void read_matrixes(int* sizes, int** matx1, int** matx2,int fd){
read_int_from_file(&sizes[0],fd);
read_int_from_file(&sizes[1],fd);
read_int_from_file(&sizes[2],fd);
if((*matx1 = (int*)malloc(sizes[0]*sizes[1]*sizeof(int)))==(int*)NULL) print_err("allocate memory for the first matrix");
if((*matx2 = (int*)malloc(sizes[2]*sizes[1]*sizeof(int)))==(int*)NULL) print_err("allocate memory for the second matrix");
int i,j;
for(i=0;i<sizes[0];i++) for(j=0;j<sizes[1];j++) read_int_from_file(*matx1 + i*sizes[1] + j,fd);
//second matrix is transposed
for(j=0;j<sizes[1];j++) for(i=0;i<sizes[2];i++) read_int_from_file(*matx2 + i*sizes[1] + j,fd);
}
bool is_battery_charging(void)
{
if (is_nx1()) {
return read_int_from_file(
"/sys/devices/platform/micom-ctrl/bat_charging") == 1;
} else if (is_nx500()) {
return read_int_from_file("/sys/devices/platform/d5-adc-battery"
"/power_supply/battery/charge_now") == 1;
} else if (is_old_nx_model()) {
return read_int_from_file(
"/sys/devices/platform/jack/charger1_online") == 1;
}
return false;
}
DialMode get_dial_mode(void)
{
if (s_mode == MODE_UNKNOWN) {
if (is_nx1()) {
s_mode = read_int_from_file(
"/sys/devices/platform/d5keys-polled/dial_mode");
} else if (is_nx500()) {
s_mode = read_int_from_file(
"/sys/devices/platform/d5-keys/dial_mode");
} else if (is_old_nx_model()) {
int mode = read_int_from_file(
"/sys/devices/platform/d4keys-polled/mode");
switch (mode) {
case 0:
s_mode = MODE_NX300_LENS_PRIORITY;
break;
case 3:
s_mode = MODE_SCENE;
break;
case 2:
s_mode = MODE_NX300_WIFI;
break;
case 5:
s_mode = MODE_SMART;
break;
case 6:
s_mode = MODE_P;
break;
case 7:
s_mode = MODE_A;
break;
case 8:
s_mode = MODE_S;
break;
case 9:
s_mode = MODE_M;
break;
default:
return MODE_UNKNOWN;
}
}
}
return s_mode;
}
DialDrive get_dial_drive(void)
{
if (is_nx1()) {
return read_int_from_file(
"/sys/devices/platform/d5keys-polled/dial_drive");
}
return DRIVE_UNKNOWN;
}
int get_battery_percent(void)
{
if (is_nx1()) {
return read_int_from_file(
"/sys/devices/platform/micom-ctrl/body_bat_soc");
}
return -1;
}
void MainWindow::setup_ui() {
// Battery Charge
if (check_file(SONY_BATTERY_HIGHSPEED_CHRG)) {
ui->chk_battery_fast_charge->setChecked(read_int_from_file(SONY_BATTERY_HIGHSPEED_CHRG));
connect(ui->chk_battery_fast_charge, SIGNAL(stateChanged(int)), this, SLOT(chk_battery_fast_charge_changed(int)));
}
else ui->chk_battery_fast_charge->setEnabled(false);
void Date_::deserialize(ifstream& reader)
{
int size = read_int_from_file(reader);
char* to_read = new char[size + 1];
reader.read(to_read, size);
to_read[size] = '\0';
field_name = to_read;
current_date->deserialize(reader);
set_content(current_date->to_string());
}
/**
* Reads keys in keyfile if group GN_CLIENT is in that keyfile and fills
* options_t *opt structure accordingly.
* @param[in,out] opt : options_t * structure to store options read from the
* configuration file "filename".
* @param keyfile is the GKeyFile structure that is used by glib to read
* groups and keys from.
* @param filename : the filename of the configuration file to read from
*/
static void read_from_group_client(options_t *opt, GKeyFile *keyfile, gchar *filename)
{
gchar *dircache = NULL;
gint cmptype = 0;
if (keyfile != NULL && filename != NULL && g_key_file_has_group(keyfile, GN_CLIENT) == TRUE)
{
/* Reading the directory list */
opt->dirname_list = read_list_from_file(keyfile, filename, GN_CLIENT, KN_DIR_LIST, _("Could not load directory list from file"));
opt->exclude_list = read_list_from_file(keyfile, filename, GN_CLIENT, KN_EXC_LIST, _("Could not load exclude file list from file"));
/* Reading blocksize */
opt->blocksize = read_int64_from_file(keyfile, filename, GN_CLIENT, KN_BLOCK_SIZE, _("Could not load blocksize from file"), CLIENT_BLOCK_SIZE);
/* Reading the cache directory if any */
dircache = read_string_from_file(keyfile, filename, GN_CLIENT, KN_CACHE_DIR, _("Could not load directory name"));
opt->dircache = normalize_directory(dircache);
free_variable(dircache);
/* Reading filename of the database if any */
opt->dbname = read_string_from_file(keyfile, filename, GN_CLIENT, KN_DB_NAME, _("Could not load cache database name"));
/* Adaptative mode for blocksize ? */
opt->adaptive = read_boolean_from_file(keyfile, filename, GN_CLIENT, KN_ADAPTIVE, _("Could not load adaptive configuration from file."));
/* Scanning option */
opt->noscan = read_boolean_from_file(keyfile, filename, GN_CLIENT, KN_NOSCAN, _("Could not load scan configuration from file."));
/* Buffer size to be used to send data to server */
opt->buffersize = read_int_from_file(keyfile, filename, GN_CLIENT, KN_BUFFER_SIZE, _("Could not load buffersize from file"), CLIENT_MIN_BUFFER);
/* Compression type if any */
cmptype = read_int_from_file(keyfile, filename, GN_CLIENT, KN_COMPRESSION_TYPE, _("Compression type not defined in configuration file"), opt->cmptype);
set_compression_type(opt, cmptype);
}
}
static unsigned int
get_optmem_max(void)
{
static int optmem_max;
if (!optmem_max) {
if (read_int_from_file("/proc/sys/net/core/optmem_max",
&optmem_max) || optmem_max <= 0) {
optmem_max = sizeof(long long) * (2 * IOV_MAX + 512);
} else {
optmem_max = (optmem_max + sizeof(long long) - 1)
& ~(sizeof(long long) - 1);
}
}
return optmem_max;
}
/**
* Reads keys in keyfile if groupname is in that keyfile and fills
* options_t *opt structure accordingly.
* @param[in,out] opt : options_t * structure to store options read from the
* configuration file "filename".
* @param keyfile is the GKeyFile structure that is used by glib to read
* groups and keys from.
* @param filename : the filename of the configuration file to read from
*/
static void read_from_group_server(options_t *opt, GKeyFile *keyfile, gchar *filename)
{
gint port = 0;
if (opt != NULL && keyfile != NULL && filename != NULL && g_key_file_has_group(keyfile, GN_SERVER) == TRUE)
{
/* Reading the port number if any */
port = read_int_from_file(keyfile, filename, GN_SERVER, KN_SERVER_PORT, _("Could not load server port number from file."), SERVER_PORT);
if (port > 1024 && port < 65535)
{
opt->port = port;
}
/* Reading IP address of server's host if any */
opt->ip = read_string_from_file(keyfile, filename, GN_SERVER, KN_SERVER_IP, _("Could not load cache database name"));
}
}
void healthd_board_mode_charger_init()
{
int ret;
char buff[40] = "\0";
char *pos;
int charging_enabled = 0;
int bms_ready = 0;
int wait_count = 0;
int fd;
bool usb_type_is_sdp = false, typec_default_src = false;
/* check the charging is enabled or not */
ret = read_int_from_file(CHARGING_ENABLED_PATH, &charging_enabled);
if (ret >= 0) {
LOGW(CHGR_TAG, "android charging is %s\n",
!!charging_enabled ? "enabled" : "disabled");
/* if charging is disabled, reboot and exit power off charging */
if (!charging_enabled)
reboot(RB_AUTOBOOT);
}
ret = read_file(CHARGER_TYPE_PATH, buff, sizeof(buff));
if (ret >= 0) {
/* get rid of the new line charcter */
buff[strcspn(buff, "\n")] = '\0';
if (!strcmp(buff, "USB"))
usb_type_is_sdp = true;
}
memset(buff, 0, sizeof(buff));
ret = read_file(USB_TYPEC_MODE_PATH, buff, sizeof(buff));
if (ret >= 0) {
if (strcmp(buff, "Source attached (default current)"))
typec_default_src = true;
}
if (usb_type_is_sdp && typec_default_src) {
/*
* Request 500mA input current when a SDP is connected and it's
* acting as a default source.
* PD capable source which could charge the device with USB_PD
* charger type is not included here.
*/
ret = write_file_int(USB_MAX_CURRENT_PATH, USB500_UA);
if (ret == 0)
LOGW(CHGR_TAG, "Force input current to 500mA with SDP inserted!\n");
}
fd = open(BMS_READY_PATH, O_RDONLY);
if (fd < 0)
return;
while (1) {
ret = read(fd, buff, (sizeof(buff) - 1));
if (ret > 0) {
buff[ret] = '\0';
sscanf(buff, "%d\n", &bms_ready);
} else {
LOGE(CHGR_TAG, "read soc-ready failed, ret=%d\n", ret);
break;
}
if ((bms_ready > 0) || (wait_count++ > WAIT_BMS_READY_TIMES_MAX))
break;
usleep(WAIT_BMS_READY_INTERVAL_USEC);
lseek(fd, 0, SEEK_SET);
}
close(fd);
LOGV(CHGR_TAG, "Checking BMS SoC ready done %d!\n", bms_ready);
}
int main(int argc, char **argv){
FILE *query_file = NULL, *test_hits_file = NULL;
struct cb_database_r *db = NULL;
struct opt_config *conf;
struct opt_args *args;
struct DSVector *iterations = NULL, *expanded_hits = NULL, *queries = NULL,
*oseqs = ds_vector_create();
struct fasta_seq *query = NULL;
xmlDoc *doc = NULL;
xmlNode *root = NULL;
uint64_t dbsize = 0;
int i = 0, j = 0;
conf = load_search_args();
args = opt_config_parse(conf, argc, argv);
if (args->nargs < 2) {
fprintf(stderr,
"Usage: %s [flags] database-dir fasta-file "
"[ --blast_args BLASTN_ARGUMENTS ]\n", argv[0]);
opt_config_print_usage(conf);
exit(1);
}
system("rm CaBLAST_results.xml");
if (!search_flags.hide_progress)
fprintf(stderr, "Loading database data\n\n");
db = cb_database_r_init(args->args[0],
(search_flags.load_coarse_db ||
search_flags.load_coarse_residues),
(search_flags.load_coarse_db ||
search_flags.load_coarse_links),
search_flags.load_compressed_db,
search_flags.link_block_size);
dbsize = read_int_from_file(8, db->coarse_db->db->file_params);
if (!search_flags.hide_progress)
fprintf(stderr, "Running coarse BLAST\n\n");
blast_coarse(args, dbsize);
if (NULL == (query_file = fopen(args->args[1], "r"))) {
fprintf(stderr, "fopen: 'fopen %s' failed: %s\n",
args->args[1], strerror(errno));
exit(1);
}
queries = ds_vector_create();
query = fasta_read_next(query_file, "");
while (query) {
ds_vector_append(queries, (void *)query);
query = fasta_read_next(query_file, "");
}
fclose(query_file);
if (!search_flags.hide_progress)
fprintf(stderr, "Processing coarse BLAST hits for fine BLAST\n\n");
if (search_flags.show_hit_info)
if (NULL == (test_hits_file = fopen("CaBLAST_hits.txt", "w"))) {
fprintf(stderr, "fopen: 'fopen %s' failed: %s\n",
"CaBLAST_hits.txt", strerror(errno));
exit(1);
}
//Parse the XML file generated from coarse BLAST and get its iterations.
doc = xmlReadFile("CaBLAST_temp_blast_results.xml", NULL, 0);
if (doc == NULL) {
fprintf(stderr, "Could not parse CaBLAST_temp_blast_results.xml\n");
return 0;
}
root = xmlDocGetRootElement(doc);
iterations = get_blast_iterations(root);
for (i = 0; i < iterations->size; i++) {
if (!search_flags.hide_progress) {
int32_t digits_full = floor(log10((double)iterations->size)),
digits_i = floor(log10((double)i)), spaces;
char *bar = progress_bar(i, iterations->size);
spaces = digits_full - digits_i;
fprintf(stderr, "\r");
fprintf(stderr, "iteration: %d/%d", i+1, iterations->size);
for (j = 0; j < spaces; j++)
putc(' ', stderr);
fprintf(stderr, " %s ", bar);
free(bar);
}
/*Expand any BLAST hits we got from the current query sequence during
coarse BLAST.*/
expanded_hits = expand_blast_hits(iterations, i, db);
for (j = 0; j < expanded_hits->size; j++)
ds_vector_append(oseqs, ds_vector_get(expanded_hits, j));
ds_vector_free_no_data(expanded_hits);
}
write_fine_fasta(oseqs);
for (i = 0; i < oseqs->size; i++)
cb_hit_expansion_free(
(struct cb_hit_expansion *)ds_vector_get(oseqs, i));
ds_vector_free_no_data(oseqs);
blast_fine(args, dbsize);
if (!search_flags.hide_progress)
fprintf(stderr, "\n"); //Make a newline after the progress bar
for (i = 0; i < queries->size; i++)
fasta_free_seq((struct fasta_seq *)ds_vector_get(queries, i));
ds_vector_free_no_data(queries);
if (search_flags.show_hit_info)
fclose(test_hits_file);
//Free the XML data and expanded hits
for (i = 0; i < iterations->size; i++) {
struct DSVector *iteration =
(struct DSVector *)ds_vector_get(iterations, i);
for (j = 0; j < iteration->size; j++) {
struct hit *h = (struct hit *)ds_vector_get(iteration, j);
ds_vector_free(h->hsps);
free(h);
}
}
ds_vector_free_no_data(iterations);
cb_database_r_free(db);
xmlFreeDoc(doc);
/*Free the coarse BLAST results file if the --no-cleanup flag is not being
used.*/
if (!search_flags.no_cleanup)
system("rm CaBLAST_temp_blast_results.xml");
opt_args_free(args);
opt_config_free(conf);
return 0;
}