (cnt = 0; cnt < axes; cnt++) {
axis_code[stick_axis_count++] = cnt;
dbgprintf(stderr,"Available axis: %d (0x%x)\n",cnt,cnt);
if (stick_axis_count == AXIS_COUNT) break;
}
}
// at least 2 axis are needed in auto detection
if (stick_axis_count < 2) {
dbgprintf(stderr,"ERROR: no suitable axis found [%s:%d]\n",__FILE__,__LINE__);
return(1);
}
}
/* Axis param */
for (cnt = 0; cnt < stick_axis_count; cnt++)
{
if (event_mode == STICK_MODE_EVENT ) {
/* get axis value range */
if (ioctl(stick_device_handle,EVIOCGABS(axis_code[cnt]),valbuf)<0) {
dbgprintf(stderr,"ERROR: can not get axis %d value range (%s) [%s:%d]\n",
cnt,strerror(errno),__FILE__,__LINE__);
return(1);
}
axis_min[cnt]=valbuf[1];
axis_max[cnt]=valbuf[2];
} else {
// with joystick interface, all axes are signed 16 bit with full range
axis_min[cnt]=-32768;
axis_max[cnt]=32768;
}
if (axis_min[cnt]>=axis_max[cnt]) {
dbgprintf(stderr,"ERROR: bad axis %d value range (%d,%d) [%s:%d]\n",
cnt,axis_min[cnt],axis_max[cnt],__FILE__,__LINE__);
return(1);
}
dbgprintf(stderr,"Axis %d : parameters = [%d,%d]\n",
cnt,axis_min[cnt],axis_max[cnt]);
}
//--------------------------------------------------
// force feedback, TBD feature
//--------------------------------------------------
#if 0
/* Now get some information about force feedback */
memset(ff_bits,0,32*sizeof(unsigned long));
if (ioctl(device_handle,EVIOCGBIT(EV_FF ,32*sizeof(unsigned long)),ff_bits)<0) {
dbgprintf(stderr,"ERROR: can not get ff bits (%s) [%s:%d]\n",
strerror(errno),__FILE__,__LINE__);
return(1);
}
/* force feedback supported? */
if (!TEST_BIT(FF_CONSTANT,ff_bits)) {
dbgprintf(stderr,"ERROR: device (or driver) has no force feedback support [%s:%d]\n",
__FILE__,__LINE__);
return(1);
}
/* Switch off auto centering */
memset(&event,0,sizeof(event));
event.type=EV_FF;
event.code=FF_AUTOCENTER;
event.value=0;
if (write(device_handle,&event,sizeof(event))!=sizeof(event)) {
dbgprintf(stderr,"ERROR: failed to disable auto centering (%s) [%s:%d]\n",
strerror(errno),__FILE__,__LINE__);
return(1);
}
/* Initialize constant force effect */
memset(&effect,0,sizeof(effect));
effect.type=FF_CONSTANT;
effect.id=-1;
effect.trigger.button=0;
effect.trigger.interval=0;
effect.replay.length=0xffff;
effect.replay.delay=0;
effect.u.constant.level=0;
effect.direction=0xC000;
effect.u.constant.envelope.attack_length=0;
effect.u.constant.envelope.attack_level=0;
effect.u.constant.envelope.fade_length=0;
effect.u.constant.envelope.fade_level=0;
/* Upload effect */
if (ioctl(device_handle,EVIOCSFF,&effect)==-1) {
dbgprintf(stderr,"ERROR: uploading effect failed (%s) [%s:%d]\n",
strerror(errno),__FILE__,__LINE__);
return(1);
}
/* Start effect */
memset(&event,0,sizeof(event));
event.type=EV_FF;
event.code=effect.id;
event.value=1;
if (write(device_handle,&event,sizeof(event))!=sizeof(event)) {
dbgprintf(stderr,"ERROR: starting effect failed (%s) [%s:%d]\n",
strerror(errno),__FILE__,__LINE__);
return(1);
}
#endif
if (event_mode == STICK_MODE_EVENT ) {
ioctl(stick_device_handle, EVIOCGNAME(sizeof(name)), name);
} else {
ioctl(stick_device_handle, JSIOCGNAME(MAX_NAME_LENGTH), name);
}
printf("Input device name: \"%s\" on device \"%s\"\n", name, device_name);
return(0);
}
static struct orng_device_info *
read_devinfo(struct orng_device_info *devinfo, int with_scancodes, int fd)
{
int i;
char buf[1024];
__u32 sc;
__u16 j;
int res = 0;
__u32 nsc;
memset(devinfo, 0, sizeof(*devinfo));
/* device identifier */
if (ioctl(fd, EVIOCGID, &devinfo->id) < 0) {
fprintf(stderr, "ioctl(EVIOCGID): %s\n", strerror(errno));
goto err_ioctl;
}
/* event bits */
if (ioctl(fd, EVIOCGBIT(0, sizeof(devinfo->evbit)), devinfo->evbit) < 0) {
fprintf(stderr, "ioctl(EVIOCGBIT(0)): %s\n", strerror(errno));
goto err_ioctl;
}
/* keys */
if (TEST_ARRAY_BIT(devinfo->evbit, EV_KEY)) {
if (ioctl(fd, EVIOCGBIT(EV_KEY, sizeof(devinfo->keybit)), devinfo->keybit) < 0) {
fprintf(stderr, "ioctl(EVIOCGBIT(EV_KEY)): %s\n", strerror(errno));
goto err_ioctl;
}
/* key state */
if (TEST_ARRAY_BIT(devinfo->evbit, EV_KEY)) {
if (ioctl(fd, EVIOCGKEY(sizeof(devinfo->key)), devinfo->key) < 0) {
fprintf(stderr, "ioctl(EVIOCGKEY(%zu)): %s\n",
sizeof(buf), strerror(errno));
goto err_ioctl;
}
}
/* read mapping between scan codes and key codes */
if (with_scancodes) {
nsc = 1ul<<((CHAR_BIT*sizeof(devinfo->keymap[0][0]))-1);
for (sc = 0, j = 0; sc < nsc; ++sc) {
int map[2] = {sc, 0};
int res = ioctl(fd, EVIOCGKEYCODE, map);
if (res < 0) {
if (errno != EINVAL) {
fprintf(stderr, "ioctl: %s\n", strerror(errno));
goto err_ioctl;
}
} else {
/* save mapping */
devinfo->keymap[j][0] = map[0]; /* scan code */
devinfo->keymap[j][1] = map[1]; /* key code */
++j;
if (j >= sizeof(devinfo->keymap)/sizeof(devinfo->keymap[0])) {
break;
}
}
}
}
}
/* relative positioning */
if (TEST_ARRAY_BIT(devinfo->evbit, EV_REL)) {
if (ioctl(fd, EVIOCGBIT(EV_REL, sizeof(devinfo->relbit)), devinfo->relbit) < 0) {
fprintf(stderr, "ioctl(EVIOCGBIT(EV_REL)): %s\n", strerror(errno));
goto err_ioctl;
}
}
/* absolute positioning */
if (TEST_ARRAY_BIT(devinfo->evbit, EV_ABS)) {
if (ioctl(fd, EVIOCGBIT(EV_ABS, sizeof(devinfo->absbit)), devinfo->absbit) < 0) {
fprintf(stderr, "ioctl(EVIOCGBIT(EV_ABS)): %s\n", strerror(errno));
goto err_ioctl;
}
/* limits */
for (i = 0; i <= ABS_MAX; ++i) {
if (TEST_ARRAY_BIT(devinfo->absbit, i)) {
if (ioctl(fd, EVIOCGABS(i), devinfo->absinfo+i) < 0) {
fprintf(stderr, "ioctl(EVIOCGABS(%d)): %s\n", i, strerror(errno));
goto err_ioctl;
}
}
}
}
/* misc */
if (TEST_ARRAY_BIT(devinfo->evbit, EV_MSC)) {
if (ioctl(fd, EVIOCGBIT(EV_MSC, sizeof(devinfo->mscbit)), devinfo->mscbit) < 0) {
fprintf(stderr, "ioctl(EVIOCGBIT(EV_MSC)): %s\n", strerror(errno));
goto err_ioctl;
}
}
/* LEDs */
if (TEST_ARRAY_BIT(devinfo->evbit, EV_LED)) {
if (ioctl(fd, EVIOCGBIT(EV_LED, sizeof(devinfo->ledbit)), devinfo->ledbit) < 0) {
fprintf(stderr, "ioctl(EVIOCGBIT(EV_LED)): %s\n", strerror(errno));
goto err_ioctl;
}
/* LED state */
if (TEST_ARRAY_BIT(devinfo->evbit, EV_LED)) {
if (ioctl(fd, EVIOCGLED(sizeof(devinfo->led)), devinfo->led) < 0) {
fprintf(stderr, "ioctl(EVIOCGLED(%zu)): %s\n",
sizeof(buf), strerror(errno));
goto err_ioctl;
}
}
}
/* sound */
if (TEST_ARRAY_BIT(devinfo->evbit, EV_SND)) {
if (ioctl(fd, EVIOCGBIT(EV_SND, sizeof(devinfo->sndbit)), devinfo->sndbit) < 0) {
fprintf(stderr, "ioctl(EVIOCGBIT(EV_SND)): %s\n", strerror(errno));
goto err_ioctl;
}
/* sound state */
if (TEST_ARRAY_BIT(devinfo->evbit, EV_SW)) {
if (ioctl(fd, EVIOCGSND(sizeof(devinfo->snd)), devinfo->snd) < 0) {
fprintf(stderr, "ioctl(EVIOCGSND(%zu)): %s\n",
sizeof(buf), strerror(errno));
goto err_ioctl;
}
}
}
/* force feedback */
if (TEST_ARRAY_BIT(devinfo->evbit, EV_FF)) {
if (ioctl(fd, EVIOCGBIT(EV_FF, sizeof(devinfo->ffbit)), devinfo->ffbit) < 0) {
fprintf(stderr, "ioctl(EVIOCGBIT(EV_FF)): %s\n", strerror(errno));
goto err_ioctl;
}
}
/* switches */
if (TEST_ARRAY_BIT(devinfo->evbit, EV_SW)) {
if (ioctl(fd, EVIOCGBIT(EV_SW, sizeof(devinfo->swbit)), devinfo->swbit) < 0) {
fprintf(stderr, "ioctl(EVIOCGBIT(EV_SW)): %s\n", strerror(errno));
goto err_ioctl;
}
/* switch state */
if (TEST_ARRAY_BIT(devinfo->evbit, EV_SW)) {
if (ioctl(fd, EVIOCGSW(sizeof(devinfo->sw)), devinfo->sw) < 0) {
fprintf(stderr, "ioctl(EVIOCGSW(%zu)): %s\n",
sizeof(buf), strerror(errno));
goto err_ioctl;
}
}
}
/* auto repeat */
if (TEST_ARRAY_BIT(devinfo->evbit, EV_REP)) {
if (ioctl(fd, EVIOCGREP, devinfo->rep) < 0) {
fprintf(stderr, "ioctl(EVIOCGREP): %s\n", strerror(errno));
goto err_ioctl;
}
}
/* name */
memset(buf, 0, sizeof(buf));
do {
res = ioctl(fd, EVIOCGNAME(sizeof(buf)), buf);
} while ((res < 0) && (errno == EINTR));
if (res >= 0) {
devinfo->name = strndup(buf, sizeof(buf)-1);
if (!devinfo->name) {
fprintf(stderr, "strdup: %s\n", strerror(errno));
goto err_strdup_name;
}
} else if (errno != ENOENT) {
fprintf(stderr, "ioctl(EVIOCGPHYS(%lu)): %s\n",
(unsigned long)sizeof(buf), strerror(errno));
goto err_ioctl;
}
/* physical location */
memset(buf, 0, sizeof(buf));
do {
res = ioctl(fd, EVIOCGPHYS(sizeof(buf)), buf);
} while ((res < 0) && (errno == EINTR));
if (res >= 0) {
devinfo->phys = strndup(buf, sizeof(buf)-1);
if (!devinfo->phys) {
fprintf(stderr, "strdup: %s\n", strerror(errno));
goto err_strdup_phys;
}
} else if (errno != ENOENT) {
fprintf(stderr, "ioctl(EVIOCGPHYS(%lu)): %s\n",
(unsigned long)sizeof(buf), strerror(errno));
goto err_ioctl;
}
/* unique identifier */
memset(buf, 0, sizeof(buf));
do {
res = ioctl(fd, EVIOCGUNIQ(sizeof(buf)), buf);
} while ((res < 0) && (errno == EINTR));
if (res >= 0) {
devinfo->uniq = strndup(buf, sizeof(buf)-1);
if (!devinfo->uniq) {
fprintf(stderr, "strdup: %s\n", strerror(errno));
goto err_strdup_uniq;
}
} else if (errno != ENOENT) {
fprintf(stderr, "ioctl(EVIOCGUNIQ(%lu)): %s\n",
(unsigned long)sizeof(buf), strerror(errno));
goto err_ioctl;
}
return devinfo;
err_strdup_uniq:
free(devinfo->phys);
err_strdup_phys:
err_ioctl_gphys:
free(devinfo->name);
err_strdup_name:
err_ioctl:
return NULL;
}
EvdevDevice::EvdevDevice(const std::string& filename)
: device(filename)
{
fd = open(device.c_str(), O_RDONLY | O_NONBLOCK);
if (fd == -1)
{
throw std::runtime_error(filename + ": " + std::string(strerror(errno)));
}
if (ioctl(fd, EVIOCGVERSION, &version))
{
throw std::runtime_error("Error: EvdevDevice: Couldn't get version for " + filename);
}
if (1)
{ // FIXME: Some versions of linux don't have these structs, use arrays there
struct input_id id;
ioctl(fd, EVIOCGID, &id);
printf("Input device ID: bus 0x%x vendor 0x%x product 0x%x version 0x%x\n",
id.bustype, id.vendor, id.product, id.vendor);
}
{ // Get the human readable name
char c_name[256] = "unknown";
ioctl(fd, EVIOCGNAME(sizeof(c_name)), c_name);
name = c_name;
std::cout << "Name: " << name << std::endl;
}
{ // Read in how many buttons the device has
unsigned long bit[EV_MAX][NBITS(KEY_MAX)];
memset(bit, 0, sizeof(bit));
ioctl(fd, EVIOCGBIT(0, EV_MAX), bit[0]);
for (int i = 0; i < EV_MAX; i++)
{
if (test_bit(i, bit[0]))
{
//printf(" Event type %d (%s)\n", i, events[i] ? events[i] : "?");
if (!i) continue;
ioctl(fd, EVIOCGBIT(i, KEY_MAX), bit[i]);
for (int j = 0; j < KEY_MAX; j++)
{
if (test_bit(j, bit[i]))
{
if (i == EV_KEY)
{
keys.push_back(Key(j));
}
else if (i == EV_ABS)
{
// FIXME: Some Linuxes don't have these struct
struct input_absinfo absinfo;
ioctl(fd, EVIOCGABS(j), &absinfo);
// FIXME: we are ignoring absinfo.fuzz and
// absinfo.flat = deadzone
// absinfo.fuzz = values in which range can be considered the same (jitter)
absolutes.push_back(Absolute(j, absinfo.minimum, absinfo.maximum, absinfo.value));
}
else if (i == EV_REL)
{
relatives.push_back(Relative(j));
}
}
}
}
}
}
}
void swipe_handle_input(int fd, struct input_event *ev) {
int abs_store[6] = {0};
int k;
ioctl(fd, EVIOCGABS(ABS_MT_POSITION_X), abs_store);
int max_x_touch = abs_store[2];
ioctl(fd, EVIOCGABS(ABS_MT_POSITION_Y), abs_store);
int max_y_touch = abs_store[2];
if(ev->type == EV_ABS && ev->code == ABS_MT_TRACKING_ID) {
if(in_touch == 0) {
in_touch = 1;
reset_gestures();
} else { // finger lifted
ev->type = EV_KEY;
int keywidth = gr_fb_width() / 4;
if(slide_right == 1) {
ev->code = KEY_POWER;
slide_right = 0;
} else if(slide_left == 1) {
ev->code = KEY_BACK;
slide_left = 0;
}
ev->value = 1;
in_touch = 0;
reset_gestures();
}
} else if(ev->type == EV_ABS && ev->code == ABS_MT_POSITION_X) {
old_x = touch_x;
float touch_x_rel = (float)ev->value / (float)max_x_touch;
touch_x = touch_x_rel * gr_fb_width();
if(old_x != 0) diff_x += touch_x - old_x;
if(diff_x > 100) {
slide_right = 1;
reset_gestures();
} else if(diff_x < -100) {
slide_left = 1;
reset_gestures();
}
} else if(ev->type == EV_ABS && ev->code == ABS_MT_POSITION_Y) {
old_y = touch_y;
float touch_y_rel = (float)ev->value / (float)max_y_touch;
touch_y = touch_y_rel * gr_fb_height();
if(old_y != 0) diff_y += touch_y - old_y;
if(diff_y > 80) {
ev->code = KEY_VOLUMEDOWN;
ev->type = EV_KEY;
reset_gestures();
} else if(diff_y < -80) {
ev->code = KEY_VOLUMEUP;
ev->type = EV_KEY;
reset_gestures();
}
}
return;
}
static bool enumerateAxesEvdev(int fd, axes_t *axes)
{
//printf("Enumerating evdev axes\n");
uint8_t bit[KEY_MAX / 8 + 1];
memset(bit, 0, sizeof(bit));
if(ioctl(fd, EVIOCGBIT(0, EV_MAX), bit) < 0){
ltr_int_my_perror("EVIOCGBIT_1");
return false;
}
int type;
if(!(bit[0] & (1 << EV_ABS))){
//printf("No absolute events available.\n");
return false;
}
//printf("We have absolute events available!\n");
//We have some absolute axes
memset(bit, 0, sizeof(bit));
if(ioctl(fd, EVIOCGBIT(EV_ABS, KEY_MAX), bit) < 0){
ltr_int_my_perror("EVIOCGBIT_2");
return false;
}
//Get axes number
axes->axes = 0;
for(type = 0; type < KEY_MAX; ++type){
if(bit[type >> 3] & (1 << (type & 7))){
++axes->axes;
}
}
if((axes->axesList = (uint8_t*)malloc(axes->axes * sizeof(uint8_t))) == NULL){
ltr_int_my_perror("malloc");
return false;
}
memset(axes->axesList, 0, axes->axes);
if((axes->axisNames = (const char**)malloc(axes->axes * sizeof(char*))) == NULL){
ltr_int_my_perror("malloc");
return false;
}
if((axes->min = (int*)malloc(axes->axes * sizeof(int))) == NULL){
ltr_int_my_perror("malloc");
return false;
}
if((axes->max = (int*)malloc(axes->axes * sizeof(int))) == NULL){
ltr_int_my_perror("malloc");
return false;
}
size_t current = 0;
for(type = 0; type < KEY_MAX; ++type){
if(bit[type >> 3] & (1 << (type & 7))){
axes->axesList[current] = type;
axes->axisNames[current] = getAxisName(type);
struct input_absinfo ai = {0};
if(ioctl(fd, EVIOCGABS(type), &ai) < 0){
ltr_int_my_perror("EVIOCGABS");
free(axes->axesList);
free(axes->min);
free(axes->max);
axes->axesList = NULL;
axes->min = NULL;
axes->max = NULL;
axes->axes = 0;
return false;
}
ltr_int_log_message("Axis: %d (%s)\n", type, getAxisName(type));
ltr_int_log_message(" Val: %d\n", ai.value);
ltr_int_log_message(" Minimum: %d\n", ai.minimum);
ltr_int_log_message(" Maximum: %d\n", ai.maximum);
ltr_int_log_message(" Fuzz: %d\n", ai.fuzz);
ltr_int_log_message(" Flat: %d\n", ai.flat);
ltr_int_log_message(" Resolution: %d\n", ai.resolution);
axes->min[current] = ai.minimum;
axes->max[current] = ai.maximum;
++current;
}
}
return true;
}
AkmSensor::AkmSensor()
: SensorBase(NULL, NULL),
mEnabled(0),
mPendingMask(0),
mInputReader(32)
{
/* Open the library before opening the input device. The library
* creates a uinput device.
*/
if (loadAKMLibrary() == 0) {
data_name = "compass_sensor";
data_fd = openInput("compass_sensor");
}
memset(mPendingEvents, 0, sizeof(mPendingEvents));
mPendingEvents[Accelerometer].version = sizeof(sensors_event_t);
mPendingEvents[Accelerometer].sensor = ID_A;
mPendingEvents[Accelerometer].type = SENSOR_TYPE_ACCELEROMETER;
mPendingEvents[Accelerometer].acceleration.status = SENSOR_STATUS_ACCURACY_HIGH;
mPendingEvents[MagneticField].version = sizeof(sensors_event_t);
mPendingEvents[MagneticField].sensor = ID_M;
mPendingEvents[MagneticField].type = SENSOR_TYPE_MAGNETIC_FIELD;
mPendingEvents[MagneticField].magnetic.status = SENSOR_STATUS_ACCURACY_HIGH;
mPendingEvents[Orientation ].version = sizeof(sensors_event_t);
mPendingEvents[Orientation ].sensor = ID_O;
mPendingEvents[Orientation ].type = SENSOR_TYPE_ORIENTATION;
mPendingEvents[Orientation ].orientation.status = SENSOR_STATUS_ACCURACY_HIGH;
// read the actual value of all sensors if they're enabled already
struct input_absinfo absinfo;
short flags = 0;
if (akm_is_sensor_enabled(SENSOR_TYPE_ACCELEROMETER)) {
mEnabled |= 1<<Accelerometer;
if (!ioctl(data_fd, EVIOCGABS(EVENT_TYPE_ACCEL_X), &absinfo)) {
mPendingEvents[Accelerometer].acceleration.x = absinfo.value * CONVERT_A_X;
}
if (!ioctl(data_fd, EVIOCGABS(EVENT_TYPE_ACCEL_Y), &absinfo)) {
mPendingEvents[Accelerometer].acceleration.y = absinfo.value * CONVERT_A_Y;
}
if (!ioctl(data_fd, EVIOCGABS(EVENT_TYPE_ACCEL_Z), &absinfo)) {
mPendingEvents[Accelerometer].acceleration.z = absinfo.value * CONVERT_A_Z;
}
}
if (akm_is_sensor_enabled(SENSOR_TYPE_MAGNETIC_FIELD)) {
mEnabled |= 1<<MagneticField;
if (!ioctl(data_fd, EVIOCGABS(EVENT_TYPE_MAGV_X), &absinfo)) {
mPendingEvents[MagneticField].magnetic.x = absinfo.value * CONVERT_M_X;
}
if (!ioctl(data_fd, EVIOCGABS(EVENT_TYPE_MAGV_Y), &absinfo)) {
mPendingEvents[MagneticField].magnetic.y = absinfo.value * CONVERT_M_Y;
}
if (!ioctl(data_fd, EVIOCGABS(EVENT_TYPE_MAGV_Z), &absinfo)) {
mPendingEvents[MagneticField].magnetic.z = absinfo.value * CONVERT_M_Z;
}
}
if (akm_is_sensor_enabled(SENSOR_TYPE_ORIENTATION)) {
mEnabled |= 1<<Orientation;
if (!ioctl(data_fd, EVIOCGABS(EVENT_TYPE_YAW), &absinfo)) {
mPendingEvents[Orientation].orientation.azimuth = absinfo.value;
}
if (!ioctl(data_fd, EVIOCGABS(EVENT_TYPE_PITCH), &absinfo)) {
mPendingEvents[Orientation].orientation.pitch = absinfo.value;
}
if (!ioctl(data_fd, EVIOCGABS(EVENT_TYPE_ROLL), &absinfo)) {
mPendingEvents[Orientation].orientation.roll = -absinfo.value;
}
if (!ioctl(data_fd, EVIOCGABS(EVENT_TYPE_ORIENT_STATUS), &absinfo)) {
mPendingEvents[Orientation].orientation.status = uint8_t(absinfo.value & SENSOR_STATE_MASK);
}
}
// disable temperature sensor, since it is not supported
akm_disable_sensor(SENSOR_TYPE_TEMPERATURE);
}
// Get the event types and event codes that the input device supports
static PyObject *
ioctl_capabilities(PyObject *self, PyObject *args)
{
int fd, ev_type, ev_code;
char ev_bits[EV_MAX/8 + 1], code_bits[KEY_MAX/8 + 1];
struct input_absinfo absinfo;
int ret = PyArg_ParseTuple(args, "i", &fd);
if (!ret) return NULL;
// @todo: figure out why fd gets zeroed on an ioctl after the
// refactoring and get rid of this workaround
const int _fd = fd;
// Capabilities is a mapping of supported event types to lists of handled
// events e.g: {1: [272, 273, 274, 275], 2: [0, 1, 6, 8]}
PyObject* capabilities = PyDict_New();
PyObject* eventcodes = NULL;
PyObject* evlong = NULL;
PyObject* capability = NULL;
PyObject* py_absinfo = NULL;
PyObject* absitem = NULL;
memset(&ev_bits, 0, sizeof(ev_bits));
if (ioctl(_fd, EVIOCGBIT(0, sizeof(ev_bits)), ev_bits) < 0)
goto on_err;
// Build a dictionary of the device's capabilities
for (ev_type=0 ; ev_type<EV_MAX ; ev_type++) {
if (test_bit(ev_bits, ev_type)) {
capability = PyLong_FromLong(ev_type);
eventcodes = PyList_New(0);
memset(&code_bits, 0, sizeof(code_bits));
ioctl(_fd, EVIOCGBIT(ev_type, sizeof(code_bits)), code_bits);
for (ev_code = 0; ev_code < KEY_MAX; ev_code++) {
if (test_bit(code_bits, ev_code)) {
// Get abs{min,max,fuzz,flat} values for ABS_* event codes
if (ev_type == EV_ABS) {
memset(&absinfo, 0, sizeof(absinfo));
ioctl(_fd, EVIOCGABS(ev_code), &absinfo);
py_absinfo = Py_BuildValue("(iiiiii)",
absinfo.value,
absinfo.minimum,
absinfo.maximum,
absinfo.fuzz,
absinfo.flat,
absinfo.resolution);
evlong = PyLong_FromLong(ev_code);
absitem = Py_BuildValue("(OO)", evlong, py_absinfo);
// absitem -> tuple(ABS_X, (0, 255, 0, 0))
PyList_Append(eventcodes, absitem);
Py_DECREF(absitem);
Py_DECREF(py_absinfo);
}
else {
evlong = PyLong_FromLong(ev_code);
PyList_Append(eventcodes, evlong);
}
Py_DECREF(evlong);
}
}
// capabilities[EV_KEY] = [KEY_A, KEY_B, KEY_C, ...]
// capabilities[EV_ABS] = [(ABS_X, (0, 255, 0, 0)), ...]
PyDict_SetItem(capabilities, capability, eventcodes);
Py_DECREF(capability);
Py_DECREF(eventcodes);
}
}
return capabilities;
on_err:
PyErr_SetFromErrno(PyExc_IOError);
return NULL;
}
static void
SDL_EVDEV_sync_device(SDL_evdevlist_item *item)
{
#ifdef EVIOCGMTSLOTS
int i, ret;
struct input_absinfo abs_info;
/*
* struct input_mt_request_layout {
* __u32 code;
* __s32 values[num_slots];
* };
*
* this is the structure we're trying to emulate
*/
__u32* mt_req_code;
__s32* mt_req_values;
size_t mt_req_size;
/* TODO: sync devices other than touchscreen */
if (!item->is_touchscreen)
return;
mt_req_size = sizeof(*mt_req_code) +
sizeof(*mt_req_values) * item->touchscreen_data->max_slots;
mt_req_code = SDL_calloc(1, mt_req_size);
if (mt_req_code == NULL) {
return;
}
mt_req_values = (__s32*)mt_req_code + 1;
*mt_req_code = ABS_MT_TRACKING_ID;
ret = ioctl(item->fd, EVIOCGMTSLOTS(mt_req_size), mt_req_code);
if (ret < 0) {
SDL_free(mt_req_code);
return;
}
for(i = 0; i < item->touchscreen_data->max_slots; i++) {
/*
* This doesn't account for the very edge case of the user removing their
* finger and replacing it on the screen during the time we're out of sync,
* which'll mean that we're not going from down -> up or up -> down, we're
* going from down -> down but with a different tracking id, meaning we'd
* have to tell SDL of the two events, but since we wait till SYN_REPORT in
* SDL_EVDEV_Poll to tell SDL, the current structure of this code doesn't
* allow it. Lets just pray to God it doesn't happen.
*/
if (item->touchscreen_data->slots[i].tracking_id < 0 &&
mt_req_values[i] >= 0) {
item->touchscreen_data->slots[i].tracking_id = mt_req_values[i];
item->touchscreen_data->slots[i].delta = EVDEV_TOUCH_SLOTDELTA_DOWN;
} else if (item->touchscreen_data->slots[i].tracking_id >= 0 &&
mt_req_values[i] < 0) {
item->touchscreen_data->slots[i].tracking_id = -1;
item->touchscreen_data->slots[i].delta = EVDEV_TOUCH_SLOTDELTA_UP;
}
}
*mt_req_code = ABS_MT_POSITION_X;
ret = ioctl(item->fd, EVIOCGMTSLOTS(mt_req_size), mt_req_code);
if (ret < 0) {
SDL_free(mt_req_code);
return;
}
for(i = 0; i < item->touchscreen_data->max_slots; i++) {
if (item->touchscreen_data->slots[i].tracking_id >= 0 &&
item->touchscreen_data->slots[i].x != mt_req_values[i]) {
item->touchscreen_data->slots[i].x = mt_req_values[i];
if (item->touchscreen_data->slots[i].delta ==
EVDEV_TOUCH_SLOTDELTA_NONE) {
item->touchscreen_data->slots[i].delta =
EVDEV_TOUCH_SLOTDELTA_MOVE;
}
}
}
*mt_req_code = ABS_MT_POSITION_Y;
ret = ioctl(item->fd, EVIOCGMTSLOTS(mt_req_size), mt_req_code);
if (ret < 0) {
SDL_free(mt_req_code);
return;
}
for(i = 0; i < item->touchscreen_data->max_slots; i++) {
if (item->touchscreen_data->slots[i].tracking_id >= 0 &&
item->touchscreen_data->slots[i].y != mt_req_values[i]) {
item->touchscreen_data->slots[i].y = mt_req_values[i];
if (item->touchscreen_data->slots[i].delta ==
EVDEV_TOUCH_SLOTDELTA_NONE) {
item->touchscreen_data->slots[i].delta =
EVDEV_TOUCH_SLOTDELTA_MOVE;
}
}
}
ret = ioctl(item->fd, EVIOCGABS(ABS_MT_SLOT), &abs_info);
if (ret < 0) {
SDL_free(mt_req_code);
return;
}
item->touchscreen_data->current_slot = abs_info.value;
SDL_free(mt_req_code);
#endif /* EVIOCGMTSLOTS */
}
static void find_joydevs(void)
{
int i;
if (have_joydevs!=-1) {
return;
}
have_joydevs = 0;
for (i=0;i<MAX_JOYDEV;i++) {
char buf[MAX_PATH];
struct JoyDev joydev = {0};
int fd;
int no_ff_check = 0;
int j;
snprintf(buf,MAX_PATH,EVDEVPREFIX"%d",i);
buf[MAX_PATH-1] = 0;
if ((fd=open(buf, O_RDWR))==-1) {
fd = open(buf, O_RDONLY);
no_ff_check = 1;
}
if (fd!=-1) {
if ((-1==ioctl(fd,EVIOCGBIT(0,sizeof(joydev.evbits)),joydev.evbits))) {
perror("EVIOCGBIT 0");
close(fd);
continue;
}
if (-1==ioctl(fd,EVIOCGBIT(EV_ABS,sizeof(joydev.absbits)),joydev.absbits)) {
perror("EVIOCGBIT EV_ABS");
close(fd);
continue;
}
if (-1==ioctl(fd,EVIOCGBIT(EV_KEY,sizeof(joydev.keybits)),joydev.keybits)) {
perror("EVIOCGBIT EV_KEY");
close(fd);
continue;
}
/* A true joystick has at least axis X and Y, and at least 1
* button. copied from linux/drivers/input/joydev.c */
if (test_bit(joydev.absbits,ABS_X) && test_bit(joydev.absbits,ABS_Y) &&
( test_bit(joydev.keybits,BTN_TRIGGER) ||
test_bit(joydev.keybits,BTN_A) ||
test_bit(joydev.keybits,BTN_1)
)
) {
joydev.device = strdup(buf);
if (-1!=ioctl(fd, EVIOCGNAME(MAX_PATH-1), buf)) {
buf[MAX_PATH-1] = 0;
joydev.name = strdup(buf);
} else {
joydev.name = joydev.device;
}
joydev.guid = DInput_Wine_Joystick_Base_GUID;
joydev.guid.Data3 += have_joydevs;
TRACE("Found a joystick on %s: %s (%s)\n",
joydev.device, joydev.name,
debugstr_guid(&joydev.guid)
);
#ifdef HAVE_STRUCT_FF_EFFECT_DIRECTION
if (!no_ff_check &&
test_bit(joydev.evbits, EV_FF) &&
ioctl(fd, EVIOCGBIT(EV_FF, sizeof(joydev.ffbits)), joydev.ffbits) != -1 &&
ioctl(fd, EVIOCGEFFECTS, &joydev.num_effects) != -1 &&
joydev.num_effects > 0)
{
TRACE(" ... with force feedback\n");
joydev.has_ff = 1;
}
#endif
for (j=0;j<ABS_MAX;j++) {
if (test_bit(joydev.absbits,j)) {
if (-1!=ioctl(fd,EVIOCGABS(j),&(joydev.axes[j]))) {
TRACE(" ... with axis %d: cur=%d, min=%d, max=%d, fuzz=%d, flat=%d\n",
j,
joydev.axes[j].value,
joydev.axes[j].minimum,
joydev.axes[j].maximum,
joydev.axes[j].fuzz,
joydev.axes[j].flat
);
}
}
}
if (have_joydevs==0) {
joydevs = HeapAlloc(GetProcessHeap(), 0, sizeof(struct JoyDev));
} else {
HeapReAlloc(GetProcessHeap(), 0, joydevs, (1+have_joydevs) * sizeof(struct JoyDev));
}
memcpy(joydevs+have_joydevs, &joydev, sizeof(struct JoyDev));
have_joydevs++;
}
close(fd);
}
}
}
AkmSensor::AkmSensor()
: SensorBase(AKM_DEVICE_NAME, "compass"),
mEnabled(0),
mPendingMask(0),
mInputReader(32)
{
memset(mPendingEvents, 0, sizeof(mPendingEvents));
mPendingEvents[Accelerometer].version = sizeof(sensors_event_t);
mPendingEvents[Accelerometer].sensor = ID_A;
mPendingEvents[Accelerometer].type = SENSOR_TYPE_ACCELEROMETER;
mPendingEvents[Accelerometer].acceleration.status = SENSOR_STATUS_ACCURACY_HIGH;
mPendingEvents[MagneticField].version = sizeof(sensors_event_t);
mPendingEvents[MagneticField].sensor = ID_M;
mPendingEvents[MagneticField].type = SENSOR_TYPE_MAGNETIC_FIELD;
mPendingEvents[MagneticField].magnetic.status = SENSOR_STATUS_ACCURACY_HIGH;
mPendingEvents[Orientation ].version = sizeof(sensors_event_t);
mPendingEvents[Orientation ].sensor = ID_O;
mPendingEvents[Orientation ].type = SENSOR_TYPE_ORIENTATION;
mPendingEvents[Orientation ].orientation.status = SENSOR_STATUS_ACCURACY_HIGH;
for (int i=0 ; i<numSensors ; i++)
mDelays[i] = 200000000; // 200 ms by default
// read the actual value of all sensors if they're enabled already
struct input_absinfo absinfo;
short flags = 0;
open_device();
if (!ioctl(dev_fd, ECS_IOCTL_APP_GET_AFLAG, &flags)) {
if (flags) {
mEnabled |= 1<<Accelerometer;
if (!ioctl(data_fd, EVIOCGABS(EVENT_TYPE_ACCEL_X), &absinfo)) {
mPendingEvents[Accelerometer].acceleration.x = absinfo.value * CONVERT_A_X;
}
if (!ioctl(data_fd, EVIOCGABS(EVENT_TYPE_ACCEL_Y), &absinfo)) {
mPendingEvents[Accelerometer].acceleration.y = absinfo.value * CONVERT_A_Y;
}
if (!ioctl(data_fd, EVIOCGABS(EVENT_TYPE_ACCEL_Z), &absinfo)) {
mPendingEvents[Accelerometer].acceleration.z = absinfo.value * CONVERT_A_Z;
}
}
}
if (!ioctl(dev_fd, ECS_IOCTL_APP_GET_MVFLAG, &flags)) {
if (flags) {
mEnabled |= 1<<MagneticField;
if (!ioctl(data_fd, EVIOCGABS(EVENT_TYPE_MAGV_X), &absinfo)) {
mPendingEvents[MagneticField].magnetic.x = absinfo.value * CONVERT_M_X;
}
if (!ioctl(data_fd, EVIOCGABS(EVENT_TYPE_MAGV_Y), &absinfo)) {
mPendingEvents[MagneticField].magnetic.y = absinfo.value * CONVERT_M_Y;
}
if (!ioctl(data_fd, EVIOCGABS(EVENT_TYPE_MAGV_Z), &absinfo)) {
mPendingEvents[MagneticField].magnetic.z = absinfo.value * CONVERT_M_Z;
}
}
}
if (!ioctl(dev_fd, ECS_IOCTL_APP_GET_MFLAG, &flags)) {
if (flags) {
mEnabled |= 1<<Orientation;
if (!ioctl(data_fd, EVIOCGABS(EVENT_TYPE_YAW), &absinfo)) {
mPendingEvents[Orientation].orientation.azimuth = absinfo.value;
}
if (!ioctl(data_fd, EVIOCGABS(EVENT_TYPE_PITCH), &absinfo)) {
mPendingEvents[Orientation].orientation.pitch = absinfo.value;
}
if (!ioctl(data_fd, EVIOCGABS(EVENT_TYPE_ROLL), &absinfo)) {
mPendingEvents[Orientation].orientation.roll = -absinfo.value;
}
if (!ioctl(data_fd, EVIOCGABS(EVENT_TYPE_ORIENT_STATUS), &absinfo)) {
mPendingEvents[Orientation].orientation.status = uint8_t(absinfo.value & SENSOR_STATE_MASK);
}
}
}
// disable temperature sensor, since it is not reported
flags = 0;
ioctl(dev_fd, ECS_IOCTL_APP_SET_TFLAG, &flags);
if (!mEnabled) {
close_device();
}
}
static void
ConfigJoystick(SDL_Joystick * joystick, int fd)
{
int i, t;
unsigned long keybit[NBITS(KEY_MAX)] = { 0 };
unsigned long absbit[NBITS(ABS_MAX)] = { 0 };
unsigned long relbit[NBITS(REL_MAX)] = { 0 };
/* See if this device uses the new unified event API */
if ((ioctl(fd, EVIOCGBIT(EV_KEY, sizeof(keybit)), keybit) >= 0) &&
(ioctl(fd, EVIOCGBIT(EV_ABS, sizeof(absbit)), absbit) >= 0) &&
(ioctl(fd, EVIOCGBIT(EV_REL, sizeof(relbit)), relbit) >= 0)) {
/* Get the number of buttons, axes, and other thingamajigs */
for (i = BTN_JOYSTICK; i < KEY_MAX; ++i) {
if (test_bit(i, keybit)) {
#ifdef DEBUG_INPUT_EVENTS
printf("Joystick has button: 0x%x\n", i);
#endif
joystick->hwdata->key_map[i] = joystick->nbuttons;
++joystick->nbuttons;
}
}
for (i = 0; i < BTN_JOYSTICK; ++i) {
if (test_bit(i, keybit)) {
#ifdef DEBUG_INPUT_EVENTS
printf("Joystick has button: 0x%x\n", i);
#endif
joystick->hwdata->key_map[i] = joystick->nbuttons;
++joystick->nbuttons;
}
}
for (i = 0; i < ABS_MAX; ++i) {
/* Skip hats */
if (i == ABS_HAT0X) {
i = ABS_HAT3Y;
continue;
}
if (test_bit(i, absbit)) {
struct input_absinfo absinfo;
if (ioctl(fd, EVIOCGABS(i), &absinfo) < 0) {
continue;
}
#ifdef DEBUG_INPUT_EVENTS
printf("Joystick has absolute axis: 0x%.2x\n", i);
printf("Values = { %d, %d, %d, %d, %d }\n",
absinfo.value, absinfo.minimum, absinfo.maximum,
absinfo.fuzz, absinfo.flat);
#endif /* DEBUG_INPUT_EVENTS */
joystick->hwdata->abs_map[i] = joystick->naxes;
if (absinfo.minimum == absinfo.maximum) {
joystick->hwdata->abs_correct[i].used = 0;
} else {
joystick->hwdata->abs_correct[i].used = 1;
joystick->hwdata->abs_correct[i].coef[0] =
(absinfo.maximum + absinfo.minimum) - 2 * absinfo.flat;
joystick->hwdata->abs_correct[i].coef[1] =
(absinfo.maximum + absinfo.minimum) + 2 * absinfo.flat;
t = ((absinfo.maximum - absinfo.minimum) - 4 * absinfo.flat);
if (t != 0) {
joystick->hwdata->abs_correct[i].coef[2] =
(1 << 28) / t;
} else {
joystick->hwdata->abs_correct[i].coef[2] = 0;
}
}
++joystick->naxes;
}
}
for (i = ABS_HAT0X; i <= ABS_HAT3Y; i += 2) {
if (test_bit(i, absbit) || test_bit(i + 1, absbit)) {
struct input_absinfo absinfo;
if (ioctl(fd, EVIOCGABS(i), &absinfo) < 0) {
continue;
}
#ifdef DEBUG_INPUT_EVENTS
printf("Joystick has hat %d\n", (i - ABS_HAT0X) / 2);
printf("Values = { %d, %d, %d, %d, %d }\n",
absinfo.value, absinfo.minimum, absinfo.maximum,
absinfo.fuzz, absinfo.flat);
#endif /* DEBUG_INPUT_EVENTS */
++joystick->nhats;
}
}
if (test_bit(REL_X, relbit) || test_bit(REL_Y, relbit)) {
++joystick->nballs;
}
/* Allocate data to keep track of these thingamajigs */
if (joystick->nhats > 0) {
if (allocate_hatdata(joystick) < 0) {
joystick->nhats = 0;
}
}
if (joystick->nballs > 0) {
if (allocate_balldata(joystick) < 0) {
joystick->nballs = 0;
}
}
}
}
static int vk_init(struct ev *e)
{
char vk_path[PATH_MAX] = "/sys/board_properties/virtualkeys.";
char vks[2048], *ts = NULL;
ssize_t len;
int vk_fd;
int i;
e->vk_count = 0;
len = strlen(vk_path);
len = ioctl(e->fd->fd, EVIOCGNAME(sizeof(e->deviceName)), e->deviceName);
if (len <= 0)
{
printf("Unable to query event object.\n");
return -1;
}
#ifdef _EVENT_LOGGING
printf("Event object: %s\n", e->deviceName);
#endif
// Blacklist these "input" devices
if (strcmp(e->deviceName, "bma250") == 0 || strcmp(e->deviceName, "bma150") == 0 || strcmp(e->deviceName, "accelerometer") == 0)
{
e->ignored = 1;
}
strcat(vk_path, e->deviceName);
// Some devices split the keys from the touchscreen
e->vk_count = 0;
vk_fd = open(vk_path, O_RDONLY);
if (vk_fd >= 0)
{
len = read(vk_fd, vks, sizeof(vks)-1);
close(vk_fd);
if (len <= 0)
return -1;
vks[len] = '\0';
/* Parse a line like:
keytype:keycode:centerx:centery:width:height:keytype2:keycode2:centerx2:...
*/
for (ts = vks, e->vk_count = 1; *ts; ++ts) {
if (*ts == ':')
++e->vk_count;
}
if (e->vk_count % 6) {
printf("minui: %s is %d %% 6\n", vk_path, e->vk_count % 6);
}
e->vk_count /= 6;
if (e->vk_count <= 0)
return -1;
e->down = DOWN_NOT;
}
ioctl(e->fd->fd, EVIOCGABS(ABS_X), &e->p.xi);
ioctl(e->fd->fd, EVIOCGABS(ABS_Y), &e->p.yi);
e->p.synced = 0;
#ifdef _EVENT_LOGGING
printf("EV: ST minX: %d maxX: %d minY: %d maxY: %d\n", e->p.xi.minimum, e->p.xi.maximum, e->p.yi.minimum, e->p.yi.maximum);
#endif
ioctl(e->fd->fd, EVIOCGABS(ABS_MT_POSITION_X), &e->mt_p.xi);
ioctl(e->fd->fd, EVIOCGABS(ABS_MT_POSITION_Y), &e->mt_p.yi);
e->mt_p.synced = 0;
#ifdef _EVENT_LOGGING
printf("EV: MT minX: %d maxX: %d minY: %d maxY: %d\n", e->mt_p.xi.minimum, e->mt_p.xi.maximum, e->mt_p.yi.minimum, e->mt_p.yi.maximum);
#endif
e->vks = malloc(sizeof(*e->vks) * e->vk_count);
for (i = 0; i < e->vk_count; ++i) {
char *token[6];
int j;
for (j = 0; j < 6; ++j) {
token[j] = vk_strtok_r((i||j)?NULL:vks, ":", &ts);
}
if (strcmp(token[0], "0x01") != 0) {
/* Java does string compare, so we do too. */
printf("minui: %s: ignoring unknown virtual key type %s\n", vk_path, token[0]);
continue;
}
e->vks[i].scancode = strtol(token[1], NULL, 0);
e->vks[i].centerx = strtol(token[2], NULL, 0);
e->vks[i].centery = strtol(token[3], NULL, 0);
e->vks[i].width = strtol(token[4], NULL, 0);
e->vks[i].height = strtol(token[5], NULL, 0);
}
return 0;
}
static int print_possible_events(int fd, int print_flags)
{
uint8_t *bits = NULL;
ssize_t bits_size = 0;
const char* label;
int i, j, k;
int res, res2;
struct label* bit_labels;
const char *bit_label;
printf(" events:\n");
for(i = EV_KEY; i <= EV_MAX; i++) { // skip EV_SYN since we cannot query its available codes
int count = 0;
while(1) {
res = ioctl(fd, EVIOCGBIT(i, bits_size), bits);
if(res < bits_size)
break;
bits_size = res + 16;
bits = realloc(bits, bits_size * 2);
if(bits == NULL)
err(1, "failed to allocate buffer of size %d\n", (int)bits_size);
}
res2 = 0;
switch(i) {
case EV_KEY:
res2 = ioctl(fd, EVIOCGKEY(res), bits + bits_size);
label = "KEY";
bit_labels = key_labels;
break;
case EV_REL:
label = "REL";
bit_labels = rel_labels;
break;
case EV_ABS:
label = "ABS";
bit_labels = abs_labels;
break;
case EV_MSC:
label = "MSC";
bit_labels = msc_labels;
break;
case EV_LED:
res2 = ioctl(fd, EVIOCGLED(res), bits + bits_size);
label = "LED";
bit_labels = led_labels;
break;
case EV_SND:
res2 = ioctl(fd, EVIOCGSND(res), bits + bits_size);
label = "SND";
bit_labels = snd_labels;
break;
case EV_SW:
res2 = ioctl(fd, EVIOCGSW(bits_size), bits + bits_size);
label = "SW ";
bit_labels = sw_labels;
break;
case EV_REP:
label = "REP";
bit_labels = rep_labels;
break;
case EV_FF:
label = "FF ";
bit_labels = ff_labels;
break;
case EV_PWR:
label = "PWR";
bit_labels = NULL;
break;
case EV_FF_STATUS:
label = "FFS";
bit_labels = ff_status_labels;
break;
default:
res2 = 0;
label = "???";
bit_labels = NULL;
}
for(j = 0; j < res; j++) {
for(k = 0; k < 8; k++)
if(bits[j] & 1 << k) {
char down;
if(j < res2 && (bits[j + bits_size] & 1 << k))
down = '*';
else
down = ' ';
if(count == 0)
printf(" %s (%04x):", label, i);
else if((count & (print_flags & PRINT_LABELS ? 0x3 : 0x7)) == 0 || i == EV_ABS)
printf("\n ");
if(bit_labels && (print_flags & PRINT_LABELS)) {
bit_label = get_label(bit_labels, j * 8 + k);
if(bit_label)
printf(" %.20s%c%*s", bit_label, down, (int) (20 - strlen(bit_label)), "");
else
printf(" %04x%c ", j * 8 + k, down);
} else {
printf(" %04x%c", j * 8 + k, down);
}
if(i == EV_ABS) {
struct input_absinfo abs;
if(ioctl(fd, EVIOCGABS(j * 8 + k), &abs) == 0) {
printf(" : value %d, min %d, max %d, fuzz %d, flat %d, resolution %d",
abs.value, abs.minimum, abs.maximum, abs.fuzz, abs.flat,
abs.resolution);
}
}
count++;
}
}
if(count)
printf("\n");
}
free(bits);
return 0;
}
int evio_get_spaceball_status(evio_handle v,
int *rel_x,
int *rel_y,
int *rel_z,
int *rel_rx,
int *rel_ry,
int *rel_rz,
int *buttons) {
struct input_absinfo absinfo;
evio *evp = (evio *) v;
int rc=0;
*rel_x = 0;
*rel_y = 0;
*rel_z = 0;
*rel_rx = 0;
*rel_ry = 0;
*rel_rz = 0;
*buttons = 0;
memset(&absinfo, 0, sizeof(absinfo));
if (ioctl(evp->fd, EVIOCGABS(REL_X), &absinfo) < 0) {
return 0;
} else {
rc |= 1;
*rel_x = absinfo.value;
}
if (ioctl(evp->fd, EVIOCGABS(REL_Y), &absinfo) < 0) {
return 0;
} else {
rc |= 1;
*rel_y = absinfo.value;
}
if (ioctl(evp->fd, EVIOCGABS(REL_Z), &absinfo) < 0) {
return 0;
} else {
rc |= 1;
*rel_z = absinfo.value;
}
if (ioctl(evp->fd, EVIOCGABS(REL_RX), &absinfo) < 0) {
return 0;
} else {
rc |= 1;
*rel_rx = absinfo.value;
}
if (ioctl(evp->fd, EVIOCGABS(REL_RY), &absinfo) < 0) {
return 0;
} else {
rc |= 1;
*rel_ry = absinfo.value;
}
if (ioctl(evp->fd, EVIOCGABS(REL_RZ), &absinfo) < 0) {
return 0;
} else {
rc |= 1;
*rel_rz = absinfo.value;
}
if (ioctl(evp->fd, EVIOCGBIT(EV_KEY, sizeof(evp->keybit)), evp->keybit) >= 0) {
int i, btmp=0;
for (i=0; i<31; i++) {
if (EVIO_TESTBIT(BTN_MISC+i, evp->keybit))
btmp |= (1 << i);
}
*buttons = btmp;
}
return rc;
}
int open_dev_usb(struct device *dev)
{
int i;
struct input_absinfo absinfo;
unsigned char evtype_mask[(EV_MAX + 7) / 8];
if((dev->fd = open(dev->path, O_RDWR)) == -1) {
if((dev->fd = open(dev->path, O_RDONLY)) == -1) {
perror("failed to open device");
return -1;
}
fprintf(stderr, "opened device read-only, LEDs won't work\n");
}
if(ioctl(dev->fd, EVIOCGNAME(sizeof dev->name), dev->name) == -1) {
perror("EVIOCGNAME ioctl failed");
strcpy(dev->name, "unknown");
}
printf("device name: %s\n", dev->name);
/* get number of axes */
dev->num_axes = 6; /* default to regular 6dof controller axis count */
if(ioctl(dev->fd, EVIOCGBIT(EV_ABS, sizeof evtype_mask), evtype_mask) == 0) {
dev->num_axes = 0;
for(i=0; i<ABS_CNT; i++) {
int idx = i / 8;
int bit = i % 8;
if(evtype_mask[idx] & (1 << bit)) {
dev->num_axes++;
} else {
break;
}
}
}
if(verbose) {
printf(" Number of axes: %d\n", dev->num_axes);
}
dev->minval = malloc(dev->num_axes * sizeof *dev->minval);
dev->maxval = malloc(dev->num_axes * sizeof *dev->maxval);
dev->fuzz = malloc(dev->num_axes * sizeof *dev->fuzz);
if(!dev->minval || !dev->maxval || !dev->fuzz) {
perror("failed to allocate memory");
return -1;
}
/* if the device is an absolute device, find the minimum and maximum axis values */
for(i=0; i<dev->num_axes; i++) {
dev->minval[i] = DEF_MINVAL;
dev->maxval[i] = DEF_MAXVAL;
dev->fuzz[i] = 0;
if(ioctl(dev->fd, EVIOCGABS(i), &absinfo) == 0) {
dev->minval[i] = absinfo.minimum;
dev->maxval[i] = absinfo.maximum;
dev->fuzz[i] = absinfo.fuzz;
if(verbose) {
printf(" Axis %d value range: %d - %d (fuzz: %d)\n", i, dev->minval[i], dev->maxval[i], dev->fuzz[i]);
}
}
}
/*if(ioctl(dev->fd, EVIOCGBIT(0, sizeof(evtype_mask)), evtype_mask) == -1) {
perror("EVIOCGBIT ioctl failed\n");
close(dev->fd);
return -1;
}*/
if(cfg.grab_device) {
int grab = 1;
/* try to grab the device */
if(ioctl(dev->fd, EVIOCGRAB, &grab) == -1) {
perror("failed to grab the device");
}
}
/* set non-blocking */
fcntl(dev->fd, F_SETFL, fcntl(dev->fd, F_GETFL) | O_NONBLOCK);
if(cfg.led) {
set_led_evdev(dev, 1);
}
/* fill the device function pointers */
dev->close = close_evdev;
dev->read = read_evdev;
dev->set_led = set_led_evdev;
return 0;
}