/** This is here because all those casts made for some ugly code. It doesn't
* exist in newer driver versions.
*/
static void u8_or(u8 *dest, u8 *target1, u8 *target2, int nbits)
{
bitmap_or((long unsigned int *) dest,
(long unsigned int *) target1,
(long unsigned int *) target2,
nbits);
}
static unsigned int matrix_alloc_area(struct irq_matrix *m, struct cpumap *cm,
unsigned int num, bool managed)
{
unsigned int area, start = m->alloc_start;
unsigned int end = m->alloc_end;
bitmap_or(m->scratch_map, cm->managed_map, m->system_map, end);
bitmap_or(m->scratch_map, m->scratch_map, cm->alloc_map, end);
area = bitmap_find_next_zero_area(m->scratch_map, end, start, num, 0);
if (area >= end)
return area;
if (managed)
bitmap_set(cm->managed_map, area, num);
else
bitmap_set(cm->alloc_map, area, num);
return area;
}
/* For each queue, from the most- to least-constrained:
* find an LSB that can be assigned to the queue. If there are N queues that
* can only use M LSBs, where N > M, fail; otherwise, every queue will get a
* dedicated LSB. Remaining LSB regions become a shared resource.
* If we have fewer LSBs than queues, all LSB regions become shared resources.
*/
static int ccp_assign_lsbs(struct ccp_device *ccp)
{
DECLARE_BITMAP(lsb_pub, MAX_LSB_CNT);
DECLARE_BITMAP(qlsb, MAX_LSB_CNT);
int n_lsbs = 0;
int bitno;
int i, lsb_cnt;
int rc = 0;
bitmap_zero(lsb_pub, MAX_LSB_CNT);
/* Create an aggregate bitmap to get a total count of available LSBs */
for (i = 0; i < ccp->cmd_q_count; i++)
bitmap_or(lsb_pub,
lsb_pub, ccp->cmd_q[i].lsbmask,
MAX_LSB_CNT);
n_lsbs = bitmap_weight(lsb_pub, MAX_LSB_CNT);
if (n_lsbs >= ccp->cmd_q_count) {
/* We have enough LSBS to give every queue a private LSB.
* Brute force search to start with the queues that are more
* constrained in LSB choice. When an LSB is privately
* assigned, it is removed from the public mask.
* This is an ugly N squared algorithm with some optimization.
*/
for (lsb_cnt = 1;
n_lsbs && (lsb_cnt <= MAX_LSB_CNT);
lsb_cnt++) {
rc = ccp_find_and_assign_lsb_to_q(ccp, lsb_cnt, n_lsbs,
lsb_pub);
if (rc < 0)
return -EINVAL;
n_lsbs = rc;
}
}
rc = 0;
/* What's left of the LSBs, according to the public mask, now become
* shared. Any zero bits in the lsb_pub mask represent an LSB region
* that can't be used as a shared resource, so mark the LSB slots for
* them as "in use".
*/
bitmap_copy(qlsb, lsb_pub, MAX_LSB_CNT);
bitno = find_first_zero_bit(qlsb, MAX_LSB_CNT);
while (bitno < MAX_LSB_CNT) {
bitmap_set(ccp->lsbmap, bitno * LSB_SIZE, LSB_SIZE);
bitmap_set(qlsb, bitno, 1);
bitno = find_first_zero_bit(qlsb, MAX_LSB_CNT);
}
return rc;
}
void input_key_get_status(unsigned long *keys, int bits)
{
struct input_device *idev;
bitmap_zero(keys, bits);
if (bits > KEY_MAX)
bits = KEY_MAX;
list_for_each_entry(idev, &input_devices, list)
bitmap_or(keys, keys, idev->keys, bits);
}
static void set_feature_group(Object *obj, Visitor *v, const char *name,
void *opaque, Error **errp)
{
S390FeatGroup group = (S390FeatGroup) opaque;
const S390FeatGroupDef *def = s390_feat_group_def(group);
DeviceState *dev = DEVICE(obj);
S390CPU *cpu = S390_CPU(obj);
bool value;
if (dev->realized) {
error_setg(errp, "Attempt to set property '%s' on '%s' after "
"it was realized", name, object_get_typename(obj));
return;
} else if (!cpu->model) {
error_setg(errp, "Details about the host CPU model are not available, "
"features cannot be changed.");
return;
}
visit_type_bool(v, name, &value, errp);
if (*errp) {
return;
}
if (value) {
/* groups are added in one shot, so an intersect is sufficient */
if (!bitmap_intersects(def->feat, cpu->model->def->full_feat,
S390_FEAT_MAX)) {
error_setg(errp, "Group '%s' is not available for CPU model '%s',"
" it was introduced with later models.",
name, cpu->model->def->name);
return;
}
bitmap_or(cpu->model->features, cpu->model->features, def->feat,
S390_FEAT_MAX);
} else {
bitmap_andnot(cpu->model->features, cpu->model->features, def->feat,
S390_FEAT_MAX);
}
}
int tricam_process(int argc, char *argv[])
{
int i, j, w, h, bpp;
bytemap_t *up_image, *mid_image, *dn_image;
bytemap_t *gray, *se;
bitmap_t *up_roi, *mid_roi, *dn_roi;
bitmap_t *bin, *roi, *tmp;
char *fn, *ptr;
real_t value;
FILE *fd;
label_info_t *label_info;
dwordmap_t *labelmap;
point_t *centroid;
int label, area;
uint8_t vmin, vmax;
real_t vmean;
bytemap_t *op1, *op2, *op3;
char *path;
int next_option;
char *token1, *token2, *token3;
real_t cutup = -2550000, cutdown = -4748;
program_name = argv[0];
do {
next_option = getopt_long(argc, argv, short_options, long_options, NULL);
switch (next_option) {
case 'h': print_usage(stdout, 0); break;
case 'o': token1 = strdup(optarg); break;
case 's': token2 = strdup(optarg); break;
case 'd': token3 = strdup(optarg); break;
case 'f': cutup = strtod(optarg, NULL); break;
case 't': cutdown = strtod(optarg, NULL); break;
case 'v': verbose = 1; break;
case 'n': path = strdup(optarg); break;
case '?': print_usage(stderr, 1); break;
case -1: break;
default: abort();
}
} while (next_option != -1);
// printf("(%s - %s) / %s, %lf, %lf, %s\n", token1, token2, token3, cutup, cutdown, path);
w = WIDTH; h = HEIGHT; bpp = BPP;
initialize_screen(w, h, bpp);
up_image = bytemap_new(w, h);
mid_image = bytemap_new(w, h);
dn_image = bytemap_new(w, h);
gray = bytemap_new(w, h);
up_roi = bitmap_new(w, h);
mid_roi = bitmap_new(w, h);
dn_roi = bitmap_new(w, h);
bin = bitmap_new(w, h);
tmp = bitmap_new(w, h);
roi = bitmap_new(w, h);
se = bytemap_new(3, 3);
bytemap_fill(se, 0, 0, 3, 3, 1);
labelmap = dwordmap_new(w, h);
path = (char *)malloc(256 * sizeof(char));
// Up display image ////////////////////
strcpy(path, argv[1]);
strcat(path, "_up.bmp");
fn = strrchr(path, '/') + 1;
printf("Filename: %s\n", fn);
printf("Display image\n");
load_and_display_BMP(path);
read_bytemap_in_screen(up_image, NULL, NULL);
bytemap_clear(gray);
bytemap_copy(gray, UP_DX, UP_DY, up_image, 0, 0, w, h);
write_bytemap_to_screen(gray, gray, gray);
wait_keyhit();
printf("Mean filtering \n");
mean_smooth(up_image, gray, 3);
write_bytemap_to_screen(up_image, up_image, up_image);
wait_keyhit();
////////////////////////////////////////
// MID display image ///////////////////
strcpy(path, argv[1]);
strcat(path, "_mid.bmp");
fn = strrchr(path, '/') + 1;
printf("Filename: %s\n", fn);
printf("Display image\n");
load_and_display_BMP(path);
read_bytemap_in_screen(mid_image, NULL, NULL);
bytemap_clear(gray);
bytemap_copy(gray, MID_DX, MID_DY, mid_image, 0, 0, w, h);
write_bytemap_to_screen(gray, gray, gray);
wait_keyhit();
printf("Mean filtering \n");
mean_smooth(mid_image, gray, 3);
write_bytemap_to_screen(mid_image, mid_image, mid_image);
wait_keyhit();
/////////////////////////////////////////
// DN display image /////////////////////
strcpy(path, argv[1]);
strcat(path, "_dn.bmp");
fn = strrchr(path, '/') + 1;
printf("filename: %s\n", fn);
printf("Display image\n");
load_and_display_BMP(path);
read_bytemap_in_screen(dn_image, NULL, NULL);
bytemap_clear(gray);
bytemap_copy(gray, DN_DX, DN_DY, dn_image, 0, 0, w, h);
write_bytemap_to_screen(gray, gray, gray);
wait_keyhit();
printf("Mean filtering \n");
mean_smooth(dn_image, gray, 3);
write_bytemap_to_screen(dn_image, dn_image, dn_image);
wait_keyhit();
///////////////////////////////////////
printf("Up Image thresholding\n");
bytemap_threshold(bin, up_image, UP_FROM, UP_TO);
write_bitmap_to_screen(bin, bin, bin);
wait_keyhit();
printf("Big blobs greping\n");
bitmap_clear(roi);
label_info = label_info_new();
labeling(labelmap, label_info, bin, NEIGHBOR_8);
for (label = 0; label < label_info_get_count(label_info); label++) {
label_info_glimpse(&area, label, label_info);
//printf("area:%d\n", area);
if (area > 3000) {
for (i = 0; i < h; i++) {
for (j = 0; j < w; j++) {
if (dwordmap_get_value(labelmap, j, i) == label) {
bitmap_set_value(roi, j, i);
}
}
}
}
}
label_info_destroy(label_info);
write_bitmap_to_screen(roi, roi, roi);
wait_keyhit();
printf("Fill holes\n");
bitmap_complement(bin, roi);
labeling_grep_big_blob(roi, bin);
bitmap_complement(bin, roi);
write_bitmap_to_screen(bin, bin, bin);
wait_keyhit();
printf("Image Morphology\n");
binary_closing(tmp, bin, se);
binary_opening(up_roi, tmp, se);
write_bitmap_to_screen(up_roi, up_roi, up_roi);
wait_keyhit();
///////////////////////////////////////
printf("Mid Image thresholding\n");
bytemap_threshold(bin, mid_image, MID_FROM, MID_TO);
write_bitmap_to_screen(bin, bin, bin);
wait_keyhit();
printf("Big blobs greping\n");
bitmap_clear(roi);
label_info = label_info_new();
labeling(labelmap, label_info, bin, NEIGHBOR_8);
for (label = 0; label < label_info_get_count(label_info); label++) {
label_info_glimpse(&area, label, label_info);
//printf("area:%d\n", area);
if (area > 3000) {
for (i = 0; i < h; i++) {
for (j = 0; j < w; j++) {
if (dwordmap_get_value(labelmap, j, i) == label) {
bitmap_set_value(roi, j, i);
}
}
}
}
}
label_info_destroy(label_info);
write_bitmap_to_screen(roi, roi, roi);
wait_keyhit();
printf("Fill holes\n");
bitmap_complement(bin, roi);
labeling_grep_big_blob(roi, bin);
bitmap_complement(bin, roi);
write_bitmap_to_screen(bin, bin, bin);
wait_keyhit();
printf("Image Morphology\n");
binary_closing(tmp, bin, se);
binary_opening(mid_roi, tmp, se);
write_bitmap_to_screen(mid_roi, mid_roi, mid_roi);
wait_keyhit();
///////////////////////////////////////////////////
printf("Dn Image thresholding\n");
bytemap_threshold(bin, dn_image, DN_FROM, DN_TO);
write_bitmap_to_screen(bin, bin, bin);
wait_keyhit();
printf("Big blobs greping\n");
bitmap_clear(roi);
label_info = label_info_new();
labeling(labelmap, label_info, bin, NEIGHBOR_8);
for (label = 0; label < label_info_get_count(label_info); label++) {
label_info_glimpse(&area, label, label_info);
//printf("area:%d\n", area);
if (area > 3000) {
for (i = 0; i < h; i++) {
for (j = 0; j < w; j++) {
if (dwordmap_get_value(labelmap, j, i) == label) {
bitmap_set_value(roi, j, i);
}
}
}
}
}
label_info_destroy(label_info);
write_bitmap_to_screen(roi, roi, roi);
wait_keyhit();
printf("Fill holes\n");
bitmap_complement(bin, roi);
labeling_grep_big_blob(roi, bin);
bitmap_complement(bin, roi);
write_bitmap_to_screen(bin, bin, bin);
wait_keyhit();
printf("Image Morphology\n");
binary_closing(tmp, bin, se);
binary_opening(dn_roi, tmp, se);
write_bitmap_to_screen(dn_roi, dn_roi, dn_roi);
wait_keyhit();
///////////////////////////////////////////////
bitmap_clear(roi);
bitmap_or(roi, up_roi);
bitmap_or(roi, mid_roi);
bitmap_or(roi, dn_roi);
write_bitmap_to_screen(up_roi, mid_roi, dn_roi);
wait_keyhit();
write_bitmap_to_screen(roi, roi, roi);
wait_keyhit();
/*
//write_bitmap_to_screen(up_roi, mid_roi, dn_roi);
//read_bytemap_in_screen(up_image, mid_image, dn_image);
strcpy(path, argv[1]);
strcat(path, "_up_roi.bmp");
save_bytemap_as_BMP(up_image, path);
strcpy(path, argv[1]);
strcat(path, "_mid_roi.bmp");
save_bytemap_as_BMP(mid_image, path);
strcpy(path, argv[1]);
strcat(path, "_dn_roi.bmp");
save_bytemap_as_BMP(dn_image, path);
read_bytemap_in_screen(gray, NULL, NULL);
strcpy(path, argv[1]);
strcat(path, "_roi.bmp");
save_bytemap_as_BMP(gray, path);
*/
#if 0
// up image statistic /////////////////////////
bytemap_get_min_max_on_roi(&vmin, &vmax, up_image, roi);
bytemap_get_mean_on_roi(&vmean, up_image, roi);
printf("Up image statistics are min: %d, mean: %lf, max: %d\n", vmin, vmean, vmax);
fd = fopen("up_stat.txt", "a+");
fprintf(fd, "%d, %lf, %d\n", vmin, vmean, vmax);
fclose(fd);
////////////////////////////////////////////////
// mid image statistic /////////////////////////
bytemap_get_min_max_on_roi(&vmin, &vmax, mid_image, roi);
bytemap_get_mean_on_roi(&vmean, mid_image, roi);
printf("Mid image statistics are min: %d, mean: %lf, max: %d\n", vmin, vmean, vmax);
fd = fopen("mid_stat.txt", "a+");
fprintf(fd, "%d, %lf, %d\n", vmin, vmean, vmax);
fclose(fd);
/////////////////////////////////////////////////
// dn image statistic ///////////////////////////
bytemap_get_min_max_on_roi(&vmin, &vmax, dn_image, roi);
bytemap_get_mean_on_roi(&vmean, dn_image, roi);
printf("Dn image statistics are min: %d, mean: %lf, max: %d\n", vmin, vmean, vmax);
fd = fopen("dn_stat.txt", "a+");
fprintf(fd, "%d, %lf, %d\n", vmin, vmean, vmax);
fclose(fd);
/////////////////////////////////////////////////
return 0;
#endif
#if 1
// Up image normalization
printf("Up-Image global normalization\n");
for (i = 0; i < h; i++) {
for (j = 0; j < w; j++) {
if (bitmap_isset(roi, j, i)) {
value = bytemap_get_value(up_image, j, i);
if (value < UP_MEAN) {
value = round(128.0 / (UP_MEAN - UP_MIN) * (value - UP_MIN));
} else {
value = round(128.0 / (UP_MAX - UP_MEAN) * (value - UP_MEAN) + 128.0);
}
if (value < 0) value = 0;
if (value > 255) value = 255;
bytemap_put_value(value, up_image, j, i);
} else {
bytemap_put_value(0, up_image, j, i);
}
}
}
write_bytemap_to_screen(up_image, up_image, up_image);
strcpy(path, argv[1]);
strcat(path, "_up_normal.bmp");
save_bytemap_as_gray_BMP(up_image, path);
wait_keyhit();
//////////////////////////////////////////
// Mid image normalization
printf("MID-Image global normalization\n");
for (i = 0; i < h; i++) {
for (j = 0; j < w; j++) {
if (bitmap_isset(roi, j, i)) {
value = bytemap_get_value(mid_image, j, i);
if (value < MID_MEAN) {
value = round(128.0 / (MID_MEAN - MID_MIN) * (value - MID_MIN));
} else {
value = round(128.0 / (MID_MAX - MID_MEAN) * (value - MID_MEAN) + 128.0);
}
if (value < 0) value = 0;
if (value > 255) value = 255;
bytemap_put_value(value, mid_image, j, i);
} else {
bytemap_put_value(0, mid_image, j, i);
}
}
}
write_bytemap_to_screen(mid_image, mid_image, mid_image);
strcpy(path, argv[1]);
strcat(path, "_mid_normal.bmp");
save_bytemap_as_gray_BMP(mid_image, path);
wait_keyhit();
///////////////////////////////////////////////
// Dn image normalization
printf("Dn image global normalization\n");
for (i = 0; i < h; i++) {
for (j = 0; j < w; j++) {
if (bitmap_isset(roi, j, i)) {
value = bytemap_get_value(dn_image, j, i);
if (value < DN_MEAN) {
value = round(128.0 / (DN_MEAN - DN_MIN) * (value - DN_MIN));
} else {
value = round(128.0 / (DN_MAX - DN_MEAN) * (value - DN_MEAN) + 128.0);
}
if (value < 0) value = 0;
if (value > 255) value = 255;
bytemap_put_value(value, dn_image, j, i);
} else {
bytemap_put_value(0, dn_image, j, i);
}
}
}
write_bytemap_to_screen(dn_image, dn_image, dn_image);
strcpy(path, argv[1]);
strcat(path, "_dn_normal.bmp");
save_bytemap_as_gray_BMP(dn_image, path);
wait_keyhit();
////////////////////////////////////////////
return 0;
#endif
#if 0
printf("Image subtraction between DN and MID for bruise-detection\n");
for (i = 0; i < h; i++) {
for (j = 0; j < w; j++) {
if (bitmap_isset(roi, j, i)) {
value = ((real_t)bytemap_get_value(dn_image, j, i) - (real_t)bytemap_get_value(mid_image, j, i) + 255.0) / 2.0;
if (value < 0) value = 0;
if (value > 255) value = 255;
bytemap_put_value(value, gray, j, i);
} else {
bytemap_put_value(0, gray, j, i);
}
}
}
write_bytemap_to_screen(gray, gray, gray);
wait_keyhit();
bytemap_threshold(bin, gray, 142, 255);
write_bitmap_to_screen(bin, bin, bin);
wait_keyhit();
printf("Image subtraction between UP and MID for spot-detection\n");
for (i = 0; i < h; i++) {
for (j = 0; j < w; j++) {
if (bitmap_isset(roi, j, i)) {
value = ((real_t)bytemap_get_value(up_image, j, i) - (real_t)bytemap_get_value(mid_imageb, j, i) + 255.0) / 2.0;
if (value < 0) value = 0;
if (value > 255) value = 255;
bytemap_put_value(value, gray, j, i);
} else {
bytemap_put_value(0, gray, j, i);
}
}
}
write_bytemap_to_screen(gray, gray, gray);
wait_keyhit();
bytemap_threshold(bin, gray, 1, 110);
write_bitmap_to_screen(bin, bin, bin);
wait_keyhit();
#endif
dwordmap_destroy(labelmap);
bytemap_destroy(se);
return 0;
bitmap_destroy(roi);
bitmap_destroy(tmp);
bitmap_destroy(bin);
bitmap_destroy(dn_roi);
bitmap_destroy(mid_roi);
bitmap_destroy(up_roi);
bytemap_destroy(gray);
bytemap_destroy(dn_image);
bytemap_destroy(mid_image);
bytemap_destroy(up_image);
return 0;
}
int uwb_rsv_find_best_allocation(struct uwb_rsv *rsv, struct uwb_mas_bm *available,
struct uwb_mas_bm *result)
{
struct uwb_rsv_alloc_info *ai;
int interval;
int bit_index;
ai = kzalloc(sizeof(struct uwb_rsv_alloc_info), GFP_KERNEL);
if (!ai)
return UWB_RSV_ALLOC_NOT_FOUND;
ai->min_mas = rsv->min_mas;
ai->max_mas = rsv->max_mas;
ai->max_interval = rsv->max_interval;
/* */
for_each_clear_bit(bit_index, available->bm, UWB_NUM_MAS)
ai->bm[bit_index] = UWB_RSV_MAS_NOT_AVAIL;
if (ai->max_interval == 1) {
get_row_descriptors(ai);
if (uwb_rsv_find_best_row_alloc(ai) == UWB_RSV_ALLOC_FOUND)
goto alloc_found;
else
goto alloc_not_found;
}
get_column_descriptors(ai);
for (interval = 16; interval >= 2; interval>>=1) {
if (interval > ai->max_interval)
continue;
if (uwb_rsv_find_best_col_alloc(ai, interval) == UWB_RSV_ALLOC_FOUND)
goto alloc_found;
}
/* */
get_row_descriptors(ai);
if (uwb_rsv_find_best_row_alloc(ai) == UWB_RSV_ALLOC_FOUND)
goto alloc_found;
else
goto alloc_not_found;
alloc_found:
bitmap_zero(result->bm, UWB_NUM_MAS);
bitmap_zero(result->unsafe_bm, UWB_NUM_MAS);
/* */
for (bit_index = 0; bit_index < UWB_NUM_MAS; bit_index++) {
if (ai->bm[bit_index] == UWB_RSV_MAS_SAFE)
set_bit(bit_index, result->bm);
else if (ai->bm[bit_index] == UWB_RSV_MAS_UNSAFE)
set_bit(bit_index, result->unsafe_bm);
}
bitmap_or(result->bm, result->bm, result->unsafe_bm, UWB_NUM_MAS);
result->safe = ai->safe_allocated_mases;
result->unsafe = ai->unsafe_allocated_mases;
kfree(ai);
return UWB_RSV_ALLOC_FOUND;
alloc_not_found:
kfree(ai);
return UWB_RSV_ALLOC_NOT_FOUND;
}
static irqreturn_t sh_keysc_isr(int irq, void *dev_id)
{
struct platform_device *pdev = dev_id;
struct sh_keysc_priv *priv = platform_get_drvdata(pdev);
struct sh_keysc_info *pdata = &priv->pdata;
int keyout_nr = sh_keysc_mode[pdata->mode].keyout;
int keyin_nr = sh_keysc_mode[pdata->mode].keyin;
DECLARE_BITMAP(keys, SH_KEYSC_MAXKEYS);
DECLARE_BITMAP(keys0, SH_KEYSC_MAXKEYS);
DECLARE_BITMAP(keys1, SH_KEYSC_MAXKEYS);
unsigned char keyin_set, tmp;
int i, k, n;
dev_dbg(&pdev->dev, "isr!\n");
bitmap_fill(keys1, SH_KEYSC_MAXKEYS);
bitmap_zero(keys0, SH_KEYSC_MAXKEYS);
do {
bitmap_zero(keys, SH_KEYSC_MAXKEYS);
keyin_set = 0;
sh_keysc_write(priv, KYCR2, KYCR2_IRQ_DISABLED);
for (i = 0; i < keyout_nr; i++) {
n = keyin_nr * i;
/* drive one KEYOUT pin low, read KEYIN pins */
sh_keysc_write(priv, KYOUTDR, 0xffff ^ (3 << (i * 2)));
udelay(pdata->delay);
tmp = sh_keysc_read(priv, KYINDR);
/* set bit if key press has been detected */
for (k = 0; k < keyin_nr; k++) {
if (tmp & (1 << k))
__set_bit(n + k, keys);
}
/* keep track of which KEYIN bits that have been set */
keyin_set |= tmp ^ ((1 << keyin_nr) - 1);
}
sh_keysc_level_mode(priv, keyin_set);
bitmap_complement(keys, keys, SH_KEYSC_MAXKEYS);
bitmap_and(keys1, keys1, keys, SH_KEYSC_MAXKEYS);
bitmap_or(keys0, keys0, keys, SH_KEYSC_MAXKEYS);
sh_keysc_map_dbg(&pdev->dev, keys, "keys");
} while (sh_keysc_read(priv, KYCR2) & 0x01);
sh_keysc_map_dbg(&pdev->dev, priv->last_keys, "last_keys");
sh_keysc_map_dbg(&pdev->dev, keys0, "keys0");
sh_keysc_map_dbg(&pdev->dev, keys1, "keys1");
for (i = 0; i < SH_KEYSC_MAXKEYS; i++) {
k = pdata->keycodes[i];
if (!k)
continue;
if (test_bit(i, keys0) == test_bit(i, priv->last_keys))
continue;
if (test_bit(i, keys1) || test_bit(i, keys0)) {
input_event(priv->input, EV_KEY, k, 1);
__set_bit(i, priv->last_keys);
}
if (!test_bit(i, keys1)) {
input_event(priv->input, EV_KEY, k, 0);
__clear_bit(i, priv->last_keys);
}
}
input_sync(priv->input);
return IRQ_HANDLED;
}
static inline void linkmode_or(unsigned long *dst, const unsigned long *a,
const unsigned long *b)
{
bitmap_or(dst, a, b, __ETHTOOL_LINK_MODE_MASK_NBITS);
}
/**
* media_entity_pipeline_start - Mark a pipeline as streaming
* @entity: Starting entity
* @pipe: Media pipeline to be assigned to all entities in the pipeline.
*
* Mark all entities connected to a given entity through enabled links, either
* directly or indirectly, as streaming. The given pipeline object is assigned to
* every entity in the pipeline and stored in the media_entity pipe field.
*
* Calls to this function can be nested, in which case the same number of
* media_entity_pipeline_stop() calls will be required to stop streaming. The
* pipeline pointer must be identical for all nested calls to
* media_entity_pipeline_start().
*/
__must_check int media_entity_pipeline_start(struct media_entity *entity,
struct media_pipeline *pipe)
{
struct media_device *mdev = entity->parent;
struct media_entity_graph graph;
struct media_entity *entity_err = entity;
int ret;
mutex_lock(&mdev->graph_mutex);
media_entity_graph_walk_start(&graph, entity);
while ((entity = media_entity_graph_walk_next(&graph))) {
DECLARE_BITMAP(active, entity->num_pads);
DECLARE_BITMAP(has_no_links, entity->num_pads);
unsigned int i;
entity->stream_count++;
WARN_ON(entity->pipe && entity->pipe != pipe);
entity->pipe = pipe;
/* Already streaming --- no need to check. */
if (entity->stream_count > 1)
continue;
if (!entity->ops || !entity->ops->link_validate)
continue;
bitmap_zero(active, entity->num_pads);
bitmap_fill(has_no_links, entity->num_pads);
for (i = 0; i < entity->num_links; i++) {
struct media_link *link = &entity->links[i];
struct media_pad *pad = link->sink->entity == entity
? link->sink : link->source;
/* Mark that a pad is connected by a link. */
bitmap_clear(has_no_links, pad->index, 1);
/*
* Pads that either do not need to connect or
* are connected through an enabled link are
* fine.
*/
if (!(pad->flags & MEDIA_PAD_FL_MUST_CONNECT) ||
link->flags & MEDIA_LNK_FL_ENABLED)
bitmap_set(active, pad->index, 1);
/*
* Link validation will only take place for
* sink ends of the link that are enabled.
*/
if (link->sink != pad ||
!(link->flags & MEDIA_LNK_FL_ENABLED))
continue;
ret = entity->ops->link_validate(link);
if (ret < 0 && ret != -ENOIOCTLCMD)
goto error;
}
/* Either no links or validated links are fine. */
bitmap_or(active, active, has_no_links, entity->num_pads);
if (!bitmap_full(active, entity->num_pads)) {
ret = -EPIPE;
goto error;
}
}
mutex_unlock(&mdev->graph_mutex);
return 0;
error:
/*
* Link validation on graph failed. We revert what we did and
* return the error.
*/
media_entity_graph_walk_start(&graph, entity_err);
while ((entity_err = media_entity_graph_walk_next(&graph))) {
entity_err->stream_count--;
if (entity_err->stream_count == 0)
entity_err->pipe = NULL;
/*
* We haven't increased stream_count further than this
* so we quit here.
*/
if (entity_err == entity)
break;
}
mutex_unlock(&mdev->graph_mutex);
return ret;
}
void idset_add_set(struct idset *to, struct idset *from)
{
int len = min(to->num_ssid * to->num_id, from->num_ssid * from->num_id);
bitmap_or(to->bitmap, to->bitmap, from->bitmap, len);
}