/**
Testuje wczytywanie drzewa.
@param state Środowisko testowe.
*/
static void trie_load_test(void** state)
{
Trie *trie = NULL;
IO *io = io_new(stdin, stdout, stderr);
push_word_to_io_mock(L"");
trie = trie_load(io);
assert_non_null(trie);
trie_done(trie);
// Poprawny zapis
push_word_to_io_mock(L"ciupagą*^^^^^^^\n");
trie = trie_load(io);
pop_remaining_chars(io);
assert_true(trie_has_word(trie, L"ciupagą"));
assert_false(trie_has_word(trie, L"ciupaga"));
assert_false(trie_has_word(trie, L"ciupag"));
assert_false(trie_has_word(trie, L"ciupagąą"));
trie_done(trie);
// Próba dojścia wyżej niż korzeń
push_word_to_io_mock(L"a*^^\n");
trie = trie_load(io);
pop_remaining_chars(io);
assert_null(trie);
// Znaki spoza alfabetu
push_word_to_io_mock(L"&*^\n");
trie = trie_load(io);
pop_remaining_chars();
assert_null(trie);
io_done(io);
}
struct hfp_gw *hfp_gw_new(int fd)
{
struct hfp_gw *hfp;
if (fd < 0)
return NULL;
hfp = new0(struct hfp_gw, 1);
if (!hfp)
return NULL;
hfp->fd = fd;
hfp->close_on_unref = false;
hfp->read_buf = ringbuf_new(4096);
if (!hfp->read_buf) {
free(hfp);
return NULL;
}
hfp->write_buf = ringbuf_new(4096);
if (!hfp->write_buf) {
ringbuf_free(hfp->read_buf);
free(hfp);
return NULL;
}
hfp->io = io_new(fd);
if (!hfp->io) {
ringbuf_free(hfp->write_buf);
ringbuf_free(hfp->read_buf);
free(hfp);
return NULL;
}
hfp->cmd_handlers = queue_new();
if (!hfp->cmd_handlers) {
io_destroy(hfp->io);
ringbuf_free(hfp->write_buf);
ringbuf_free(hfp->read_buf);
free(hfp);
return NULL;
}
if (!io_set_read_handler(hfp->io, can_read_data, hfp,
read_watch_destroy)) {
queue_destroy(hfp->cmd_handlers, destroy_cmd_handler);
io_destroy(hfp->io);
ringbuf_free(hfp->write_buf);
ringbuf_free(hfp->read_buf);
free(hfp);
return NULL;
}
hfp->writer_active = false;
hfp->result_pending = false;
return hfp_gw_ref(hfp);
}
static struct bt_hci *create_hci(int fd)
{
struct bt_hci *hci;
if (fd < 0)
return NULL;
hci = new0(struct bt_hci, 1);
if (!hci)
return NULL;
hci->io = io_new(fd);
if (!hci->io) {
free(hci);
return NULL;
}
hci->is_stream = true;
hci->writer_active = false;
hci->num_cmds = 1;
hci->next_cmd_id = 1;
hci->next_evt_id = 1;
hci->cmd_queue = queue_new();
if (!hci->cmd_queue) {
io_destroy(hci->io);
free(hci);
return NULL;
}
hci->rsp_queue = queue_new();
if (!hci->rsp_queue) {
queue_destroy(hci->cmd_queue, NULL);
io_destroy(hci->io);
free(hci);
return NULL;
}
hci->evt_list = queue_new();
if (!hci->evt_list) {
queue_destroy(hci->rsp_queue, NULL);
queue_destroy(hci->cmd_queue, NULL);
io_destroy(hci->io);
free(hci);
return NULL;
}
if (!io_set_read_handler(hci->io, io_read_callback, hci, NULL)) {
queue_destroy(hci->evt_list, NULL);
queue_destroy(hci->rsp_queue, NULL);
queue_destroy(hci->cmd_queue, NULL);
io_destroy(hci->io);
free(hci);
return NULL;
}
return bt_hci_ref(hci);
}
struct bt_att *bt_att_new(int fd)
{
struct bt_att *att;
if (fd < 0)
return NULL;
att = new0(struct bt_att, 1);
if (!att)
return NULL;
att->fd = fd;
att->mtu = ATT_DEFAULT_LE_MTU;
att->buf = malloc(att->mtu);
if (!att->buf)
goto fail;
att->io = io_new(fd);
if (!att->io)
goto fail;
att->req_queue = queue_new();
if (!att->req_queue)
goto fail;
att->ind_queue = queue_new();
if (!att->ind_queue)
goto fail;
att->write_queue = queue_new();
if (!att->write_queue)
goto fail;
att->notify_list = queue_new();
if (!att->notify_list)
goto fail;
if (!io_set_read_handler(att->io, can_read_data, att, NULL))
goto fail;
return bt_att_ref(att);
fail:
queue_destroy(att->req_queue, NULL);
queue_destroy(att->ind_queue, NULL);
queue_destroy(att->write_queue, NULL);
io_destroy(att->io);
free(att->buf);
free(att);
return NULL;
}
/* ------------------------------------------------------------------------ *
* Open a file. *
* ------------------------------------------------------------------------ */
int io_open(const char *path, int mode, ...)
{
int fd;
int flags = 0;
int ret;
struct stat st;
va_list args;
#ifdef O_BINARY
flags |= O_BINARY;
#endif
switch(mode & IO_OPEN_RDWR)
{
case IO_OPEN_READ: flags |= O_RDONLY; break;
case IO_OPEN_WRITE: flags |= O_WRONLY; break;
case IO_OPEN_RDWR: flags |= O_RDWR; break;
}
if(mode & IO_OPEN_CREATE) flags |= O_CREAT;
if(mode & IO_OPEN_APPEND) flags |= O_APPEND;
if(mode & IO_OPEN_TRUNCATE) flags |= O_TRUNC;
if(!(flags & O_CREAT) && (stat(path, &st) == -1))
return -1;
va_start(args, mode);
fd = syscall_open(path, flags, va_arg(args, long));
va_end(args);
if(fd == -1)
return -1;
if(fd >= IO_MAX_FDS)
{
syscall_close(fd);
return -1;
}
io_list[fd].stat = st;
ret = io_new(fd, FD_FILE);
if(ret >= 0)
{
io_note(fd, "%s", path);
}
return ret;
}
static int
do_client_connect(int sock)
{
struct sockaddr_un saremote;
socklen_t addrlen;
int s;
addrlen = sizeof(saremote);
s = accept(sock, (struct sockaddr *)&saremote, &addrlen);
if (s == -1) {
log_err("Couldn't accept new connection: %s.",
strerror(errno));
return -1;
}
io_new(s);
return 0;
}
struct bt_uhid *bt_uhid_new(int fd)
{
struct bt_uhid *uhid;
uhid = new0(struct bt_uhid, 1);
uhid->io = io_new(fd);
if (!uhid->io)
goto failed;
uhid->notify_list = queue_new();
if (!io_set_read_handler(uhid->io, uhid_read_handler, uhid, NULL))
goto failed;
return bt_uhid_ref(uhid);
failed:
uhid_free(uhid);
return NULL;
}
void sploit_init(void)
{
log(sploit_log, L_startup, "%s v%s sploit",
PACKAGE_NAME, PACKAGE_VERSION, PACKAGE_RELEASE);
log_init(STDOUT_FILENO, LOG_ALL, L_status);
io_init_except(STDIN_FILENO, STDOUT_FILENO, STDERR_FILENO);
sploit_stdin = io_new(STDIN_FILENO, FD_PIPE);
mem_init();
timer_init();
connect_init();
queue_init();
dlink_init();
str_init();
net_init();
ssl_init();
sploit_log = log_source_register("sploit");
}
/**
Testuje zapisywanie drzewa.
@param state Środowisko testowe.
*/
static void trie_save_test(void** state)
{
Trie *trie = trie_new();
FILE *stream;
wchar_t *buf = NULL;
size_t len;
stream = open_wmemstream(&buf, &len);
if (stream == NULL)
{
fprintf(stderr, "Failed to open memory stream\n");
exit(EXIT_FAILURE);
}
IO *io = io_new(stdin, stream, stderr);
assert_true(trie_save(trie, io) == 0);
fflush(stream);
assert_true(wcscmp(L"\n", buf) == 0);
fseek(stream, 0, SEEK_SET);
trie_insert_word(trie, L"ciupaga");
assert_true(trie_save(trie, io) == 0);
fflush(stream);
assert_true(wcscmp(L"ciupaga*^^^^^^^\n", buf) == 0);
fseek(stream, 0, SEEK_SET);
trie_delete_word(trie, L"ciupaga");
assert_true(trie_save(trie, io) == 0);
fflush(stream);
assert_true(wcscmp(L"\n", buf) == 0);
fclose(stream);
io_done(io);
# undef free
free(buf);
# define free(ptr) _test_free(ptr, __FILE__, __LINE__)
trie_done(trie);
}
int err_setlogfile(char *file) {
char *mode;
int result=TRUE;
/*
if(strcmp(file,err_filename) == 0)
return TRUE;
*/
if(err_file) {
io_close(err_file);
} else {
err_file = io_new();
if(!err_file) {
err_logdest &= ~LOGDEST_LOGFILE;
if(!err_syslog_open)
os_opensyslog();
os_syslog(1,"Error initializing logfile");
}
}
mode = "a";
if(err_truncate) mode = "w";
strncpy(err_filename,file,sizeof(err_filename)-1);
if(!io_open(err_file,"file://%U?mode=%s&ascii=1",err_filename,mode)) {
fprintf(stderr,"Error opening logfile: %s",io_errstr(err_file));
err_logdest &= ~LOGDEST_LOGFILE;
if(!err_syslog_open)
os_opensyslog();
os_syslog(1,"Error opening logfile");
result=FALSE;
}
return result;
}
/* -------------------------------------------------------------------------- *
* Program entry. *
* -------------------------------------------------------------------------- */
int main(int argc, char *argv[])
{
int i, j;
int recvfd = 0, sendfd = 1;
net_addr_t localhost = net_addr_loopback;
/* get control connection */
if(argc >= 2)
recvfd = str_tol(argv[1], NULL, 10);
if(argc >= 3)
sendfd = str_tol(argv[2], NULL, 10);
io_init_except(recvfd, sendfd, -1);
if(recvfd == sendfd)
{
/* socketpair() */
io_new(recvfd, FD_SOCKET);
}
else
{
/* 2x pipe() */
io_new(recvfd, FD_PIPE);
io_new(sendfd, FD_PIPE);
}
/* initialize library */
servauth_init();
/* Make sure we are running under hybrid.. */
/* if(str_ncmp(argv[0], "-sauth", 6))
sauth_usage();*/
/* clear argv */
for(i = 1; i < argc; i++)
for(j = 0; argv[i][j]; j++)
argv[i][j] = '\0';
/* set file descriptor to nonblocking mode */
/* io_nonblocking(recvfd);
io_nonblocking(sendfd);*/
/* initialize dns client */
dns_init();
dns_updatedb();
/* initialize caches */
cache_auth_new(&servauth_authcache, CACHE_AUTH_SIZE);
cache_dns_new(&servauth_dnscache, CACHE_DNS_SIZE);
cache_proxy_new(&servauth_proxycache, CACHE_PROXY_SIZE);
cache_dns_put(&servauth_dnscache, CACHE_DNS_REVERSE, localhost, "localhost", (uint64_t)-1LL);
/* initialize control connection */
control_init(&servauth_control, recvfd, sendfd);
/* clear query structs */
memset(servauth_queries, 0, sizeof(servauth_queries));
/* enter io loop */
servauth_loop();
/* NOTREACHED */
return(0);
}
struct bt_att *bt_att_new(int fd, bool ext_signed)
{
struct bt_att *att;
if (fd < 0)
return NULL;
att = new0(struct bt_att, 1);
if (!att)
return NULL;
att->fd = fd;
att->mtu = BT_ATT_DEFAULT_LE_MTU;
att->buf = malloc(att->mtu);
if (!att->buf)
goto fail;
att->io = io_new(fd);
if (!att->io)
goto fail;
/* crypto is optional, if not available leave it NULL */
if (!ext_signed)
att->crypto = bt_crypto_new();
att->req_queue = queue_new();
if (!att->req_queue)
goto fail;
att->ind_queue = queue_new();
if (!att->ind_queue)
goto fail;
att->write_queue = queue_new();
if (!att->write_queue)
goto fail;
att->notify_list = queue_new();
if (!att->notify_list)
goto fail;
att->disconn_list = queue_new();
if (!att->disconn_list)
goto fail;
if (!io_set_read_handler(att->io, can_read_data, att, NULL))
goto fail;
if (!io_set_disconnect_handler(att->io, disconnect_cb, att, NULL))
goto fail;
att->io_on_l2cap = is_io_l2cap_based(att->fd);
if (!att->io_on_l2cap)
att->io_sec_level = BT_SECURITY_LOW;
return bt_att_ref(att);
fail:
bt_att_free(att);
return NULL;
}
struct mgmt *mgmt_new(int fd)
{
struct mgmt *mgmt;
if (fd < 0)
return NULL;
mgmt = new0(struct mgmt, 1);
if (!mgmt)
return NULL;
mgmt->fd = fd;
mgmt->close_on_unref = false;
mgmt->len = 512;
mgmt->buf = malloc(mgmt->len);
if (!mgmt->buf) {
free(mgmt);
return NULL;
}
mgmt->io = io_new(fd);
if (!mgmt->io) {
free(mgmt->buf);
free(mgmt);
return NULL;
}
mgmt->request_queue = queue_new();
if (!mgmt->request_queue) {
io_destroy(mgmt->io);
free(mgmt->buf);
free(mgmt);
return NULL;
}
mgmt->reply_queue = queue_new();
if (!mgmt->reply_queue) {
queue_destroy(mgmt->request_queue, NULL);
io_destroy(mgmt->io);
free(mgmt->buf);
free(mgmt);
return NULL;
}
mgmt->pending_list = queue_new();
if (!mgmt->pending_list) {
queue_destroy(mgmt->reply_queue, NULL);
queue_destroy(mgmt->request_queue, NULL);
io_destroy(mgmt->io);
free(mgmt->buf);
free(mgmt);
return NULL;
}
mgmt->notify_list = queue_new();
if (!mgmt->notify_list) {
queue_destroy(mgmt->pending_list, NULL);
queue_destroy(mgmt->reply_queue, NULL);
queue_destroy(mgmt->request_queue, NULL);
io_destroy(mgmt->io);
free(mgmt->buf);
free(mgmt);
return NULL;
}
if (!io_set_read_handler(mgmt->io, can_read_data, mgmt,
read_watch_destroy)) {
queue_destroy(mgmt->notify_list, NULL);
queue_destroy(mgmt->pending_list, NULL);
queue_destroy(mgmt->reply_queue, NULL);
queue_destroy(mgmt->request_queue, NULL);
io_destroy(mgmt->io);
free(mgmt->buf);
free(mgmt);
return NULL;
}
mgmt->writer_active = false;
return mgmt_ref(mgmt);
}
/**
* Get info from a "url" file -- a media stream file.
* This should really get more metainfo, but I'll leave that
* to later.
*
* @param filename .url file to process
* @param pmp3 MP3FILE structure that must be filled
* @returns TRUE if file should be added to db, FALSE otherwise
*/
int scan_get_urlinfo(char *filename, MP3FILE *pmp3) {
IOHANDLE hfile;
char *head, *tail;
char linebuffer[256];
uint32_t len;
DPRINTF(E_DBG,L_SCAN,"Getting URL file info\n");
if(!(hfile = io_new())) {
DPRINTF(E_LOG,L_SCAN,"Can't create file handle\n");
return FALSE;
}
if(!io_open(hfile,"file://%U?ascii=1",filename)) {
DPRINTF(E_WARN,L_SCAN,"Could not open %s for reading: %s\n",filename,
io_errstr(hfile));
io_dispose(hfile);
return FALSE;
}
io_buffer(hfile);
len = sizeof(linebuffer);
if(!io_readline(hfile,(unsigned char *)linebuffer,&len)) {
DPRINTF(E_WARN,L_SCAN,"Error reading from file %s: %s",filename,io_errstr(hfile));
io_close(hfile);
io_dispose(hfile);
return FALSE;
}
while((linebuffer[strlen(linebuffer)-1] == '\n') ||
(linebuffer[strlen(linebuffer)-1] == '\r')) {
linebuffer[strlen(linebuffer)-1] = '\0';
}
head=linebuffer;
tail=strchr(head,',');
if(!tail) {
DPRINTF(E_LOG,L_SCAN,"Badly formatted .url file - must be bitrate,descr,url\n");
io_close(hfile);
io_dispose(hfile);
return FALSE;
}
pmp3->bitrate=atoi(head);
head=++tail;
tail=strchr(head,',');
if(!tail) {
DPRINTF(E_LOG,L_SCAN,"Badly formatted .url file - must be bitrate,descr,url\n");
io_close(hfile);
io_dispose(hfile);
return FALSE;
}
*tail++='\0';
pmp3->title=strdup(head);
pmp3->url=strdup(tail);
io_close(hfile);
io_dispose(hfile);
DPRINTF(E_DBG,L_SCAN," Title: %s\n",pmp3->title);
DPRINTF(E_DBG,L_SCAN," Bitrate: %d\n",pmp3->bitrate);
DPRINTF(E_DBG,L_SCAN," URL: %s\n",pmp3->url);
return TRUE;
}
struct hfp_hf *hfp_hf_new(int fd)
{
struct hfp_hf *hfp;
if (fd < 0)
return NULL;
hfp = new0(struct hfp_hf, 1);
if (!hfp)
return NULL;
hfp->fd = fd;
hfp->close_on_unref = false;
hfp->read_buf = ringbuf_new(4096);
if (!hfp->read_buf) {
free(hfp);
return NULL;
}
hfp->write_buf = ringbuf_new(4096);
if (!hfp->write_buf) {
ringbuf_free(hfp->read_buf);
free(hfp);
return NULL;
}
hfp->io = io_new(fd);
if (!hfp->io) {
ringbuf_free(hfp->write_buf);
ringbuf_free(hfp->read_buf);
free(hfp);
return NULL;
}
hfp->event_handlers = queue_new();
if (!hfp->event_handlers) {
io_destroy(hfp->io);
ringbuf_free(hfp->write_buf);
ringbuf_free(hfp->read_buf);
free(hfp);
return NULL;
}
hfp->cmd_queue = queue_new();
if (!hfp->cmd_queue) {
io_destroy(hfp->io);
ringbuf_free(hfp->write_buf);
ringbuf_free(hfp->read_buf);
queue_destroy(hfp->event_handlers, NULL);
free(hfp);
return NULL;
}
hfp->writer_active = false;
if (!io_set_read_handler(hfp->io, hf_can_read_data, hfp,
read_watch_destroy)) {
queue_destroy(hfp->event_handlers,
destroy_event_handler);
io_destroy(hfp->io);
ringbuf_free(hfp->write_buf);
ringbuf_free(hfp->read_buf);
free(hfp);
return NULL;
}
return hfp_hf_ref(hfp);
}
/**
* main aac scanning routing.
*
* @param filename file to scan
* @param pmp3 pointer to the MP3FILE to fill with data
* @returns FALSE if file should not be added to database, TRUE otherwise
*/
int scan_get_aacinfo(char *filename, MP3FILE *pmp3) {
IOHANDLE hfile;
uint64_t atom_offset, pos;
uint32_t bytes_read;
unsigned int atom_length;
long current_offset=0;
uint32_t current_size;
char current_atom[4];
char *current_data;
unsigned short us_data;
int genre;
int len;
uint32_t sample_size;
uint32_t samples;
uint32_t bit_rate;
int ms;
unsigned char buffer[2];
uint32_t time = 0;
hfile = io_new();
if(!hfile)
DPRINTF(E_FATAL,L_SCAN,"Malloc error in scan_get_aacinfo\n");
if(!io_open(hfile,"file://%U",filename)) {
DPRINTF(E_INF,L_SCAN,"Cannot open file %s for reading: %s\n",filename,
io_errstr(hfile));
io_dispose(hfile);
return FALSE;
}
atom_offset=scan_aac_drilltoatom(hfile, "moov:udta:meta:ilst", &atom_length);
if(atom_offset != -1) {
/* found the tag section - need to walk through now */
while(current_offset < (uint64_t)atom_length) {
bytes_read = sizeof(uint32_t);
if(!io_read(hfile,(unsigned char *)¤t_size,&bytes_read) || !bytes_read) {
DPRINTF(E_LOG,L_SCAN,"Error reading mp4 atoms: %s\n",io_errstr(hfile));
io_dispose(hfile);
return FALSE;
}
current_size=ntohl(current_size);
DPRINTF(E_SPAM,L_SCAN,"Current size: %d\n",current_size);
if(current_size <= 7) { /* something not right */
DPRINTF(E_LOG,L_SCAN,"mp4 atom too small. Bad aac tags?\n");
io_dispose(hfile);
return FALSE;
}
bytes_read = 4;
if(!io_read(hfile,(unsigned char *)current_atom,&bytes_read) || !bytes_read) {
DPRINTF(E_LOG,L_SCAN,"Error reading mp4 atoms: %s\n",io_errstr(hfile));
io_dispose(hfile);
return FALSE;
}
DPRINTF(E_SPAM,L_SCAN,"Current Atom: %c%c%c%c\n",
current_atom[0],current_atom[1],current_atom[2],
current_atom[3]);
if(current_size > 4096) { /* Does this break anything? */
/* too big! cover art, maybe? */
io_setpos(hfile,current_size - 8, SEEK_CUR);
DPRINTF(E_SPAM,L_SCAN,"Atom too big... skipping\n");
} else {
len=current_size-7; /* for ill-formed too-short tags */
if(len < 22) {
len=22;
}
current_data=(char*)malloc(len); /* extra byte */
memset(current_data,0x00,len);
bytes_read = current_size - 8;
if(!io_read(hfile,(unsigned char *)current_data,&bytes_read) || (!bytes_read)) {
DPRINTF(E_LOG,L_SCAN,"Error reading mp4 data: %s\n",io_errstr(hfile));
free(current_data);
io_dispose(hfile);
return FALSE;
}
if(!memcmp(current_atom,"\xA9" "nam",4)) { /* Song name */
pmp3->title=strdup((char*)¤t_data[16]);
} else if(!memcmp(current_atom,"aART",4)) {
pmp3->album_artist=strdup((char*)¤t_data[16]);
} else if(!memcmp(current_atom,"\xA9" "ART",4)) {
pmp3->artist=strdup((char*)¤t_data[16]);
} else if(!memcmp(current_atom,"\xA9" "alb",4)) {
pmp3->album=strdup((char*)¤t_data[16]);
} else if(!memcmp(current_atom,"\xA9" "cmt",4)) {
pmp3->comment=strdup((char*)¤t_data[16]);
} else if(!memcmp(current_atom,"\xA9" "wrt",4)) {
pmp3->composer=strdup((char*)¤t_data[16]);
} else if(!memcmp(current_atom,"\xA9" "grp",4)) {
pmp3->grouping=strdup((char*)¤t_data[16]);
} else if(!memcmp(current_atom,"\xA9" "gen",4)) {
/* can this be a winamp genre??? */
pmp3->genre=strdup((char*)¤t_data[16]);
} else if(!memcmp(current_atom,"tmpo",4)) {
us_data=*((unsigned short *)¤t_data[16]);
us_data=ntohs(us_data);
pmp3->bpm=us_data;
} else if(!memcmp(current_atom,"trkn",4)) {
us_data=*((unsigned short *)¤t_data[18]);
us_data=ntohs(us_data);
pmp3->track=us_data;
us_data=*((unsigned short *)¤t_data[20]);
us_data=ntohs(us_data);
pmp3->total_tracks=us_data;
} else if(!memcmp(current_atom,"disk",4)) {
us_data=*((unsigned short *)¤t_data[18]);
us_data=ntohs(us_data);
pmp3->disc=us_data;
us_data=*((unsigned short *)¤t_data[20]);
us_data=ntohs(us_data);
pmp3->total_discs=us_data;
} else if(!memcmp(current_atom,"\xA9" "day",4)) {
pmp3->year=atoi((char*)¤t_data[16]);
} else if(!memcmp(current_atom,"gnre",4)) {
genre=(int)(*((char*)¤t_data[17]));
genre--;
if((genre < 0) || (genre > WINAMP_GENRE_UNKNOWN))
genre=WINAMP_GENRE_UNKNOWN;
pmp3->genre=strdup(scan_winamp_genre[genre]);
} else if (!memcmp(current_atom, "cpil", 4)) {
pmp3->compilation = current_data[16];
}
free(current_data);
}
current_offset+=current_size;
}
}
/* got the tag info, now let's get bitrate, etc */
atom_offset = scan_aac_drilltoatom(hfile, "moov:mvhd", &atom_length);
if(atom_offset != -1) {
io_setpos(hfile,4,SEEK_CUR);
/* FIXME: error handling */
bytes_read = sizeof(uint32_t);
if(!io_read(hfile,(unsigned char *)&time, &bytes_read)) {
DPRINTF(E_LOG,L_SCAN,"Error reading time from moov:mvhd: %s\n",
io_errstr(hfile));
io_dispose(hfile);
return FALSE;
}
time = ntohl(time);
pmp3->time_added = (int)scan_aac_mac_to_unix_time(time);
bytes_read = sizeof(uint32_t);
if(!io_read(hfile,(unsigned char *)&time, &bytes_read)) {
DPRINTF(E_LOG,L_SCAN,"Error reading time from moov:mvhd: %s\n",
io_errstr(hfile));
io_dispose(hfile);
return FALSE;
}
time = ntohl(time);
pmp3->time_modified = (int)scan_aac_mac_to_unix_time(time);
bytes_read = sizeof(uint32_t);
if(!io_read(hfile,(unsigned char *)&sample_size,&bytes_read)) {
DPRINTF(E_LOG,L_SCAN,"Error reading sample_size from moov:mvhd: %s\n",
io_errstr(hfile));
io_dispose(hfile);
return FALSE;
}
bytes_read = sizeof(uint32_t);
if(!io_read(hfile,(unsigned char*)&samples, &bytes_read)) {
DPRINTF(E_LOG,L_SCAN,"Error reading samples from moov:mvhd: %s\n",
io_errstr(hfile));
io_dispose(hfile);
return FALSE;
}
sample_size=ntohl(sample_size);
samples=ntohl(samples);
/* avoid overflowing on large sample_sizes (90000) */
ms=1000;
while((ms > 9) && (!(sample_size % 10))) {
sample_size /= 10;
ms /= 10;
}
/* DWB: use ms time instead of sec */
pmp3->song_length=(uint32_t)((samples * ms) / sample_size);
DPRINTF(E_DBG,L_SCAN,"Song length: %d seconds\n",
pmp3->song_length / 1000);
}
pmp3->bitrate = 0;
/* see if it is aac or alac */
atom_offset = scan_aac_drilltoatom(hfile,
"moov:trak:mdia:minf:stbl:stsd:alac",
&atom_length);
if(atom_offset != -1) {
/* should we still pull samplerate, etc from the this atom? */
if(pmp3->codectype) {
free(pmp3->codectype);
}
pmp3->codectype=strdup("alac");
}
/* Get the sample rate from the 'mp4a' atom (timescale). This is also
found in the 'mdhd' atom which is a bit closer but we need to
navigate to the 'mp4a' atom anyways to get to the 'esds' atom. */
atom_offset=scan_aac_drilltoatom(hfile,
"moov:trak:mdia:minf:stbl:stsd:mp4a",
&atom_length);
if(atom_offset == -1) {
atom_offset=scan_aac_drilltoatom(hfile,
"moov:trak:mdia:minf:stbl:stsd:drms",
&atom_length);
}
if (atom_offset != -1) {
io_setpos(hfile, atom_offset + 32, SEEK_SET);
/* Timescale here seems to be 2 bytes here (the 2 bytes before it are
* "reserved") though the timescale in the 'mdhd' atom is 4. Not sure
* how this is dealt with when sample rate goes higher than 64K. */
bytes_read = 2;
if(!io_read(hfile, (unsigned char *)buffer, &bytes_read)) {
DPRINTF(E_LOG,L_SCAN,"Error reading timescale from drms atom: %s\n",
io_errstr(hfile));
io_dispose(hfile);
return FALSE;
}
pmp3->samplerate = (buffer[0] << 8) | (buffer[1]);
/* Seek to end of atom. */
io_setpos(hfile, 2, SEEK_CUR);
/* Get the bit rate from the 'esds' atom. We are already positioned
in the parent atom so just scan ahead. */
io_getpos(hfile,&pos);
atom_offset = scan_aac_findatom(hfile,
atom_length-(pos-atom_offset),
"esds", &atom_length);
if (atom_offset != -1) {
/* Roku Soundbridge seems to believe anything above 320K is
* an ALAC encoded m4a. We'll lie on their behalf.
*/
io_setpos(hfile, atom_offset + 22, SEEK_CUR);
bytes_read = sizeof(unsigned int);
if(!io_read(hfile, (unsigned char *)&bit_rate, &bytes_read)) {
DPRINTF(E_LOG,L_SCAN,"Error reading bitrate from esds: %s\n",
io_errstr(hfile));
io_dispose(hfile);
return FALSE;
}
pmp3->bitrate = ntohl(bit_rate) / 1000;
DPRINTF(E_DBG,L_SCAN,"esds bitrate: %d\n",pmp3->bitrate);
if(pmp3->bitrate > 320) {
pmp3->bitrate = 320;
}
} else {
DPRINTF(E_DBG,L_SCAN, "Couldn't find 'esds' atom for bit rate.\n");
}
} else {
DPRINTF(E_DBG,L_SCAN, "Couldn't find 'mp4a' atom for sample rate.\n");
}
/* Fallback if we can't find the info in the atoms. */
if (pmp3->bitrate == 0) {
/* calculate bitrate from song length... Kinda cheesy */
DPRINTF(E_DBG,L_SCAN, "Guesstimating bit rate.\n");
atom_offset=scan_aac_drilltoatom(hfile,"mdat",&atom_length);
if ((atom_offset != -1) && (pmp3->song_length >= 1000)) {
pmp3->bitrate = atom_length / ((pmp3->song_length / 1000) * 128);
}
}
io_close(hfile);
io_dispose(hfile);
return TRUE; /* we'll return as much as we got. */
}