static int mcdx_transfer(struct s_drive_stuff *stuffp,
char *p, int sector, int nr_sectors)
/* This seems to do the actually transfer. But it does more. It
keeps track of errors occurred and will (if possible) fall back
to single speed on error.
Return: -1 on timeout or other error
else status byte (as in stuff->st) */
{
int ans;
ans = mcdx_xfer(stuffp, p, sector, nr_sectors);
return ans;
#ifdef FALLBACK
if (-1 == ans)
stuffp->readerrs++;
else
return ans;
if (stuffp->readerrs && stuffp->readcmd == READ1X) {
xwarn("XXX Already reading 1x -- no chance\n");
return -1;
}
xwarn("XXX Fallback to 1x\n");
stuffp->readcmd = READ1X;
return mcdx_transfer(stuffp, p, sector, nr_sectors);
#endif
}
NetSocket* TCPNetworkEngine::connect(const char* uri)
{
if(strncmp(uri, "yc://", 5) == 0)
{
const char* host = uri + 5;
TCPNetSocket* s = new TCPNetSocket();
s->socket = socket(PF_INET, SOCK_STREAM, 0);
xerror(s->socket != SOCKET_ERROR, "Could not create a socket.");
struct hostent* hostaddr = gethostbyname(host);
xwarn(hostaddr->h_addr_list, "Could not retreive address for host %s", host);
if(!hostaddr->h_addr_list)
return NULL;
struct sockaddr_in saddr;
bzero(&saddr, sizeof(saddr));
saddr.sin_family = hostaddr->h_addrtype;
saddr.sin_port = htons(port);
#ifndef WIN32
inet_pton(hostaddr->h_addrtype, hostaddr->h_addr_list[0], &saddr.sin_addr);
#else
struct sockaddr_storage ss;
int sslen = sizeof(ss);
WSAStringToAddressA(hostaddr->h_addr_list[0], hostaddr->h_addrtype, NULL, (struct sockaddr*)&ss, &sslen);
saddr.sin_addr = ((struct sockaddr_in *)&ss)->sin_addr;
#endif
if(::connect(s->socket, (struct sockaddr *)&saddr, sizeof(saddr) ) == SOCKET_ERROR)
{
xwarn(false, "Could not connect to %s", host);
return NULL;
}
#ifdef WIN32
ULONG on=1;
ioctlsocket(s->socket, FIONBIO, &on);
#else
fcntl(s->socket, F_SETFL, O_NONBLOCK);
#endif
return s;
} else {
xwarn(false, "Unknown protocol : %s", uri);
return NULL;
}
}
static void __exit mcdx_exit(void)
{
int i;
xinfo("cleanup_module called\n");
for (i = 0; i < MCDX_NDRIVES; i++) {
struct s_drive_stuff *stuffp = mcdx_stuffp[i];
if (!stuffp)
continue;
del_gendisk(stuffp->disk);
if (unregister_cdrom(&stuffp->info)) {
printk(KERN_WARNING "Can't unregister cdrom mcdx\n");
continue;
}
put_disk(stuffp->disk);
release_region(stuffp->wreg_data, MCDX_IO_SIZE);
free_irq(stuffp->irq, NULL);
if (stuffp->toc) {
xtrace(MALLOC, "cleanup_module() free toc @ %p\n",
stuffp->toc);
kfree(stuffp->toc);
}
xtrace(MALLOC, "cleanup_module() free stuffp @ %p\n",
stuffp);
mcdx_stuffp[i] = NULL;
kfree(stuffp);
}
if (unregister_blkdev(MAJOR_NR, "mcdx") != 0) {
xwarn("cleanup() unregister_blkdev() failed\n");
}
blk_cleanup_queue(mcdx_queue);
#if !MCDX_QUIET
else
void __exit mcdx_exit(void)
{
int i;
xinfo("cleanup_module called\n");
for (i = 0; i < MCDX_NDRIVES; i++) {
struct s_drive_stuff *stuffp;
if (unregister_cdrom(&mcdx_info)) {
printk(KERN_WARNING "Can't unregister cdrom mcdx\n");
return;
}
stuffp = mcdx_stuffp[i];
if (!stuffp) continue;
release_region((unsigned long) stuffp->wreg_data, MCDX_IO_SIZE);
free_irq(stuffp->irq, NULL);
if (stuffp->toc) {
xtrace(MALLOC, "cleanup_module() free toc @ %p\n", stuffp->toc);
kfree(stuffp->toc);
}
xtrace(MALLOC, "cleanup_module() free stuffp @ %p\n", stuffp);
mcdx_stuffp[i] = NULL;
kfree(stuffp);
}
if (devfs_unregister_blkdev(MAJOR_NR, "mcdx") != 0) {
xwarn("cleanup() unregister_blkdev() failed\n");
}
blk_cleanup_queue(BLK_DEFAULT_QUEUE(MAJOR_NR));
#if !MCDX_QUIET
else xinfo("cleanup() succeeded\n");
void State::setControlledObject(Controllable* newControlledObject, int controllerID) {
xwarn(true, "No GC for Controllable.");
if(controlledObjects.size() <= (unsigned int)controllerID) {
controlledObjects.resize(controllerID+1, NULL);
}
controlledObjects[controllerID] = newControlledObject;
}
static int
mcdx_playmsf(struct s_drive_stuff *stuffp, const struct cdrom_msf *msf)
{
unsigned char cmd[7] = {
0, 0, 0, 0, 0, 0, 0
};
if (!stuffp->readcmd) {
xinfo("Can't play from missing disk.\n");
return -1;
}
cmd[0] = stuffp->playcmd;
cmd[1] = msf->cdmsf_min0;
cmd[2] = msf->cdmsf_sec0;
cmd[3] = msf->cdmsf_frame0;
cmd[4] = msf->cdmsf_min1;
cmd[5] = msf->cdmsf_sec1;
cmd[6] = msf->cdmsf_frame1;
xtrace(PLAYMSF, "ioctl(): play %x "
"%02x:%02x:%02x -- %02x:%02x:%02x\n",
cmd[0], cmd[1], cmd[2], cmd[3], cmd[4], cmd[5], cmd[6]);
outsb(stuffp->wreg_data, cmd, sizeof cmd);
if (-1 == mcdx_getval(stuffp, 3 * HZ, 0, NULL)) {
xwarn("playmsf() timeout\n");
return -1;
}
stuffp->audiostatus = CDROM_AUDIO_PLAY;
return 0;
}
void SubScriptable::freeScript() {
xwarn(isFinished(), "Trying to forcefully unload a running script : %s.", scriptSource?scriptSource->name():"Unknown script"); // Protect from dead pointer. Not fully secure, but better than nothing.
if(scriptSource) {
scriptContext->engine()->scriptMap().freeScript(scriptSource);
delete scriptSource;
}
}
static int __init mcdx_init(void)
{
int drive;
xwarn("Version 2.14(hs) \n");
xwarn("$Id: mcdx.c,v 1.21 1997/01/26 07:12:59 davem Exp $\n");
/* zero the pointer array */
for (drive = 0; drive < MCDX_NDRIVES; drive++)
mcdx_stuffp[drive] = NULL;
/* do the initialisation */
for (drive = 0; drive < MCDX_NDRIVES; drive++) {
switch (mcdx_init_drive(drive)) {
case 2:
return -EIO;
case 1:
break;
}
}
return 0;
}
static int __init mcdx_init(void)
{
int drive;
xwarn("Version 2.14(hs) \n");
xwarn("$Id: //BBN_Linux/Branch/Branch_for_SDK_Release_MultiChip_20111013/tclinux_phoenix/linux/drivers/cdrom/mcdx.c#1 $\n");
/* zero the pointer array */
for (drive = 0; drive < MCDX_NDRIVES; drive++)
mcdx_stuffp[drive] = NULL;
/* do the initialisation */
for (drive = 0; drive < MCDX_NDRIVES; drive++) {
switch (mcdx_init_drive(drive)) {
case 2:
return -EIO;
case 1:
break;
}
}
return 0;
}
GameMap* State::loadMap(VFS::File* xmlFile) {
ScriptableObject* obj = load(xmlFile);
GameMap* m = scriptable_object_cast<GameMap*> (obj);
if(m != NULL) {
// Object is a map.
switchMap(m);
} else {
// Object is not a map.
if(obj != NULL) {
// Destroy it.
xwarn(obj, "Trying to load a non-map object as a map.");
delete obj;
}
}
return m;
}
Collidable* State::loadToMap(VFS::File* xmlFile) {
ScriptableObject* obj = load(xmlFile);
Collidable* c = scriptable_object_cast<Collidable*> (obj);
if(c != NULL) {
// Object is a Collidable.
m_map->addObject(c);
m_map->own(c);
} else {
// Object is not a Collidable.
if(obj != NULL) {
// Destroy it.
xwarn(obj, "Trying to load a non-collidable object into the map.");
delete obj;
}
}
return c;
}
static void
mcdx_intr(int irq, void *dev_id, struct pt_regs* regs)
{
struct s_drive_stuff *stuffp;
unsigned char b;
stuffp = mcdx_irq_map[irq];
if (stuffp == NULL ) {
xwarn("mcdx: no device for intr %d\n", irq);
return;
}
#ifdef AK2
if ( !stuffp->busy && stuffp->pending )
stuffp->int_err = 1;
#endif /* AK2 */
/* get the interrupt status */
b = inb((unsigned int) stuffp->rreg_status);
stuffp->introk = ~b & MCDX_RBIT_DTEN;
/* NOTE: We only should get interrupts if the data we
* requested are ready to transfer.
* But the drive seems to generate ``asynchronous'' interrupts
* on several error conditions too. (Despite the err int enable
* setting during initialisation) */
/* if not ok, read the next byte as the drives status */
if (!stuffp->introk) {
xtrace(IRQ, "intr() irq %d hw status 0x%02x\n", irq, b);
if (~b & MCDX_RBIT_STEN) {
xinfo( "intr() irq %d status 0x%02x\n",
irq, inb((unsigned int) stuffp->rreg_data));
} else {
xinfo( "intr() irq %d ambiguous hw status\n", irq);
}
} else {
xtrace(IRQ, "irq() irq %d ok, status %02x\n", irq, b);
}
stuffp->busy = 0;
wake_up_interruptible(&stuffp->busyq);
}
// QC:G
ObjectMold* Factory::createMold(TiXmlElement *xmlData, VFS::File* xmlFile)
{
Factory::moldmapping::iterator it;
if(!xmlData) {
return NULL;
}
const char* id = xmlData->Attribute("id");
const char* src = xmlData->Attribute("src");
if(src) {
std::map<const char*, const char*> overrides;
TiXmlAttribute* attr = xmlData->FirstAttribute();
while(attr) {
if(strcmp(attr->Name(), "id")!=0 && strcmp(attr->Name(), "src")!=0) {
overrides[attr->Name()] = attr->Value();
}
attr = attr->Next();
}
VFS::File* srcFile = VFS::openFile(src, xmlFile);
ObjectMold* createdObject = loadMold(srcFile, &overrides);
delete srcFile;
return createdObject;
}
// Find the factory for this class and call it.
it = moldFactories.find(xmlData->Value());
xassert(it != moldFactories.end(), "Don't know how to make molds of %s", xmlData->Value());
xassert(it->second, "NULL mold factory for class %s", xmlData->Value());
// Call the class-specific factory
ObjectMold* createdObject = (this->*(it->second))(xmlData, xmlFile);
createdObject->sourceFile = xmlFile->copy();
if(id) {
createdObject->setObjectId(id);
}
xwarn(createdObject, "Warning : could not create an instance of %s", xmlData->Value() );
return createdObject;
}
static size_t
expand(char *buf, const char *execname, int what, size_t bl)
{
#ifdef __minix
return 0;
#else
const char *p, *ep;
char *bp = buf;
size_t len;
char name[32];
switch (what) {
case 0: /* HWCAP XXX: Not yet */
case 1: /* ISALIST XXX: Not yet */
return 0;
case 2: /* ORIGIN */
if (execname == NULL)
xerr(1, "execname not specified in AUX vector");
if ((ep = strrchr(p = execname, '/')) == NULL)
xerr(1, "bad execname `%s' in AUX vector", execname);
break;
case 3: /* OSNAME */
case 4: /* OSREL */
case 5: /* PLATFORM */
len = sizeof(name);
if (sysctl(mib[what - 3], 2, name, &len, NULL, 0) == -1) {
xwarn("sysctl");
return 0;
}
ep = (p = name) + len - 1;
break;
default:
return 0;
}
while (p != ep && bl)
*bp++ = *p++, bl--;
return bp - buf;
#endif
}
UFB_Image *UFB_CreateImageFromFile(const char *filename)
{
UFB_ImageType type = UFB_GuessImageTypeFromExt(filename);
switch(type)
{
case UFB_IT_TGA:
return UFB_CreateImageFromFileTGA(filename);
case UFB_IT_PNG:
return UFB_CreateImageFromFilePNG(filename);
case UFB_IT_JPEG:
return UFB_CreateImageFromFileJPEG(filename);
default:
xwarn("Could not guess image type from filename '%s'", filename);
return NULL;
}
}
// QC:G
size_t VorbisPCMSource::read(void* outputBuffer, size_t outputBufferLen) {
// TODO : implement loop
char* buf = (char*) outputBuffer;
size_t totalBytes = 0;
while(outputBufferLen && !eofReached) {
long bytes = ov_read(&of, buf, outputBufferLen, 0, 2, 1, §ion);
if(bytes == OV_HOLE
|| bytes == OV_EBADLINK
|| bytes == OV_EINVAL) {
xwarn(false, "Problem while reading %s.", f->name());
return 0;
} else if(bytes == 0) {
eofReached = true;
return 0;
}
totalBytes += bytes;
outputBufferLen -= bytes;
buf += bytes;
}
return totalBytes;
}
UFB_Image *UFB_CreateImageFromFileTGA(const char *filename)
{
TGA_Image tgaimg = TGA_LoadFromFile(filename);
xassert(tgaimg.error == 0, "Error loading tga image '%s'", filename);
if(tgaimg.yorigin == 0)
xwarn("Tga image will be flipped, save with origin at upper-left corner!");
UFB_Image *img;
if(tgaimg.bpp == 32)
{
img = UFB_ConvertRGBA32PixelsToImage(tgaimg.data, tgaimg.width, tgaimg.height);
}
else if(tgaimg.bpp == 24)
{
img = UFB_ConvertRGB24PixelsToImage(tgaimg.data, tgaimg.width, tgaimg.height);
}
free(tgaimg.data);
return img;
}
static int mcdx_xfer(struct s_drive_stuff *stuffp,
char *p, int sector, int nr_sectors)
/* This does actually the transfer from the drive.
Return: -1 on timeout or other error
else status byte (as in stuff->st) */
{
int border;
int done = 0;
long timeout;
if (stuffp->audio) {
xwarn("Attempt to read from audio CD.\n");
return -1;
}
if (!stuffp->readcmd) {
xinfo("Can't transfer from missing disk.\n");
return -1;
}
while (stuffp->lock) {
interruptible_sleep_on(&stuffp->lockq);
}
if (stuffp->valid && (sector >= stuffp->pending)
&& (sector < stuffp->low_border)) {
/* All (or at least a part of the sectors requested) seems
* to be already requested, so we don't need to bother the
* drive with new requests ...
* Wait for the drive become idle, but first
* check for possible occurred errors --- the drive
* seems to report them asynchronously */
border = stuffp->high_border < (border =
sector + nr_sectors)
? stuffp->high_border : border;
stuffp->lock = current->pid;
do {
while (stuffp->busy) {
timeout =
interruptible_sleep_on_timeout
(&stuffp->busyq, 5 * HZ);
if (!stuffp->introk) {
xtrace(XFER,
"error via interrupt\n");
} else if (!timeout) {
xtrace(XFER, "timeout\n");
} else if (signal_pending(current)) {
xtrace(XFER, "signal\n");
} else
continue;
stuffp->lock = 0;
stuffp->busy = 0;
stuffp->valid = 0;
wake_up_interruptible(&stuffp->lockq);
xtrace(XFER, "transfer() done (-1)\n");
return -1;
}
/* check if we need to set the busy flag (as we
* expect an interrupt */
stuffp->busy = (3 == (stuffp->pending & 3));
/* Test if it's the first sector of a block,
* there we have to skip some bytes as we read raw data */
if (stuffp->xa && (0 == (stuffp->pending & 3))) {
const int HEAD =
CD_FRAMESIZE_RAW - CD_XA_TAIL -
CD_FRAMESIZE;
insb(stuffp->rreg_data, p, HEAD);
}
/* now actually read the data */
insb(stuffp->rreg_data, p, 512);
/* test if it's the last sector of a block,
* if so, we have to handle XA special */
if ((3 == (stuffp->pending & 3)) && stuffp->xa) {
char dummy[CD_XA_TAIL];
insb(stuffp->rreg_data, &dummy[0], CD_XA_TAIL);
}
if (stuffp->pending == sector) {
p += 512;
done++;
sector++;
}
} while (++(stuffp->pending) < border);
stuffp->lock = 0;
wake_up_interruptible(&stuffp->lockq);
} else {
/* The requested sector(s) is/are out of the
* already requested range, so we have to bother the drive
* with a new request. */
static unsigned char cmd[] = {
0,
0, 0, 0,
0, 0, 0
};
cmd[0] = stuffp->readcmd;
/* The numbers held in ->pending, ..., should be valid */
stuffp->valid = 1;
stuffp->pending = sector & ~3;
/* do some sanity checks */
if (stuffp->pending > stuffp->lastsector) {
xwarn
("transfer() sector %d from nirvana requested.\n",
stuffp->pending);
stuffp->status = MCDX_ST_EOM;
stuffp->valid = 0;
xtrace(XFER, "transfer() done (-1)\n");
return -1;
}
if ((stuffp->low_border = stuffp->pending + DIRECT_SIZE)
> stuffp->lastsector + 1) {
xtrace(XFER, "cut low_border\n");
stuffp->low_border = stuffp->lastsector + 1;
}
if ((stuffp->high_border = stuffp->pending + REQUEST_SIZE)
> stuffp->lastsector + 1) {
xtrace(XFER, "cut high_border\n");
stuffp->high_border = stuffp->lastsector + 1;
}
{ /* Convert the sector to be requested to MSF format */
struct cdrom_msf0 pending;
log2msf(stuffp->pending / 4, &pending);
cmd[1] = pending.minute;
cmd[2] = pending.second;
cmd[3] = pending.frame;
}
cmd[6] =
(unsigned
char) ((stuffp->high_border - stuffp->pending) / 4);
xtrace(XFER, "[%2d]\n", cmd[6]);
stuffp->busy = 1;
/* Now really issue the request command */
outsb(stuffp->wreg_data, cmd, sizeof cmd);
}
#ifdef AK2
if (stuffp->int_err) {
stuffp->valid = 0;
stuffp->int_err = 0;
return -1;
}
#endif /* AK2 */
stuffp->low_border = (stuffp->low_border +=
done) <
stuffp->high_border ? stuffp->low_border : stuffp->high_border;
return done;
}
int main(int argc, char *argv[])
{
int o;
unsigned short old_rows;
struct slab_info *slab_list = NULL;
int run_once = 0, retval = EXIT_SUCCESS;
static const struct option longopts[] = {
{ "delay", required_argument, NULL, 'd' },
{ "sort", required_argument, NULL, 's' },
{ "once", no_argument, NULL, 'o' },
{ "help", no_argument, NULL, 'h' },
{ "version", no_argument, NULL, 'V' },
{ NULL, 0, NULL, 0 }
};
#ifdef HAVE_PROGRAM_INVOCATION_NAME
program_invocation_name = program_invocation_short_name;
#endif
setlocale (LC_ALL, "");
bindtextdomain(PACKAGE, LOCALEDIR);
textdomain(PACKAGE);
atexit(close_stdout);
sort_func = DEF_SORT_FUNC;
while ((o = getopt_long(argc, argv, "d:s:ohV", longopts, NULL)) != -1) {
switch (o) {
case 'd':
errno = 0;
delay = strtol_or_err(optarg, _("illegal delay"));
if (delay < 1)
xerrx(EXIT_FAILURE,
_("delay must be positive integer"));
break;
case 's':
sort_func = (int (*)(const struct slab_info*,
const struct slab_info *)) set_sort_func(optarg[0]);
break;
case 'o':
run_once=1;
delay = 0;
break;
case 'V':
printf(PROCPS_NG_VERSION);
return EXIT_SUCCESS;
case 'h':
usage(stdout);
default:
usage(stderr);
}
}
if (tcgetattr(STDIN_FILENO, &saved_tty) == -1)
xwarn(_("terminal setting retrieval"));
old_rows = rows;
term_size(0);
if (!run_once) {
initscr();
resizeterm(rows, cols);
signal(SIGWINCH, term_size);
}
signal(SIGINT, sigint_handler);
do {
struct slab_info *curr;
struct slab_stat stats;
struct timeval tv;
fd_set readfds;
char c;
int i;
memset(&stats, 0, sizeof(struct slab_stat));
if (get_slabinfo(&slab_list, &stats)) {
retval = EXIT_FAILURE;
break;
}
if (!run_once && old_rows != rows) {
resizeterm(rows, cols);
old_rows = rows;
}
move(0, 0);
print_line(" %-35s: %d / %d (%.1f%%)\n"
" %-35s: %d / %d (%.1f%%)\n"
" %-35s: %d / %d (%.1f%%)\n"
" %-35s: %.2fK / %.2fK (%.1f%%)\n"
" %-35s: %.2fK / %.2fK / %.2fK\n\n",
/* Translation Hint: Next five strings must not
* exceed 35 length in characters. */
/* xgettext:no-c-format */
_("Active / Total Objects (% used)"),
stats.nr_active_objs, stats.nr_objs,
100.0 * stats.nr_active_objs / stats.nr_objs,
/* xgettext:no-c-format */
_("Active / Total Slabs (% used)"),
stats.nr_active_slabs, stats.nr_slabs,
100.0 * stats.nr_active_slabs / stats.nr_slabs,
/* xgettext:no-c-format */
_("Active / Total Caches (% used)"),
stats.nr_active_caches, stats.nr_caches,
100.0 * stats.nr_active_caches / stats.nr_caches,
/* xgettext:no-c-format */
_("Active / Total Size (% used)"),
stats.active_size / 1024.0, stats.total_size / 1024.0,
100.0 * stats.active_size / stats.total_size,
_("Minimum / Average / Maximum Object"),
stats.min_obj_size / 1024.0, stats.avg_obj_size / 1024.0,
stats.max_obj_size / 1024.0);
slab_list = slabsort(slab_list);
attron(A_REVERSE);
/* Translation Hint: Please keep alignment of the
* following intact. */
print_line("%-78s\n", _(" OBJS ACTIVE USE OBJ SIZE SLABS OBJ/SLAB CACHE SIZE NAME"));
attroff(A_REVERSE);
curr = slab_list;
for (i = 0; i < rows - 8 && curr->next; i++) {
print_line("%6u %6u %3u%% %7.2fK %6u %8u %9uK %-23s\n",
curr->nr_objs, curr->nr_active_objs, curr->use,
curr->obj_size / 1024.0, curr->nr_slabs,
curr->objs_per_slab, (unsigned)(curr->cache_size / 1024),
curr->name);
curr = curr->next;
}
put_slabinfo(slab_list);
if (!run_once) {
refresh();
FD_ZERO(&readfds);
FD_SET(STDIN_FILENO, &readfds);
tv.tv_sec = delay;
tv.tv_usec = 0;
if (select(STDOUT_FILENO, &readfds, NULL, NULL, &tv) > 0) {
if (read(STDIN_FILENO, &c, 1) != 1)
break;
parse_input(c);
}
}
} while (delay);
tcsetattr(STDIN_FILENO, TCSAFLUSH, &saved_tty);
free_slabinfo(slab_list);
if (!run_once)
endwin();
return retval;
}
ScriptMap::~ScriptMap() {
for(std::map<VFS::File*, ScriptMap::Script, strCmp>::iterator si = scripts.begin(); si != scripts.end(); si++) {
syslog(" Script : %s", si->first->name());
}
xwarn(scripts.size() == 0, "Script map not empty : script allocation has memory leaks.");
}
// QC:A
ScriptableObject* Factory::createInstance(TiXmlElement *xmlData, VFS::File* xmlFile, ownedset* owned)
{
Factory::mapping::iterator it;
if(!xmlData) {
return NULL;
}
const char* id = xmlData->Attribute("id");
if(id) {
ScriptableObject* obj = state->script()->getobj(id);
if(obj) {
syslog("reusing id=%s", id);
return obj;
}
}
const char* src = xmlData->Attribute("src");
if(src) {
std::map<const char*, const char*> overrides;
TiXmlAttribute* attr = xmlData->FirstAttribute();
while(attr) {
if(strcmp(attr->Name(), "id")!=0 && strcmp(attr->Name(), "src")!=0) {
overrides[attr->Name()] = attr->Value();
}
attr = attr->Next();
}
VFS::File* srcFile = VFS::openFile(src, xmlFile);
ScriptableObject* createdObject = load(srcFile, &overrides, owned);
delete srcFile;
if(id) {
state->script()->setval(id, createdObject);
}
return createdObject;
}
// Find the factory for this class and call it.
it = factories.find(xmlData->Value());
xassert(it != factories.end(), "Don't know how to make instances of %s", xmlData->Value());
xassert(it->second, "NULL factory for class %s", xmlData->Value());
// Call the class-specific factory
ScriptableObject* createdObject = (this->*(it->second))(xmlData, xmlFile, owned);
createdObject->sourceFile = xmlFile->copy();
if(id) {
state->script()->setval(id, createdObject);
}
xwarn(createdObject, "Warning : could not create an instance of %s", xmlData->Value() );
#ifdef KEEP_AOD_SOURCES
createdObject->aodSource = xmlData->Clone()->ToElement();
char ptrValue[64];
sprintf(ptrValue, "%p", createdObject);
createdObject->aodSource->SetAttribute("_ptr", ptrValue);
#endif
return createdObject;
}
static int __init mcdx_init_drive(int drive)
{
struct s_version version;
struct gendisk *disk;
struct s_drive_stuff *stuffp;
int size = sizeof(*stuffp);
char msg[80];
xtrace(INIT, "init() try drive %d\n", drive);
xtrace(INIT, "kmalloc space for stuffpt's\n");
xtrace(MALLOC, "init() malloc %d bytes\n", size);
if (!(stuffp = kzalloc(size, GFP_KERNEL))) {
xwarn("init() malloc failed\n");
return 1;
}
disk = alloc_disk(1);
if (!disk) {
xwarn("init() malloc failed\n");
kfree(stuffp);
return 1;
}
xtrace(INIT, "init() got %d bytes for drive stuff @ %p\n",
sizeof(*stuffp), stuffp);
/* set default values */
stuffp->present = 0; /* this should be 0 already */
stuffp->toc = NULL; /* this should be NULL already */
/* setup our irq and i/o addresses */
stuffp->irq = irq(mcdx_drive_map[drive]);
stuffp->wreg_data = stuffp->rreg_data = port(mcdx_drive_map[drive]);
stuffp->wreg_reset = stuffp->rreg_status = stuffp->wreg_data + 1;
stuffp->wreg_hcon = stuffp->wreg_reset + 1;
stuffp->wreg_chn = stuffp->wreg_hcon + 1;
init_waitqueue_head(&stuffp->busyq);
init_waitqueue_head(&stuffp->lockq);
init_waitqueue_head(&stuffp->sleepq);
/* check if i/o addresses are available */
if (!request_region(stuffp->wreg_data, MCDX_IO_SIZE, "mcdx")) {
xwarn("0x%03x,%d: Init failed. "
"I/O ports (0x%03x..0x%03x) already in use.\n",
stuffp->wreg_data, stuffp->irq,
stuffp->wreg_data,
stuffp->wreg_data + MCDX_IO_SIZE - 1);
xtrace(MALLOC, "init() free stuffp @ %p\n", stuffp);
kfree(stuffp);
put_disk(disk);
xtrace(INIT, "init() continue at next drive\n");
return 0; /* next drive */
}
xtrace(INIT, "init() i/o port is available at 0x%03x\n"
stuffp->wreg_data);
xtrace(INIT, "init() hardware reset\n");
mcdx_reset(stuffp, HARD, 1);
xtrace(INIT, "init() get version\n");
if (-1 == mcdx_requestversion(stuffp, &version, 4)) {
/* failed, next drive */
release_region(stuffp->wreg_data, MCDX_IO_SIZE);
xwarn("%s=0x%03x,%d: Init failed. Can't get version.\n",
MCDX, stuffp->wreg_data, stuffp->irq);
xtrace(MALLOC, "init() free stuffp @ %p\n", stuffp);
kfree(stuffp);
put_disk(disk);
xtrace(INIT, "init() continue at next drive\n");
return 0;
}
switch (version.code) {
case 'D':
stuffp->readcmd = READ2X;
stuffp->present = DOUBLE | DOOR | MULTI;
break;
case 'F':
stuffp->readcmd = READ1X;
stuffp->present = SINGLE | DOOR | MULTI;
break;
case 'M':
stuffp->readcmd = READ1X;
stuffp->present = SINGLE;
break;
default:
stuffp->present = 0;
break;
}
stuffp->playcmd = READ1X;
if (!stuffp->present) {
release_region(stuffp->wreg_data, MCDX_IO_SIZE);
xwarn("%s=0x%03x,%d: Init failed. No Mitsumi CD-ROM?.\n",
MCDX, stuffp->wreg_data, stuffp->irq);
kfree(stuffp);
put_disk(disk);
return 0; /* next drive */
}
xtrace(INIT, "init() register blkdev\n");
if (register_blkdev(MAJOR_NR, "mcdx")) {
release_region(stuffp->wreg_data, MCDX_IO_SIZE);
kfree(stuffp);
put_disk(disk);
return 1;
}
mcdx_queue = blk_init_queue(do_mcdx_request, &mcdx_lock);
if (!mcdx_queue) {
unregister_blkdev(MAJOR_NR, "mcdx");
release_region(stuffp->wreg_data, MCDX_IO_SIZE);
kfree(stuffp);
put_disk(disk);
return 1;
}
xtrace(INIT, "init() subscribe irq and i/o\n");
if (request_irq(stuffp->irq, mcdx_intr, IRQF_DISABLED, "mcdx", stuffp)) {
release_region(stuffp->wreg_data, MCDX_IO_SIZE);
xwarn("%s=0x%03x,%d: Init failed. Can't get irq (%d).\n",
MCDX, stuffp->wreg_data, stuffp->irq, stuffp->irq);
stuffp->irq = 0;
blk_cleanup_queue(mcdx_queue);
kfree(stuffp);
put_disk(disk);
return 0;
}
xtrace(INIT, "init() get garbage\n");
{
int i;
mcdx_delay(stuffp, HZ / 2);
for (i = 100; i; i--)
(void) inb(stuffp->rreg_status);
}
#ifdef WE_KNOW_WHY
/* irq 11 -> channel register */
outb(0x50, stuffp->wreg_chn);
#endif
xtrace(INIT, "init() set non dma but irq mode\n");
mcdx_config(stuffp, 1);
stuffp->info.ops = &mcdx_dops;
stuffp->info.speed = 2;
stuffp->info.capacity = 1;
stuffp->info.handle = stuffp;
sprintf(stuffp->info.name, "mcdx%d", drive);
disk->major = MAJOR_NR;
disk->first_minor = drive;
strcpy(disk->disk_name, stuffp->info.name);
disk->fops = &mcdx_bdops;
disk->flags = GENHD_FL_CD;
stuffp->disk = disk;
sprintf(msg, " mcdx: Mitsumi CD-ROM installed at 0x%03x, irq %d."
" (Firmware version %c %x)\n",
stuffp->wreg_data, stuffp->irq, version.code, version.ver);
mcdx_stuffp[drive] = stuffp;
xtrace(INIT, "init() mcdx_stuffp[%d] = %p\n", drive, stuffp);
if (register_cdrom(&stuffp->info) != 0) {
printk("Cannot register Mitsumi CD-ROM!\n");
free_irq(stuffp->irq, NULL);
release_region(stuffp->wreg_data, MCDX_IO_SIZE);
kfree(stuffp);
put_disk(disk);
if (unregister_blkdev(MAJOR_NR, "mcdx") != 0)
xwarn("cleanup() unregister_blkdev() failed\n");
blk_cleanup_queue(mcdx_queue);
return 2;
}
disk->private_data = stuffp;
disk->queue = mcdx_queue;
add_disk(disk);
printk(msg);
return 0;
}
static int mcdx_open(struct cdrom_device_info *cdi, int purpose)
{
struct s_drive_stuff *stuffp;
xtrace(OPENCLOSE, "open()\n");
stuffp = cdi->handle;
if (!stuffp->present)
return -ENXIO;
/* Make the modules looking used ... (thanx bjorn).
* But we shouldn't forget to decrement the module counter
* on error return */
/* this is only done to test if the drive talks with us */
if (-1 == mcdx_getstatus(stuffp, 1))
return -EIO;
if (stuffp->xxx) {
xtrace(OPENCLOSE, "open() media changed\n");
stuffp->audiostatus = CDROM_AUDIO_INVALID;
stuffp->readcmd = 0;
xtrace(OPENCLOSE, "open() Request multisession info\n");
if (-1 ==
mcdx_requestmultidiskinfo(stuffp, &stuffp->multi, 6))
xinfo("No multidiskinfo\n");
} else {
/* multisession ? */
if (!stuffp->multi.multi)
stuffp->multi.msf_last.second = 2;
xtrace(OPENCLOSE, "open() MS: %d, last @ %02x:%02x.%02x\n",
stuffp->multi.multi,
stuffp->multi.msf_last.minute,
stuffp->multi.msf_last.second,
stuffp->multi.msf_last.frame);
{;
} /* got multisession information */
/* request the disks table of contents (aka diskinfo) */
if (-1 == mcdx_requesttocdata(stuffp, &stuffp->di, 1)) {
stuffp->lastsector = -1;
} else {
stuffp->lastsector = (CD_FRAMESIZE / 512)
* msf2log(&stuffp->di.msf_leadout) - 1;
xtrace(OPENCLOSE,
"open() start %d (%02x:%02x.%02x) %d\n",
stuffp->di.n_first,
stuffp->di.msf_first.minute,
stuffp->di.msf_first.second,
stuffp->di.msf_first.frame,
msf2log(&stuffp->di.msf_first));
xtrace(OPENCLOSE,
"open() last %d (%02x:%02x.%02x) %d\n",
stuffp->di.n_last,
stuffp->di.msf_leadout.minute,
stuffp->di.msf_leadout.second,
stuffp->di.msf_leadout.frame,
msf2log(&stuffp->di.msf_leadout));
}
if (stuffp->toc) {
xtrace(MALLOC, "open() free old toc @ %p\n",
stuffp->toc);
kfree(stuffp->toc);
stuffp->toc = NULL;
}
xtrace(OPENCLOSE, "open() init irq generation\n");
if (-1 == mcdx_config(stuffp, 1))
return -EIO;
#ifdef FALLBACK
/* Set the read speed */
xwarn("AAA %x AAA\n", stuffp->readcmd);
if (stuffp->readerrs)
stuffp->readcmd = READ1X;
else
stuffp->readcmd =
stuffp->present | SINGLE ? READ1X : READ2X;
xwarn("XXX %x XXX\n", stuffp->readcmd);
#else
stuffp->readcmd =
stuffp->present | SINGLE ? READ1X : READ2X;
#endif
/* try to get the first sector, iff any ... */
if (stuffp->lastsector >= 0) {
char buf[512];
int ans;
int tries;
stuffp->xa = 0;
stuffp->audio = 0;
for (tries = 6; tries; tries--) {
stuffp->introk = 1;
xtrace(OPENCLOSE, "open() try as %s\n",
stuffp->xa ? "XA" : "normal");
/* set data mode */
if (-1 == (ans = mcdx_setdatamode(stuffp,
stuffp->
xa ?
MODE2 :
MODE1,
1))) {
/* return -EIO; */
stuffp->xa = 0;
break;
}
if ((stuffp->audio = e_audio(ans)))
break;
while (0 ==
(ans =
mcdx_transfer(stuffp, buf, 0, 1)));
if (ans == 1)
break;
stuffp->xa = !stuffp->xa;
}
}
/* xa disks will be read in raw mode, others not */
if (-1 == mcdx_setdrivemode(stuffp,
stuffp->xa ? RAW : COOKED,
1))
return -EIO;
if (stuffp->audio) {
xinfo("open() audio disk found\n");
} else if (stuffp->lastsector >= 0) {
xinfo("open() %s%s disk found\n",
stuffp->xa ? "XA / " : "",
stuffp->multi.
multi ? "Multi Session" : "Single Session");
}
}
stuffp->xxx = 0;
stuffp->users++;
return 0;
}
static void do_mcdx_request(request_queue_t * q)
{
struct s_drive_stuff *stuffp;
struct request *req;
again:
req = elv_next_request(q);
if (!req)
return;
stuffp = req->rq_disk->private_data;
if (!stuffp->present) {
xwarn("do_request(): bad device: %s\n",req->rq_disk->disk_name);
xtrace(REQUEST, "end_request(0): bad device\n");
end_request(req, 0);
return;
}
if (stuffp->audio) {
xwarn("do_request() attempt to read from audio cd\n");
xtrace(REQUEST, "end_request(0): read from audio\n");
end_request(req, 0);
return;
}
xtrace(REQUEST, "do_request() (%lu + %lu)\n",
req->sector, req->nr_sectors);
if (req->cmd != READ) {
xwarn("do_request(): non-read command to cd!!\n");
xtrace(REQUEST, "end_request(0): write\n");
end_request(req, 0);
return;
}
else {
stuffp->status = 0;
while (req->nr_sectors) {
int i;
i = mcdx_transfer(stuffp,
req->buffer,
req->sector,
req->nr_sectors);
if (i == -1) {
end_request(req, 0);
goto again;
}
req->sector += i;
req->nr_sectors -= i;
req->buffer += (i * 512);
}
end_request(req, 1);
goto again;
xtrace(REQUEST, "end_request(1)\n");
end_request(req, 1);
}
goto again;
}
int mcdx_readtoc(struct s_drive_stuff *stuffp)
/* Read the toc entries from the CD,
* Return: -1 on failure, else 0 */
{
if (stuffp->toc) {
xtrace(READTOC, "ioctl() toc already read\n");
return 0;
}
xtrace(READTOC, "ioctl() readtoc for %d tracks\n",
stuffp->di.n_last - stuffp->di.n_first + 1);
if (-1 == mcdx_hold(stuffp, 1))
return -1;
xtrace(READTOC, "ioctl() tocmode\n");
if (-1 == mcdx_setdrivemode(stuffp, TOC, 1))
return -EIO;
/* all seems to be ok so far ... malloc */
{
int size;
size =
sizeof(struct s_subqcode) * (stuffp->di.n_last -
stuffp->di.n_first + 2);
xtrace(MALLOC, "ioctl() malloc %d bytes\n", size);
stuffp->toc = kmalloc(size, GFP_KERNEL);
if (!stuffp->toc) {
xwarn("Cannot malloc %d bytes for toc\n", size);
mcdx_setdrivemode(stuffp, DATA, 1);
return -EIO;
}
}
/* now read actually the index */
{
int trk;
int retries;
for (trk = 0;
trk < (stuffp->di.n_last - stuffp->di.n_first + 1);
trk++)
stuffp->toc[trk].index = 0;
for (retries = 300; retries; retries--) { /* why 300? */
struct s_subqcode q;
unsigned int idx;
if (-1 == mcdx_requestsubqcode(stuffp, &q, 1)) {
mcdx_setdrivemode(stuffp, DATA, 1);
return -EIO;
}
idx = bcd2uint(q.index);
if ((idx > 0)
&& (idx <= stuffp->di.n_last)
&& (q.tno == 0)
&& (stuffp->toc[idx - stuffp->di.n_first].
index == 0)) {
stuffp->toc[idx - stuffp->di.n_first] = q;
xtrace(READTOC,
"ioctl() toc idx %d (trk %d)\n",
idx, trk);
trk--;
}
if (trk == 0)
break;
}
memset(&stuffp->
toc[stuffp->di.n_last - stuffp->di.n_first + 1], 0,
sizeof(stuffp->toc[0]));
stuffp->toc[stuffp->di.n_last - stuffp->di.n_first +
1].dt = stuffp->di.msf_leadout;
}
/* unset toc mode */
xtrace(READTOC, "ioctl() undo toc mode\n");
if (-1 == mcdx_setdrivemode(stuffp, DATA, 2))
return -EIO;
#if MCDX_DEBUG && READTOC
{
int trk;
for (trk = 0;
trk < (stuffp->di.n_last - stuffp->di.n_first + 2);
trk++)
xtrace(READTOC, "ioctl() %d readtoc %02x %02x %02x"
" %02x:%02x.%02x %02x:%02x.%02x\n",
trk + stuffp->di.n_first,
stuffp->toc[trk].control,
stuffp->toc[trk].tno,
stuffp->toc[trk].index,
stuffp->toc[trk].tt.minute,
stuffp->toc[trk].tt.second,
stuffp->toc[trk].tt.frame,
stuffp->toc[trk].dt.minute,
stuffp->toc[trk].dt.second,
stuffp->toc[trk].dt.frame);
}
#endif
return 0;
}
static int mcdx_talk(struct s_drive_stuff *stuffp,
const unsigned char *cmd, size_t cmdlen,
void *buffer, size_t size, unsigned int timeout, int tries)
/* Send a command to the drive, wait for the result.
* returns -1 on timeout, drive status otherwise
* If buffer is not zero, the result (length size) is stored there.
* If buffer is zero the size should be the number of bytes to read
* from the drive. These bytes are discarded.
*/
{
int st;
char c;
int discard;
/* Somebody wants the data read? */
if ((discard = (buffer == NULL)))
buffer = &c;
while (stuffp->lock) {
xtrace(SLEEP, "*** talk: lockq\n");
interruptible_sleep_on(&stuffp->lockq);
xtrace(SLEEP, "talk: awoken\n");
}
stuffp->lock = 1;
/* An operation other then reading data destroys the
* data already requested and remembered in stuffp->request, ... */
stuffp->valid = 0;
#if MCDX_DEBUG & TALK
{
unsigned char i;
xtrace(TALK,
"talk() %d / %d tries, res.size %d, command 0x%02x",
tries, timeout, size, (unsigned char) cmd[0]);
for (i = 1; i < cmdlen; i++)
xtrace(TALK, " 0x%02x", cmd[i]);
xtrace(TALK, "\n");
}
#endif
/* give up if all tries are done (bad) or if the status
* st != -1 (good) */
for (st = -1; st == -1 && tries; tries--) {
char *bp = (char *) buffer;
size_t sz = size;
outsb(stuffp->wreg_data, cmd, cmdlen);
xtrace(TALK, "talk() command sent\n");
/* get the status byte */
if (-1 == mcdx_getval(stuffp, timeout, 0, bp)) {
xinfo("talk() %02x timed out (status), %d tr%s left\n",
cmd[0], tries - 1, tries == 2 ? "y" : "ies");
continue;
}
st = *bp;
sz--;
if (!discard)
bp++;
xtrace(TALK, "talk() got status 0x%02x\n", st);
/* command error? */
if (e_cmderr(st)) {
xwarn("command error cmd = %02x %s \n",
cmd[0], cmdlen > 1 ? "..." : "");
st = -1;
continue;
}
/* audio status? */
if (stuffp->audiostatus == CDROM_AUDIO_INVALID)
stuffp->audiostatus =
e_audiobusy(st) ? CDROM_AUDIO_PLAY :
CDROM_AUDIO_NO_STATUS;
else if (stuffp->audiostatus == CDROM_AUDIO_PLAY
&& e_audiobusy(st) == 0)
stuffp->audiostatus = CDROM_AUDIO_COMPLETED;
/* media change? */
if (e_changed(st)) {
xinfo("talk() media changed\n");
stuffp->xxx = stuffp->yyy = 1;
}
/* now actually get the data */
while (sz--) {
if (-1 == mcdx_getval(stuffp, timeout, 0, bp)) {
xinfo("talk() %02x timed out (data), %d tr%s left\n",
cmd[0], tries - 1,
tries == 2 ? "y" : "ies");
st = -1;
break;
}
if (!discard)
bp++;
xtrace(TALK, "talk() got 0x%02x\n", *(bp - 1));
}
}
#if !MCDX_QUIET
if (!tries && st == -1)
xinfo("talk() giving up\n");
#endif
stuffp->lock = 0;
wake_up_interruptible(&stuffp->lockq);
xtrace(TALK, "talk() done with 0x%02x\n", st);
return st;
}
void
_rtld_process_hints(const char *execname, Search_Path **path_p,
Library_Xform **lib_p, const char *fname)
{
int fd;
char *buf, small[128];
const char *b, *ep, *ptr;
struct stat st;
ssize_t sz;
Search_Path **head_p = path_p;
if ((fd = open(fname, O_RDONLY)) == -1) {
/* Don't complain */
return;
}
/* Try to avoid mmap/stat on the file. */
buf = small;
buf[0] = '\0';
sz = read(fd, buf, sizeof(small));
if (sz == -1) {
xwarn("read: %s", fname);
(void)close(fd);
return;
}
if (sz >= sizeof(small)) {
if (fstat(fd, &st) == -1) {
/* Complain */
xwarn("fstat: %s", fname);
(void)close(fd);
return;
}
sz = (ssize_t) st.st_size;
buf = mmap(0, sz, PROT_READ, MAP_SHARED|MAP_FILE, fd, 0);
if (buf == MAP_FAILED) {
xwarn("mmap: %s", fname);
(void)close(fd);
return;
}
}
(void)close(fd);
while ((*path_p) != NULL)
path_p = &(*path_p)->sp_next;
for (b = buf, ep = buf + sz; b < ep; b++) {
(void)getcstr(&b, ep, WS);
if (b == ep)
break;
ptr = getstr(&b, ep, "\n#");
if (*ptr == '/') {
/*
* Since '/' != '\n' and != '#', we know ptr <
* b. And we will stop when b[-1] == '/'.
*/
while (b[-1] == ' ' || b[-1] == '\t')
b--;
path_p = _rtld_append_path(head_p, path_p, execname,
ptr, b);
} else
_rtld_process_mapping(lib_p, ptr, b);
/*
* b points one of ' ', \t, \n, # or equal to ep. So,
* make sure we are at newline or end of string.
*/
(void)getstr(&b, ep, "\n");
}
if (buf != small)
(void)munmap(buf, sz);
}
