int
main (int argc, char **argv)
{
const task_t my_task = mach_task_self();
error_t err;
memory_object_t defpager;
err = get_privileged_ports (&bootstrap_master_host_port,
&bootstrap_master_device_port);
if (err)
error (1, err, "cannot get privileged ports");
defpager = MACH_PORT_NULL;
err = vm_set_default_memory_manager (bootstrap_master_host_port, &defpager);
if (err)
error (1, err, "cannot check current default memory manager");
if (MACH_PORT_VALID (defpager))
error (2, 0, "Another default memory manager is already running");
if (!(argc == 2 && !strcmp (argv[1], "-d")))
{
/* We don't use the `daemon' function because we might exit back to the
parent before the daemon has completed vm_set_default_memory_manager.
Instead, the parent waits for a SIGUSR1 from the child before
exitting, and the child sends that signal after it is set up. */
sigset_t set;
signal (SIGUSR1, nohandler);
sigemptyset (&set);
sigaddset (&set, SIGUSR1);
sigprocmask (SIG_BLOCK, &set, 0);
switch (fork ())
{
case -1:
error (1, errno, "cannot become daemon");
case 0:
setsid ();
chdir ("/");
close (0);
close (1);
close (2);
break;
default:
sigemptyset (&set);
sigsuspend (&set);
_exit (0);
}
}
/* Mark us as important. */
mach_port_t proc = getproc ();
if (proc == MACH_PORT_NULL)
error (3, err, "cannot get a handle to our process");
err = proc_mark_important (proc);
/* This might fail due to permissions or because the old proc server
is still running, ignore any such errors. */
if (err && err != EPERM && err != EMIG_BAD_ID)
error (3, err, "cannot mark us as important");
mach_port_deallocate (mach_task_self (), proc);
printf_init(bootstrap_master_device_port);
/*
* Set up the default pager.
*/
partition_init();
/*
* task_set_exception_port and task_set_bootstrap_port
* both require a send right.
*/
(void) mach_port_insert_right(my_task, default_pager_exception_port,
default_pager_exception_port,
MACH_MSG_TYPE_MAKE_SEND);
/*
* Change our exception port.
*/
if (!debug)
(void) task_set_exception_port(my_task, default_pager_exception_port);
default_pager_initialize (bootstrap_master_host_port);
if (!(argc == 2 && !strcmp (argv[1], "-d")))
kill (getppid (), SIGUSR1);
/*
* Become the default pager
*/
default_pager();
/*NOTREACHED*/
return -1;
}
/* Arrange for hurd_cancel to be called on RPC's thread if OBJECT gets notified
that any of the things in COND have happened to PORT. RPC should be an
rpc on OBJECT. */
error_t
ports_interrupt_rpc_on_notification (void *object,
struct rpc_info *rpc,
mach_port_t port, mach_msg_id_t what)
{
int req_notify;
struct ports_notify *pn;
struct rpc_notify *new_req, *req;
struct port_info *pi = object;
pthread_mutex_lock (&_ports_lock);
if (! MACH_PORT_VALID (port))
/* PORT is already dead or bogus, so interrupt the rpc immediately. */
{
hurd_thread_cancel (rpc->thread);
pthread_mutex_unlock (&_ports_lock);
return 0;
}
new_req = _ports_free_rpc_notifies;
if (new_req)
/* We got a req off the free list. */
_ports_free_rpc_notifies = new_req->next;
else
/* No free notify structs, allocate one; it's expected that 99% of the
time we'll add a new structure, so we malloc while we don't have the
lock, and free it if we're wrong. */
{
pthread_mutex_unlock (&_ports_lock); /* Don't hold the lock during malloc. */
new_req = malloc (sizeof (struct rpc_notify));
if (! new_req)
return ENOMEM;
pthread_mutex_lock (&_ports_lock);
}
/* Find any existing entry for PORT/WHAT. */
for (pn = _ports_notifications; pn; pn = pn->next)
if (pn->port == port && pn->what == what)
break;
if (! pn)
/* A notification on a new port. */
{
pn = _ports_free_ports_notifies;
if (pn)
_ports_free_ports_notifies = pn->next;
else
{
pn = malloc (sizeof (struct ports_notify));
if (! pn)
/* sigh. Free what we've alloced and return. */
{
new_req->next = _ports_free_rpc_notifies;
_ports_free_rpc_notifies = new_req;
pthread_mutex_unlock (&_ports_lock);
return ENOMEM;
}
}
pn->reqs = 0;
pn->port = port;
pn->what = what;
pn->pending = 0;
pthread_mutex_init (&pn->lock, NULL);
pn->next = _ports_notifications;
pn->prevp = &_ports_notifications;
if (_ports_notifications)
_ports_notifications->prevp = &pn->next;
_ports_notifications = pn;
}
for (req = rpc->notifies; req; req = req->next)
if (req->notify == pn)
break;
if (req)
/* REQ is already pending for PORT/WHAT on RPC, so free NEW_REQ. */
{
new_req->next = _ports_free_rpc_notifies;
_ports_free_rpc_notifies = new_req;
}
else
/* Add a new request for PORT/WHAT on RPC. */
{
req = new_req;
req->rpc = rpc;
req->notify = pn;
req->pending = 0;
req->next_req = pn->reqs;
req->prev_req_p = &pn->reqs;
if (pn->reqs)
pn->reqs->prev_req_p = &req->next_req;
pn->reqs = req;
req->next = rpc->notifies;
rpc->notifies = req;
}
/* Make sure that this request results in an interrupt. */
req->pending++;
/* Find out whether we should request a new notification (after we release
_PORTS_LOCK) -- PN may be new, or left over after a previous
notification (in which case our new request is likely to trigger an
immediate notification). */
req_notify = !pn->pending;
if (req_notify)
pthread_mutex_lock (&pn->lock);
pthread_mutex_unlock (&_ports_lock);
if (req_notify)
{
mach_port_t old;
error_t err =
mach_port_request_notification (mach_task_self (), port,
what, 1, pi->port_right,
MACH_MSG_TYPE_MAKE_SEND_ONCE, &old);
if (! err && old != MACH_PORT_NULL)
mach_port_deallocate (mach_task_self (), old);
pn->pending = 1;
pthread_mutex_unlock (&pn->lock);
return err;
}
else
return 0;
}
void
mono_threads_platform_free (MonoThreadInfo *info)
{
mach_port_deallocate (current_task (), info->native_handle);
}
int
ethernet_demuxer (mach_msg_header_t *inp,
mach_msg_header_t *outp)
{
struct net_rcv_msg *msg = (struct net_rcv_msg *) inp;
struct sk_buff *skb;
int datalen;
struct ether_device *edev;
struct device *dev = 0;
mach_port_t local_port;
if (inp->msgh_id != NET_RCV_MSG_ID)
return 0;
if (MACH_MSGH_BITS_LOCAL (inp->msgh_bits) ==
MACH_MSG_TYPE_PROTECTED_PAYLOAD)
{
struct port_info *pi = ports_lookup_payload (NULL,
inp->msgh_protected_payload,
NULL);
if (pi)
{
local_port = pi->port_right;
ports_port_deref (pi);
}
else
local_port = MACH_PORT_NULL;
}
else
local_port = inp->msgh_local_port;
for (edev = ether_dev; edev; edev = edev->next)
if (local_port == edev->readptname)
dev = &edev->dev;
if (! dev)
{
if (inp->msgh_remote_port != MACH_PORT_NULL)
mach_port_deallocate (mach_task_self (), inp->msgh_remote_port);
return 1;
}
datalen = ETH_HLEN
+ msg->packet_type.msgt_number - sizeof (struct packet_header);
pthread_mutex_lock (&net_bh_lock);
skb = alloc_skb (datalen, GFP_ATOMIC);
skb_put (skb, datalen);
skb->dev = dev;
/* Copy the two parts of the frame into the buffer. */
memcpy (skb->data, msg->header, ETH_HLEN);
memcpy (skb->data + ETH_HLEN,
msg->packet + sizeof (struct packet_header),
datalen - ETH_HLEN);
/* Drop it on the queue. */
skb->protocol = eth_type_trans (skb, dev);
netif_rx (skb);
pthread_mutex_unlock (&net_bh_lock);
return 1;
}
/* Implement the diskfs_lookup callback from the diskfs library. See
<hurd/diskfs.h> for the interface specification. */
error_t
diskfs_lookup_hard (struct node *dp, const char *name, enum lookup_type type,
struct node **npp, struct dirstat *ds, struct protid *cred)
{
error_t err;
ino_t inum;
int namelen;
int spec_dotdot;
struct node *np = 0;
int retry_dotdot = 0;
vm_prot_t prot =
(type == LOOKUP) ? VM_PROT_READ : (VM_PROT_READ | VM_PROT_WRITE);
memory_object_t memobj;
vm_address_t buf = 0;
vm_size_t buflen = 0;
int blockaddr;
int idx, lastidx;
int looped;
if ((type == REMOVE) || (type == RENAME))
assert (npp);
if (npp)
*npp = 0;
spec_dotdot = type & SPEC_DOTDOT;
type &= ~SPEC_DOTDOT;
namelen = strlen (name);
if (namelen > FAT_NAME_MAX)
return ENAMETOOLONG;
try_again:
if (ds)
{
ds->type = LOOKUP;
ds->mapbuf = 0;
ds->mapextent = 0;
}
if (buf)
{
munmap ((caddr_t) buf, buflen);
buf = 0;
}
if (ds && (type == CREATE || type == RENAME))
ds->stat = LOOKING;
/* Map in the directory contents. */
memobj = diskfs_get_filemap (dp, prot);
if (memobj == MACH_PORT_NULL)
return errno;
buf = 0;
/* We allow extra space in case we have to do an EXTEND. */
buflen = round_page (dp->dn_stat.st_size + DIRBLKSIZ);
err = vm_map (mach_task_self (),
&buf, buflen, 0, 1, memobj, 0, 0, prot, prot, 0);
mach_port_deallocate (mach_task_self (), memobj);
if (err)
return err;
inum = 0;
diskfs_set_node_atime (dp);
/* Start the lookup at DP->dn->dir_idx. */
idx = dp->dn->dir_idx;
if (idx << LOG2_DIRBLKSIZ > dp->dn_stat.st_size)
idx = 0; /* just in case */
blockaddr = buf + (idx << LOG2_DIRBLKSIZ);
looped = (idx == 0);
lastidx = idx;
if (lastidx == 0)
lastidx = dp->dn_stat.st_size >> LOG2_DIRBLKSIZ;
while (!looped || idx < lastidx)
{
err = dirscanblock (blockaddr, dp, idx, name, namelen, type, ds, &inum);
if (!err)
{
dp->dn->dir_idx = idx;
break;
}
if (err != ENOENT)
{
munmap ((caddr_t) buf, buflen);
return err;
}
blockaddr += DIRBLKSIZ;
idx++;
if (blockaddr - buf >= dp->dn_stat.st_size && !looped)
{
/* We've gotten to the end; start back at the beginning. */
looped = 1;
blockaddr = buf;
idx = 0;
}
}
diskfs_set_node_atime (dp);
if (diskfs_synchronous)
diskfs_node_update (dp, 1);
/* If err is set here, it's ENOENT, and we don't want to
think about that as an error yet. */
err = 0;
if (inum && npp)
{
if (namelen != 2 || name[0] != '.' || name[1] != '.')
{
if (inum == dp->cache_id)
{
np = dp;
diskfs_nref (np);
}
else
{
err = diskfs_cached_lookup_in_dirbuf (inum, &np, buf);
if (err)
goto out;
}
}
/* We are looking up "..". */
/* Check to see if this is the root of the filesystem. */
else if (dp == diskfs_root_node)
{
err = EAGAIN;
goto out;
}
/* We can't just do diskfs_cached_lookup, because we would then
deadlock. So we do this. Ick. */
else if (retry_dotdot)
{
/* Check to see that we got the same answer as last time. */
if (inum != retry_dotdot)
{
/* Drop what we *thought* was .. (but isn't any more) and
try *again*. */
diskfs_nput (np);
pthread_mutex_unlock (&dp->lock);
err = diskfs_cached_lookup_in_dirbuf (inum, &np, buf);
pthread_mutex_lock (&dp->lock);
if (err)
goto out;
retry_dotdot = inum;
goto try_again;
}
/* Otherwise, we got it fine and np is already set properly. */
}
else if (!spec_dotdot)
{
/* Lock them in the proper order, and then
repeat the directory scan to see if this is still
right. */
pthread_mutex_unlock (&dp->lock);
err = diskfs_cached_lookup_in_dirbuf (inum, &np, buf);
pthread_mutex_lock (&dp->lock);
if (err)
goto out;
retry_dotdot = inum;
goto try_again;
}
/* Here below are the spec dotdot cases. */
else if (type == RENAME || type == REMOVE)
np = diskfs_cached_ifind (inum);
else if (type == LOOKUP)
{
diskfs_nput (dp);
err = diskfs_cached_lookup_in_dirbuf (inum, &np, buf);
if (err)
goto out;
}
else
assert (0);
}
if ((type == CREATE || type == RENAME) && !inum && ds && ds->stat == LOOKING)
{
/* We didn't find any room, so mark ds to extend the dir. */
ds->type = CREATE;
ds->stat = EXTEND;
ds->idx = dp->dn_stat.st_size >> LOG2_DIRBLKSIZ;
}
void HPMPrivate::run()
{
mach_port_t masterPort = 0;
IONotificationPortRef notifyPort = 0;
io_iterator_t rawAddedIter = 0;
io_iterator_t rawRemovedIter = 0;
// Create an IOMasterPort for accessing IOKit
kern_return_t kr = IOMasterPort(MACH_PORT_NULL, &masterPort);
if (kr || !masterPort)
{
qWarning() << Q_FUNC_INFO << "Unable to create a master I/O Kit port" << (void*) kr;
return;
}
// Create a new dictionary for matching device classes
CFMutableDictionaryRef matchingDict = IOServiceMatching(kIOUSBDeviceClassName);
if (!matchingDict)
{
qWarning() << Q_FUNC_INFO << "Unable to create a USB matching dictionary";
mach_port_deallocate(mach_task_self(), masterPort);
return;
}
// Take an extra reference because IOServiceAddMatchingNotification consumes one
matchingDict = (CFMutableDictionaryRef) CFRetain(matchingDict);
// Store the thread's run loop context
loop = CFRunLoopGetCurrent();
// New notification port
notifyPort = IONotificationPortCreate(masterPort);
CFRunLoopSourceRef runLoopSource = IONotificationPortGetRunLoopSource(notifyPort);
CFRunLoopAddSource(loop, runLoopSource, kCFRunLoopDefaultMode);
// Listen to device add notifications
kr = IOServiceAddMatchingNotification(notifyPort,
kIOFirstMatchNotification,
matchingDict,
onHPMPrivateRawDeviceAdded,
(void*) this,
&rawAddedIter);
if (kr != kIOReturnSuccess)
qFatal("Unable to add notification for device additions");
// Iterate over set of matching devices to access already-present devices
// and to arm the notification.
onHPMPrivateRawDeviceAdded(this, rawAddedIter);
// Listen to device removal notifications
kr = IOServiceAddMatchingNotification(notifyPort,
kIOTerminatedNotification,
matchingDict,
onHPMPrivateRawDeviceRemoved,
(void*) this,
&rawRemovedIter);
if (kr != kIOReturnSuccess)
qFatal("Unable to add notification for device termination");
// Iterate over set of matching devices to release each one and to
// arm the notification.
onHPMPrivateRawDeviceRemoved(this, rawRemovedIter);
// No longer needed
mach_port_deallocate(mach_task_self(), masterPort);
masterPort = 0;
// Start the run loop inside this thread. The thread "stops" here.
CFRunLoopRun();
// Destroy the notification port when the thread exits
IONotificationPortDestroy(notifyPort);
notifyPort = 0;
}
int
Ndb_GetRUsage(ndb_rusage* dst)
{
int res = -1;
#ifdef _WIN32
FILETIME create_time;
FILETIME exit_time;
FILETIME kernel_time;
FILETIME user_time;
dst->ru_minflt = 0;
dst->ru_majflt = 0;
dst->ru_nvcsw = 0;
dst->ru_nivcsw = 0;
/**
* GetThreadTimes times are updated once per timer interval, so can't
* be used for microsecond measurements, but it is good enough for
* keeping track of CPU usage on a second basis.
*/
bool ret = GetThreadTimes( GetCurrentThread(),
&create_time,
&exit_time,
&kernel_time,
&user_time);
if (ret)
{
/* Successful return */
res = 0;
Uint64 tmp = user_time.dwHighDateTime;
tmp <<= 32;
tmp += user_time.dwLowDateTime;
/**
* Time reported in microseconds, Windows report it in
* 100 ns intervals. So we need to divide by 10 the
* Windows counter.
*/
dst->ru_utime = tmp / 10;
tmp = kernel_time.dwHighDateTime;
tmp <<= 32;
tmp += kernel_time.dwLowDateTime;
dst->ru_stime = tmp / 10;
}
else
{
res = -1;
}
#elif defined(HAVE_MAC_OS_X_THREAD_INFO)
mach_port_t thread_port;
kern_return_t ret_code;
mach_msg_type_number_t basic_info_count;
thread_basic_info_data_t basic_info;
/**
* mach_thread_self allocates memory so it needs to be
* released immediately since we don't want to burden
* the code with keeping track of this value.
*/
thread_port = mach_thread_self();
if (thread_port != MACH_PORT_NULL)
{
ret_code = thread_info(thread_port,
THREAD_BASIC_INFO,
(thread_info_t) &basic_info,
&basic_info_count);
mach_port_deallocate(our_mach_task, thread_port);
if (ret_code == KERN_SUCCESS)
{
dst->ru_minflt = 0;
dst->ru_majflt = 0;
dst->ru_nvcsw = 0;
dst->ru_nivcsw = 0;
Uint64 tmp;
tmp = basic_info.user_time.seconds * 1000000;
tmp += basic_info.user_time.microseconds;
dst->ru_utime = tmp;
tmp = basic_info.system_time.seconds * 1000000;
tmp += basic_info.system_time.microseconds;
dst->ru_stime = tmp;
res = 0;
}
else
{
res = -1;
}
}
else
{
res = -2; /* Report -2 to distinguish error cases for debugging. */
}
#else
#ifdef HAVE_GETRUSAGE
struct rusage tmp;
#ifdef RUSAGE_THREAD
res = getrusage(RUSAGE_THREAD, &tmp);
#elif defined RUSAGE_LWP
res = getrusage(RUSAGE_LWP, &tmp);
#endif
if (res == 0)
{
dst->ru_utime = micros(tmp.ru_utime);
dst->ru_stime = micros(tmp.ru_stime);
dst->ru_minflt = tmp.ru_minflt;
dst->ru_majflt = tmp.ru_majflt;
dst->ru_nvcsw = tmp.ru_nvcsw;
dst->ru_nivcsw = tmp.ru_nivcsw;
}
#endif
#endif
if (res != 0)
{
bzero(dst, sizeof(* dst));
}
return res;
}
/*
* kern_return_t
* bootstrap_subset(mach_port_t bootstrap_port,
* mach_port_t requestor_port,
* mach_port_t *subset_port);
*
* Returns a new port to use as a bootstrap port. This port behaves
* exactly like the previous bootstrap_port, except that ports dynamically
* registered via bootstrap_register() are available only to users of this
* specific subset_port. Lookups on the subset_port will return ports
* registered with this port specifically, and ports registered with
* ancestors of this subset_port. Duplications of services already
* registered with an ancestor port may be registered with the subset port
* are allowed. Services already advertised may then be effectively removed
* by registering MACH_PORT_NULL for the service.
* When it is detected that the requestor_port is destroied the subset
* port and all services advertized by it are destroied as well.
*
* Errors: Returns appropriate kernel errors on rpc failure.
*/
kern_return_t
x_bootstrap_subset(
mach_port_t bootstrap_port,
mach_port_t requestor_port,
mach_port_t *subset_port)
{
kern_return_t result;
bootstrap_info_t *bootstrap;
bootstrap_info_t *subset;
mach_port_t new_bootstrap_port;
mach_port_t previous;
debug("Subset create attempt: bootstrap %x, requestor: %x",
bootstrap_port, requestor_port);
bootstrap = lookup_bootstrap_by_port(bootstrap_port);
if (!bootstrap || !active_bootstrap(bootstrap))
return BOOTSTRAP_NOT_PRIVILEGED;
result = mach_port_allocate(
mach_task_self(),
MACH_PORT_RIGHT_RECEIVE,
&new_bootstrap_port);
if (result != KERN_SUCCESS)
kern_fatal(result, "mach_port_allocate");
result = mach_port_insert_right(
mach_task_self(),
new_bootstrap_port,
new_bootstrap_port,
MACH_MSG_TYPE_MAKE_SEND);
if (result != KERN_SUCCESS)
kern_fatal(result, "failed to insert send right");
result = mach_port_insert_member(
mach_task_self(),
new_bootstrap_port,
bootstrap_port_set);
if (result != KERN_SUCCESS)
kern_fatal(result, "port_set_add");
subset = new_bootstrap(bootstrap, new_bootstrap_port, requestor_port);
result = mach_port_request_notification(
mach_task_self(),
requestor_port,
MACH_NOTIFY_DEAD_NAME,
0,
notify_port,
MACH_MSG_TYPE_MAKE_SEND_ONCE,
&previous);
if (result != KERN_SUCCESS) {
kern_error(result, "mach_port_request_notification");
mach_port_deallocate(mach_task_self(), requestor_port);
subset->requestor_port = MACH_PORT_NULL;
deactivate_bootstrap(subset);
} else if (previous != MACH_PORT_NULL) {
debug("deallocating old notification port (%x) for requestor %x",
previous, requestor_port);
result = mach_port_deallocate(
mach_task_self(),
previous);
if (result != KERN_SUCCESS)
kern_fatal(result, "mach_port_deallocate");
}
info("Created bootstrap subset %x parent %x requestor %x",
new_bootstrap_port, bootstrap_port, requestor_port);
*subset_port = new_bootstrap_port;
return BOOTSTRAP_SUCCESS;
}
// ----------------------------------------------------------------------------
// wxHIDDevice::GetCount [static]
//
// Obtains the number of devices on a system for a given HID Page (nClass)
// and HID Usage (nType).
// ----------------------------------------------------------------------------
size_t wxHIDDevice::GetCount (int nClass, int nType)
{
//Create the mach port
mach_port_t pPort;
if(IOMasterPort(bootstrap_port, &pPort) != kIOReturnSuccess)
{
wxLogSysError(wxT("Could not create mach port"));
return false;
}
//Dictionary that will hold first
//the matching dictionary for determining which kind of devices we want,
//then later some registry properties from an iterator (see below)
CFMutableDictionaryRef pDictionary = IOServiceMatching(kIOHIDDeviceKey);
if(pDictionary == NULL)
{
wxLogSysError( wxT("IOServiceMatching(kIOHIDDeviceKey) failed") );
return false;
}
//Here we'll filter down the services to what we want
if (nType != -1)
{
CFNumberRef pType = CFNumberCreate(kCFAllocatorDefault,
kCFNumberIntType, &nType);
CFDictionarySetValue(pDictionary, CFSTR(kIOHIDPrimaryUsageKey), pType);
CFRelease(pType);
}
if (nClass != -1)
{
CFNumberRef pClass = CFNumberCreate(kCFAllocatorDefault,
kCFNumberIntType, &nClass);
CFDictionarySetValue(pDictionary, CFSTR(kIOHIDPrimaryUsagePageKey), pClass);
CFRelease(pClass);
}
//Now get the maching services
io_iterator_t pIterator;
if( IOServiceGetMatchingServices(pPort,
pDictionary, &pIterator) != kIOReturnSuccess )
{
wxLogSysError(wxT("No Matching HID Services"));
return false;
}
//If the iterator doesn't exist there are no devices :)
if ( !pIterator )
return 0;
//Now we iterate through them
size_t nCount = 0;
io_object_t pObject;
while ( (pObject = IOIteratorNext(pIterator)) != 0)
{
++nCount;
IOObjectRelease(pObject);
}
//cleanup
IOObjectRelease(pIterator);
mach_port_deallocate(mach_task_self(), pPort);
return nCount;
}//end Create()
/*
* kern_return_t
* bootstrap_check_in(mach_port_t bootstrap_port,
* name_t service_name,
* mach_port_t *service_portp)
*
* Returns receive rights to service_port of service named by service_name.
*
* Errors: Returns appropriate kernel errors on rpc failure.
* Returns BOOTSTRAP_UNKNOWN_SERVICE, if service does not exist.
* Returns BOOTSTRAP_SERVICE_NOT_DECLARED, if service not declared
* in /etc/bootstrap.conf.
* Returns BOOTSTRAP_SERVICE_ACTIVE, if service has already been
* registered or checked-in.
*/
kern_return_t
x_bootstrap_check_in(
mach_port_t bootstrap_port,
name_t service_name,
mach_port_t *service_portp)
{
kern_return_t result;
mach_port_t previous;
service_t *servicep;
server_t *serverp;
bootstrap_info_t *bootstrap;
serverp = lookup_server_by_port(bootstrap_port);
bootstrap = lookup_bootstrap_by_port(bootstrap_port);
debug("Service checkin attempt for service %s bootstrap %x",
service_name, bootstrap_port);
servicep = lookup_service_by_name(bootstrap, service_name);
if (servicep == NULL || servicep->port == MACH_PORT_NULL) {
debug("bootstrap_check_in service %s unknown%s", service_name,
forward_ok ? " forwarding" : "");
return forward_ok ?
bootstrap_check_in(
inherited_bootstrap_port,
service_name,
service_portp) :
BOOTSTRAP_UNKNOWN_SERVICE;
}
if (servicep->server != NULL && servicep->server != serverp) {
debug("bootstrap_check_in service %s not privileged",
service_name);
return BOOTSTRAP_NOT_PRIVILEGED;
}
if (!canReceive(servicep->port)) {
ASSERT(servicep->isActive);
debug("bootstrap_check_in service %s already active",
service_name);
return BOOTSTRAP_SERVICE_ACTIVE;
}
debug("Checkin service %s for bootstrap %x", service_name,
bootstrap->bootstrap_port);
ASSERT(servicep->isActive == FALSE);
servicep->isActive = TRUE;
if (servicep->server != NULL_SERVER) {
/* registered server - service needs backup */
serverp->activity++;
serverp->active_services++;
result = mach_port_request_notification(
mach_task_self(),
servicep->port,
MACH_NOTIFY_PORT_DESTROYED,
0,
backup_port,
MACH_MSG_TYPE_MAKE_SEND_ONCE,
&previous);
if (result != KERN_SUCCESS)
kern_fatal(result, "mach_port_request_notification");
} else {
/* one time use/created service */
servicep->servicetype = REGISTERED;
result = mach_port_request_notification(
mach_task_self(),
servicep->port,
MACH_NOTIFY_DEAD_NAME,
0,
notify_port,
MACH_MSG_TYPE_MAKE_SEND_ONCE,
&previous);
if (result != KERN_SUCCESS)
kern_fatal(result, "mach_port_request_notification");
else if (previous != MACH_PORT_NULL) {
debug("deallocating old notification port (%x) for checked in service %x",
previous, servicep->port);
result = mach_port_deallocate(
mach_task_self(),
previous);
if (result != KERN_SUCCESS)
kern_fatal(result, "mach_port_deallocate");
}
}
info("Check-in service %x in bootstrap %x: %s",
servicep->port, servicep->bootstrap->bootstrap_port, servicep->name);
*service_portp = servicep->port;
return BOOTSTRAP_SUCCESS;
}
/*
* kern_return_t
* bootstrap_register(mach_port_t bootstrap_port,
* name_t service_name,
* mach_port_t service_port)
*
* Registers send rights for the port service_port for the service named by
* service_name. Registering a declared service or registering a service for
* which bootstrap has receive rights via a port backup notification is
* allowed.
* The previous service port will be deallocated. Restarting services wishing
* to resume service for previous clients must first attempt to checkin to the
* service.
*
* Errors: Returns appropriate kernel errors on rpc failure.
* Returns BOOTSTRAP_NOT_PRIVILEGED, if request directed to
* unprivileged bootstrap port.
* Returns BOOTSTRAP_SERVICE_ACTIVE, if service has already been
* register or checked-in.
*/
kern_return_t
x_bootstrap_register(
mach_port_t bootstrap_port,
name_t service_name,
mach_port_t service_port)
{
kern_return_t result;
service_t *servicep;
server_t *serverp;
bootstrap_info_t *bootstrap;
mach_port_t old_port;
debug("Register attempt for service %s port %x",
service_name, service_port);
/*
* Validate the bootstrap.
*/
bootstrap = lookup_bootstrap_by_port(bootstrap_port);
if (!bootstrap || !active_bootstrap(bootstrap))
return BOOTSTRAP_NOT_PRIVILEGED;
/*
* If this bootstrap port is for a server, or it's an unprivileged
* bootstrap can't register the port.
*/
serverp = lookup_server_by_port(bootstrap_port);
servicep = lookup_service_by_name(bootstrap, service_name);
if (servicep && servicep->server && servicep->server != serverp)
return BOOTSTRAP_NOT_PRIVILEGED;
if (servicep == NULL || servicep->bootstrap != bootstrap) {
servicep = new_service(bootstrap,
service_name,
service_port,
ACTIVE,
REGISTERED,
NULL_SERVER);
debug("Registered new service %s", service_name);
} else {
if (servicep->isActive) {
debug("Register: service %s already active, port %x",
servicep->name, servicep->port);
ASSERT(!canReceive(servicep->port));
return BOOTSTRAP_SERVICE_ACTIVE;
}
old_port = servicep->port;
if (servicep->servicetype == DECLARED) {
servicep->servicetype = REGISTERED;
if (servicep->server) {
ASSERT(servicep->server == serverp);
ASSERT(active_server(serverp));
servicep->server = NULL_SERVER;
serverp->activity++;
}
result = mach_port_mod_refs(
mach_task_self(),
old_port,
MACH_PORT_RIGHT_RECEIVE,
-1);
if (result != KERN_SUCCESS)
kern_fatal(result, "mach_port_mod_refs");
}
result = mach_port_deallocate(
mach_task_self(),
old_port);
if (result != KERN_SUCCESS)
kern_fatal(result, "mach_port_mod_refs");
servicep->port = service_port;
servicep->isActive = TRUE;
debug("Re-registered inactive service %x bootstrap %x: %s",
servicep->port, servicep->bootstrap->bootstrap_port, service_name);
}
/* detect the new service port going dead */
result = mach_port_request_notification(
mach_task_self(),
service_port,
MACH_NOTIFY_DEAD_NAME,
0,
notify_port,
MACH_MSG_TYPE_MAKE_SEND_ONCE,
&old_port);
if (result != KERN_SUCCESS) {
debug("Can't request notification on service %x bootstrap %x: %s",
service_port, servicep->bootstrap->bootstrap_port, "must be dead");
delete_service(servicep);
return BOOTSTRAP_SUCCESS;
} else if (old_port != MACH_PORT_NULL) {
debug("deallocating old notification port (%x) for service %x",
old_port, service_port);
result = mach_port_deallocate(
mach_task_self(),
old_port);
if (result != KERN_SUCCESS)
kern_fatal(result, "mach_port_deallocate");
}
info("Registered service %x bootstrap %x: %s",
servicep->port, servicep->bootstrap->bootstrap_port, servicep->name);
return BOOTSTRAP_SUCCESS;
}
void shutTimer()
{
mach_port_deallocate(mach_task_self(), __clock_rt);
}
int
main (int argc, char **argv)
{
kern_return_t kr;
mach_port_name_t labelHandle, portName;
char *textlabel, textbuf[512];
int ch, count, dealloc, destroy, getnew, getport;
int gettask, reqlabel, i;
count = 1;
dealloc = destroy = getnew = gettask = getport = reqlabel = 0;
/* XXX - add port lh and request lh */
while ((ch = getopt(argc, argv, "c:dn:prtx")) != -1) {
switch (ch) {
case 'c':
count = atoi(optarg);
break;
case 'd':
dealloc = 1;
break;
case 'n':
getnew = 1;
textlabel = optarg;
break;
case 'p':
getport = 1;
break;
case 'r':
reqlabel = 1;
break;
case 't':
gettask = 1;
break;
case 'x':
destroy = 1;
break;
default:
usage();
}
}
if (getnew + gettask + getport + reqlabel != 1)
usage();
/* Get a new port. */
if (getport || reqlabel) {
kr = mach_port_allocate(mach_task_self(),
MACH_PORT_RIGHT_RECEIVE, &portName);
if (kr != KERN_SUCCESS) {
mach_error("mach_port_allocate():", kr);
exit(1);
}
}
for (i = 0; i < count; i++) {
if (getnew) {
/* Get a new label handle */
kr = mac_label_new(mach_task_self(), &labelHandle,
textlabel);
if (kr != KERN_SUCCESS) {
fprintf(stderr, "mac_label_new(%s)", textlabel);
mach_error(":", kr);
exit(1);
}
printf("new label handle: 0x%x (%s)\n", labelHandle,
textlabel);
}
if (gettask) {
/* Get label handle for our task */
kr = mach_get_task_label(mach_task_self(),
&labelHandle);
if (kr != KERN_SUCCESS) {
mach_error("mach_get_task_label():", kr);
exit(1);
}
kr = mach_get_task_label_text(mach_task_self(),
"sebsd", textbuf);
if (kr != KERN_SUCCESS) {
mach_error("mach_get_task_label_text():", kr);
exit(1);
}
printf("task label handle: 0x%x (%s)\n", labelHandle,
textbuf);
}
if (getport) {
/* Get a label handle for the new port */
kr = mach_get_label(mach_task_self(), portName,
&labelHandle);
if (kr != KERN_SUCCESS) {
mach_error("mach_get_label():", kr);
exit(1);
}
kr = mach_get_label_text(mach_task_self(), labelHandle,
"sebsd", textbuf);
if (kr != KERN_SUCCESS) {
mach_error("mach_get_label_text():", kr);
exit(1);
}
printf("port label handle: 0x%x (%s)\n", labelHandle,
textbuf);
}
if (reqlabel) {
/* Compute label handle based on port and task. */
kr = mac_request_label(mach_task_self(), portName,
mach_task_self(), "mach_task", &labelHandle);
if (kr != KERN_SUCCESS) {
mach_error("mac_request_label():", kr);
exit(1);
}
kr = mach_get_label_text(mach_task_self(), labelHandle,
"sebsd", textbuf);
if (kr != KERN_SUCCESS) {
mach_error("mach_get_label_text():", kr);
exit(1);
}
printf("computed label handle: 0x%x (%s)\n",
labelHandle, textbuf);
}
if (dealloc) {
/* Deallocate the label handle */
kr = mach_port_deallocate(mach_task_self(), labelHandle);
if (kr != KERN_SUCCESS) {
mach_error("mach_port_deallocate:", kr);
exit(1);
}
printf("successfully deallocated the label handle\n");
}
if (destroy) {
/* Destroy the label handle */
kr = mach_port_destroy(mach_task_self(), labelHandle);
if (kr != KERN_SUCCESS) {
mach_error("mach_port_destroy:", kr);
exit(1);
}
printf("successfully destroyed the label handle\n");
}
}
exit(0);
}
int main(int argc, const char *argv[])
{
time_t current_time = time(NULL);
char* c_time_string = ctime(¤t_time);
size_t l = strlen(c_time_string);
if (l > 0)
c_time_string[l-1] = 0;
DEBUG_LOG("%s: VoodooPS2Daemon 1.8.9 starting...\n", c_time_string);
// Note: on Snow Leopard, the system is not ready to enumerate USB devices, so we wait a
// bit before continuing...
usleep(1000000);
// first check for trackpad driver
g_ioservice = IOServiceGetMatchingService(0, IOServiceMatching("ApplePS2SynapticsTouchPad"));
if (!g_ioservice)
{
// otherwise, talk to mouse driver
g_ioservice = IOServiceGetMatchingService(0, IOServiceMatching("ApplePS2Mouse"));
if (!g_ioservice)
{
DEBUG_LOG("No ApplePS2SynapticsTouchPad or ApplePS2Mouse found\n");
return -1;
}
}
// Set up a signal handler so we can clean up when we're interrupted from the command line
// or otherwise asked to terminate.
if (SIG_ERR == signal(SIGINT, SignalHandler1))
DEBUG_LOG("Could not establish new SIGINT handler\n");
if (SIG_ERR == signal(SIGTERM, SignalHandler1))
DEBUG_LOG("Could not establish new SIGTERM handler\n");
// First create a master_port for my task
mach_port_t masterPort;
kern_return_t kr = IOMasterPort(MACH_PORT_NULL, &masterPort);
if (kr || !masterPort)
{
DEBUG_LOG("ERR: Couldn't create a master IOKit Port(%08x)\n", kr);
return -1;
}
// Create dictionary to match all USB devices
CFMutableDictionaryRef matchingDict = IOServiceMatching(kIOUSBDeviceClassName);
if (!matchingDict)
{
DEBUG_LOG("Can't create a USB matching dictionary\n");
mach_port_deallocate(mach_task_self(), masterPort);
return -1;
}
// Create a notification port and add its run loop event source to our run loop
// This is how async notifications get set up.
g_NotifyPort = IONotificationPortCreate(masterPort);
CFRunLoopSourceRef runLoopSource = IONotificationPortGetRunLoopSource(g_NotifyPort);
CFRunLoopRef runLoop = CFRunLoopGetCurrent();
CFRunLoopAddSource(runLoop, runLoopSource, kCFRunLoopDefaultMode);
// Now set up a notification to be called when a device is first matched by I/O Kit.
// Note that this will not catch any devices that were already plugged in so we take
// care of those later.
kr = IOServiceAddMatchingNotification(g_NotifyPort, kIOFirstMatchNotification, matchingDict, DeviceAdded, NULL, &g_AddedIter);
if (KERN_SUCCESS != kr)
{
DEBUG_LOG("IOServiceAddMatchingNotification failed(%08x)\n", kr);
return -1;
}
// Iterate once to get already-present devices and arm the notification
DeviceAdded(NULL, g_AddedIter);
// Now done with the master_port
mach_port_deallocate(mach_task_self(), masterPort);
masterPort = 0;
// Start the run loop. Now we'll receive notifications.
CFRunLoopRun();
// We should never get here
DEBUG_LOG("Unexpectedly back from CFRunLoopRun()!\n");
return 0;
}
static gint64
get_process_stat_item (int pid, int pos, int sum, MonoProcessError *error)
{
#if defined(__APPLE__)
double process_user_time = 0, process_system_time = 0;//, process_percent = 0;
task_t task;
struct task_basic_info t_info;
mach_msg_type_number_t t_info_count = TASK_BASIC_INFO_COUNT, th_count;
thread_array_t th_array;
size_t i;
if (pid == getpid ()) {
/* task_for_pid () doesn't work on ios, even for the current process */
task = mach_task_self ();
} else {
if (task_for_pid (mach_task_self (), pid, &task) != KERN_SUCCESS)
RET_ERROR (MONO_PROCESS_ERROR_NOT_FOUND);
}
if (task_info (task, TASK_BASIC_INFO, (task_info_t)&t_info, &t_info_count) != KERN_SUCCESS) {
if (pid != getpid ())
mach_port_deallocate (mach_task_self (), task);
RET_ERROR (MONO_PROCESS_ERROR_OTHER);
}
if (task_threads(task, &th_array, &th_count) != KERN_SUCCESS) {
if (pid != getpid ())
mach_port_deallocate (mach_task_self (), task);
RET_ERROR (MONO_PROCESS_ERROR_OTHER);
}
for (i = 0; i < th_count; i++) {
double thread_user_time, thread_system_time;//, thread_percent;
struct thread_basic_info th_info;
mach_msg_type_number_t th_info_count = THREAD_BASIC_INFO_COUNT;
if (thread_info(th_array[i], THREAD_BASIC_INFO, (thread_info_t)&th_info, &th_info_count) == KERN_SUCCESS) {
thread_user_time = th_info.user_time.seconds + th_info.user_time.microseconds / 1e6;
thread_system_time = th_info.system_time.seconds + th_info.system_time.microseconds / 1e6;
//thread_percent = (double)th_info.cpu_usage / TH_USAGE_SCALE;
process_user_time += thread_user_time;
process_system_time += thread_system_time;
//process_percent += th_percent;
}
}
for (i = 0; i < th_count; i++)
mach_port_deallocate(task, th_array[i]);
if (pid != getpid ())
mach_port_deallocate (mach_task_self (), task);
process_user_time += t_info.user_time.seconds + t_info.user_time.microseconds / 1e6;
process_system_time += t_info.system_time.seconds + t_info.system_time.microseconds / 1e6;
if (pos == 10 && sum == TRUE)
return (gint64)((process_user_time + process_system_time) * 10000000);
else if (pos == 10)
return (gint64)(process_user_time * 10000000);
else if (pos == 11)
return (gint64)(process_system_time * 10000000);
return 0;
#else
char buf [512];
char *s, *end;
FILE *f;
int len, i;
gint64 value;
g_snprintf (buf, sizeof (buf), "/proc/%d/stat", pid);
f = fopen (buf, "r");
if (!f)
RET_ERROR (MONO_PROCESS_ERROR_NOT_FOUND);
len = fread (buf, 1, sizeof (buf), f);
fclose (f);
if (len <= 0)
RET_ERROR (MONO_PROCESS_ERROR_OTHER);
s = strchr (buf, ')');
if (!s)
RET_ERROR (MONO_PROCESS_ERROR_OTHER);
s++;
while (g_ascii_isspace (*s)) s++;
if (!*s)
RET_ERROR (MONO_PROCESS_ERROR_OTHER);
/* skip the status char */
while (*s && !g_ascii_isspace (*s)) s++;
if (!*s)
RET_ERROR (MONO_PROCESS_ERROR_OTHER);
for (i = 0; i < pos; ++i) {
while (g_ascii_isspace (*s)) s++;
if (!*s)
RET_ERROR (MONO_PROCESS_ERROR_OTHER);
while (*s && !g_ascii_isspace (*s)) s++;
if (!*s)
RET_ERROR (MONO_PROCESS_ERROR_OTHER);
}
/* we are finally at the needed item */
value = strtoul (s, &end, 0);
/* add also the following value */
if (sum) {
while (g_ascii_isspace (*s)) s++;
if (!*s)
RET_ERROR (MONO_PROCESS_ERROR_OTHER);
value += strtoul (s, &end, 0);
}
if (error)
*error = MONO_PROCESS_ERROR_NONE;
return value;
#endif
}
kern_return_t
S_exec_init (struct trivfs_protid *protid,
auth_t auth, process_t proc)
{
mach_port_t host_priv, device_master, startup;
error_t err;
if (! protid || ! protid->isroot)
return EPERM;
_hurd_port_set (&_hurd_ports[INIT_PORT_PROC], proc); /* Consume. */
_hurd_port_set (&_hurd_ports[INIT_PORT_AUTH], auth); /* Consume. */
/* Do initial setup with the proc server. */
_hurd_proc_init (save_argv, NULL, 0);
procserver = getproc ();
/* Have the proc server notify us when the canonical ints and ports
change. This will generate an immediate callback giving us the
initial boot-time canonical sets. */
{
struct iouser *user;
struct trivfs_protid *cred;
mach_port_t right;
err = iohelp_create_empty_iouser (&user);
assert_perror (err);
err = trivfs_open (fsys, user, 0, MACH_PORT_NULL, &cred);
assert_perror (err);
right = ports_get_send_right (cred);
proc_execdata_notify (procserver, right, MACH_MSG_TYPE_COPY_SEND);
mach_port_deallocate (mach_task_self (), right);
}
err = get_privileged_ports (&host_priv, &device_master);
assert_perror (err);
err = open_console (device_master);
assert_perror (err);
mach_port_deallocate (mach_task_self (), device_master);
proc_register_version (procserver, host_priv, "exec", "", HURD_VERSION);
startup = file_name_lookup (_SERVERS_STARTUP, 0, 0);
if (startup == MACH_PORT_NULL)
{
error (0, errno, "%s", _SERVERS_STARTUP);
/* Fall back to abusing the message port lookup. */
err = proc_getmsgport (procserver, HURD_PID_STARTUP, &startup);
assert_perror (err);
}
mach_port_deallocate (mach_task_self (), procserver);
/* Call startup_essential task last; init assumes we are ready to
run once we call it. */
err = startup_essential_task (startup, mach_task_self (), MACH_PORT_NULL,
"exec", host_priv);
assert_perror (err);
mach_port_deallocate (mach_task_self (), startup);
mach_port_deallocate (mach_task_self (), host_priv);
return 0;
}
void
vma_iterate (vma_iterate_callback_fn callback, void *data)
{
#if defined __linux__ /* || defined __CYGWIN__ */
struct rofile rof;
int c;
/* Open the current process' maps file. It describes one VMA per line. */
if (rof_open (&rof, "/proc/self/maps") < 0)
return;
for (;;)
{
unsigned long start, end;
unsigned int flags;
/* Parse one line. First start and end. */
if (!(rof_scanf_lx (&rof, &start) >= 0
&& rof_getchar (&rof) == '-'
&& rof_scanf_lx (&rof, &end) >= 0))
break;
/* Then the flags. */
do
c = rof_getchar (&rof);
while (c == ' ');
flags = 0;
if (c == 'r')
flags |= VMA_PROT_READ;
c = rof_getchar (&rof);
if (c == 'w')
flags |= VMA_PROT_WRITE;
c = rof_getchar (&rof);
if (c == 'x')
flags |= VMA_PROT_EXECUTE;
while (c = rof_getchar (&rof), c != -1 && c != '\n')
;
if (callback (data, start, end, flags))
break;
}
rof_close (&rof);
#elif defined __FreeBSD__ || defined __NetBSD__
struct rofile rof;
int c;
/* Open the current process' maps file. It describes one VMA per line. */
if (rof_open (&rof, "/proc/curproc/map") < 0)
return;
for (;;)
{
unsigned long start, end;
unsigned int flags;
/* Parse one line. First start. */
if (!(rof_getchar (&rof) == '0'
&& rof_getchar (&rof) == 'x'
&& rof_scanf_lx (&rof, &start) >= 0))
break;
while (c = rof_peekchar (&rof), c == ' ' || c == '\t')
rof_getchar (&rof);
/* Then end. */
if (!(rof_getchar (&rof) == '0'
&& rof_getchar (&rof) == 'x'
&& rof_scanf_lx (&rof, &end) >= 0))
break;
/* Then the flags. */
do
c = rof_getchar (&rof);
while (c == ' ');
flags = 0;
if (c == 'r')
flags |= VMA_PROT_READ;
c = rof_getchar (&rof);
if (c == 'w')
flags |= VMA_PROT_WRITE;
c = rof_getchar (&rof);
if (c == 'x')
flags |= VMA_PROT_EXECUTE;
while (c = rof_getchar (&rof), c != -1 && c != '\n')
;
if (callback (data, start, end, flags))
break;
}
rof_close (&rof);
#elif defined __sgi || defined __osf__ /* IRIX, OSF/1 */
size_t pagesize;
char fnamebuf[6+10+1];
char *fname;
int fd;
int nmaps;
size_t memneed;
# if HAVE_MAP_ANONYMOUS
# define zero_fd -1
# define map_flags MAP_ANONYMOUS
# else
int zero_fd;
# define map_flags 0
# endif
void *auxmap;
unsigned long auxmap_start;
unsigned long auxmap_end;
prmap_t* maps;
prmap_t* mp;
pagesize = getpagesize ();
/* Construct fname = sprintf (fnamebuf+i, "/proc/%u", getpid ()). */
fname = fnamebuf + sizeof (fnamebuf) - 1;
*fname = '\0';
{
unsigned int value = getpid ();
do
*--fname = (value % 10) + '0';
while ((value = value / 10) > 0);
}
fname -= 6;
memcpy (fname, "/proc/", 6);
fd = open (fname, O_RDONLY);
if (fd < 0)
return;
if (ioctl (fd, PIOCNMAP, &nmaps) < 0)
goto fail2;
memneed = (nmaps + 10) * sizeof (prmap_t);
/* Allocate memneed bytes of memory.
We cannot use alloca here, because not much stack space is guaranteed.
We also cannot use malloc here, because a malloc() call may call mmap()
and thus pre-allocate available memory.
So use mmap(), and ignore the resulting VMA. */
memneed = ((memneed - 1) / pagesize + 1) * pagesize;
# if !HAVE_MAP_ANONYMOUS
zero_fd = open ("/dev/zero", O_RDONLY, 0644);
if (zero_fd < 0)
goto fail2;
# endif
auxmap = (void *) mmap ((void *) 0, memneed, PROT_READ | PROT_WRITE,
map_flags | MAP_PRIVATE, zero_fd, 0);
# if !HAVE_MAP_ANONYMOUS
close (zero_fd);
# endif
if (auxmap == (void *) -1)
goto fail2;
auxmap_start = (unsigned long) auxmap;
auxmap_end = auxmap_start + memneed;
maps = (prmap_t *) auxmap;
if (ioctl (fd, PIOCMAP, maps) < 0)
goto fail1;
for (mp = maps;;)
{
unsigned long start, end;
unsigned int flags;
start = (unsigned long) mp->pr_vaddr;
end = start + mp->pr_size;
if (start == 0 && end == 0)
break;
flags = 0;
if (mp->pr_mflags & MA_READ)
flags |= VMA_PROT_READ;
if (mp->pr_mflags & MA_WRITE)
flags |= VMA_PROT_WRITE;
if (mp->pr_mflags & MA_EXEC)
flags |= VMA_PROT_EXECUTE;
mp++;
if (start <= auxmap_start && auxmap_end - 1 <= end - 1)
{
/* Consider [start,end-1] \ [auxmap_start,auxmap_end-1]
= [start,auxmap_start-1] u [auxmap_end,end-1]. */
if (start < auxmap_start)
if (callback (data, start, auxmap_start, flags))
break;
if (auxmap_end - 1 < end - 1)
if (callback (data, auxmap_end, end, flags))
break;
}
else
{
if (callback (data, start, end, flags))
break;
}
}
munmap (auxmap, memneed);
close (fd);
return;
fail1:
munmap (auxmap, memneed);
fail2:
close (fd);
return;
#elif defined __APPLE__ && defined __MACH__ /* Mac OS X */
task_t task = mach_task_self ();
vm_address_t address;
vm_size_t size;
for (address = VM_MIN_ADDRESS;; address += size)
{
int more;
mach_port_t object_name;
unsigned int flags;
/* In Mac OS X 10.5, the types vm_address_t, vm_offset_t, vm_size_t have
32 bits in 32-bit processes and 64 bits in 64-bit processes. Whereas
mach_vm_address_t and mach_vm_size_t are always 64 bits large.
Mac OS X 10.5 has three vm_region like methods:
- vm_region. It has arguments that depend on whether the current
process is 32-bit or 64-bit. When linking dynamically, this
function exists only in 32-bit processes. Therefore we use it only
in 32-bit processes.
- vm_region_64. It has arguments that depend on whether the current
process is 32-bit or 64-bit. It interprets a flavor
VM_REGION_BASIC_INFO as VM_REGION_BASIC_INFO_64, which is
dangerous since 'struct vm_region_basic_info_64' is larger than
'struct vm_region_basic_info'; therefore let's write
VM_REGION_BASIC_INFO_64 explicitly.
- mach_vm_region. It has arguments that are 64-bit always. This
function is useful when you want to access the VM of a process
other than the current process.
In 64-bit processes, we could use vm_region_64 or mach_vm_region.
I choose vm_region_64 because it uses the same types as vm_region,
resulting in less conditional code. */
# if defined __ppc64__ || defined __x86_64__
struct vm_region_basic_info_64 info;
mach_msg_type_number_t info_count = VM_REGION_BASIC_INFO_COUNT_64;
more = (vm_region_64 (task, &address, &size, VM_REGION_BASIC_INFO_64,
(vm_region_info_t)&info, &info_count, &object_name)
== KERN_SUCCESS);
# else
struct vm_region_basic_info info;
mach_msg_type_number_t info_count = VM_REGION_BASIC_INFO_COUNT;
more = (vm_region (task, &address, &size, VM_REGION_BASIC_INFO,
(vm_region_info_t)&info, &info_count, &object_name)
== KERN_SUCCESS);
# endif
if (object_name != MACH_PORT_NULL)
mach_port_deallocate (mach_task_self (), object_name);
if (!more)
break;
flags = 0;
if (info.protection & VM_PROT_READ)
flags |= VMA_PROT_READ;
if (info.protection & VM_PROT_WRITE)
flags |= VMA_PROT_WRITE;
if (info.protection & VM_PROT_EXECUTE)
flags |= VMA_PROT_EXECUTE;
if (callback (data, address, address + size, flags))
break;
}
#elif (defined _WIN32 || defined __WIN32__) || defined __CYGWIN__
/* Windows platform. Use the native Windows API. */
MEMORY_BASIC_INFORMATION info;
unsigned long address = 0;
while (VirtualQuery ((void*)address, &info, sizeof(info)) == sizeof(info))
{
if (info.State != MEM_FREE)
/* Ignore areas where info.State has the value MEM_RESERVE or,
equivalently, info.Protect has the undocumented value 0.
This is needed, so that on Cygwin, areas used by malloc() are
distinguished from areas reserved for future malloc(). */
if (info.State != MEM_RESERVE)
{
unsigned long start, end;
unsigned int flags;
start = (unsigned long)info.BaseAddress;
end = start + info.RegionSize;
switch (info.Protect & ~(PAGE_GUARD|PAGE_NOCACHE))
{
case PAGE_READONLY:
flags = VMA_PROT_READ;
break;
case PAGE_READWRITE:
case PAGE_WRITECOPY:
flags = VMA_PROT_READ | VMA_PROT_WRITE;
break;
case PAGE_EXECUTE:
flags = VMA_PROT_EXECUTE;
break;
case PAGE_EXECUTE_READ:
flags = VMA_PROT_READ | VMA_PROT_EXECUTE;
break;
case PAGE_EXECUTE_READWRITE:
case PAGE_EXECUTE_WRITECOPY:
flags = VMA_PROT_READ | VMA_PROT_WRITE | VMA_PROT_EXECUTE;
break;
case PAGE_NOACCESS:
default:
flags = 0;
break;
}
if (callback (data, start, end, flags))
break;
}
address = (unsigned long)info.BaseAddress + info.RegionSize;
}
#elif defined __BEOS__ || defined __HAIKU__
/* Use the BeOS specific API. */
area_info info;
int32 cookie;
cookie = 0;
while (get_next_area_info (0, &cookie, &info) == B_OK)
{
unsigned long start, end;
unsigned int flags;
start = (unsigned long) info.address;
end = start + info.size;
flags = 0;
if (info.protection & B_READ_AREA)
flags |= VMA_PROT_READ | VMA_PROT_EXECUTE;
if (info.protection & B_WRITE_AREA)
flags |= VMA_PROT_WRITE;
if (callback (data, start, end, flags))
break;
}
#elif HAVE_MQUERY /* OpenBSD */
uintptr_t pagesize;
uintptr_t address;
int /*bool*/ address_known_mapped;
pagesize = getpagesize ();
/* Avoid calling mquery with a NULL first argument, because this argument
value has a specific meaning. We know the NULL page is unmapped. */
address = pagesize;
address_known_mapped = 0;
for (;;)
{
/* Test whether the page at address is mapped. */
if (address_known_mapped
|| mquery ((void *) address, pagesize, 0, MAP_FIXED, -1, 0)
== (void *) -1)
{
/* The page at address is mapped.
This is the start of an interval. */
uintptr_t start = address;
uintptr_t end;
/* Find the end of the interval. */
end = (uintptr_t) mquery ((void *) address, pagesize, 0, 0, -1, 0);
if (end == (uintptr_t) (void *) -1)
end = 0; /* wrap around */
address = end;
/* It's too complicated to find out about the flags. Just pass 0. */
if (callback (data, start, end, 0))
break;
if (address < pagesize) /* wrap around? */
break;
}
/* Here we know that the page at address is unmapped. */
{
uintptr_t query_size = pagesize;
address += pagesize;
/* Query larger and larger blocks, to get through the unmapped address
range with few mquery() calls. */
for (;;)
{
if (2 * query_size > query_size)
query_size = 2 * query_size;
if (address + query_size - 1 < query_size) /* wrap around? */
{
address_known_mapped = 0;
break;
}
if (mquery ((void *) address, query_size, 0, MAP_FIXED, -1, 0)
== (void *) -1)
{
/* Not all the interval [address .. address + query_size - 1]
is unmapped. */
address_known_mapped = (query_size == pagesize);
break;
}
/* The interval [address .. address + query_size - 1] is
unmapped. */
address += query_size;
}
/* Reduce the query size again, to determine the precise size of the
unmapped interval that starts at address. */
while (query_size > pagesize)
{
query_size = query_size / 2;
if (address + query_size - 1 >= query_size)
{
if (mquery ((void *) address, query_size, 0, MAP_FIXED, -1, 0)
!= (void *) -1)
{
/* The interval [address .. address + query_size - 1] is
unmapped. */
address += query_size;
address_known_mapped = 0;
}
else
address_known_mapped = (query_size == pagesize);
}
}
/* Here again query_size = pagesize, and
either address + pagesize - 1 < pagesize, or
mquery ((void *) address, pagesize, 0, MAP_FIXED, -1, 0) fails.
So, the unmapped area ends at address. */
}
if (address + pagesize - 1 < pagesize) /* wrap around? */
break;
}
#endif
}
int
grub_util_hurd_get_disk_info (const char *dev, grub_uint32_t *secsize, grub_disk_addr_t *offset,
grub_disk_addr_t *size, char **parent)
{
file_t file;
mach_port_t *ports;
int *ints;
loff_t *offsets;
char *data;
error_t err;
mach_msg_type_number_t num_ports = 0, num_ints = 0, num_offsets = 0, data_len = 0;
file = file_name_lookup (dev, 0, 0);
if (file == MACH_PORT_NULL)
return 0;
err = file_get_storage_info (file,
&ports, &num_ports,
&ints, &num_ints,
&offsets, &num_offsets,
&data, &data_len);
if (num_ints < 1)
grub_util_error (_("Storage info for `%s' does not include type"), dev);
if (ints[0] != STORAGE_DEVICE)
grub_util_error (_("`%s' is not a local disk"), dev);
if (num_offsets != 2)
grub_util_error (_("Storage info for `%s' does indicate neither plain partition nor plain disk"), dev);
if (parent)
{
*parent = NULL;
if (num_ints >= 5)
{
size_t len = ints[4];
if (len > data_len)
len = data_len;
*parent = xmalloc (len+1);
memcpy (*parent, data, len);
(*parent)[len] = '\0';
}
}
if (offset)
*offset = offsets[0];
if (size)
*size = offsets[1];
if (secsize)
*secsize = ints[2];
if (ports && num_ports > 0)
{
mach_msg_type_number_t i;
for (i = 0; i < num_ports; i++)
{
mach_port_t port = ports[i];
if (port != MACH_PORT_NULL)
mach_port_deallocate (mach_task_self(), port);
}
munmap ((caddr_t) ports, num_ports * sizeof (*ports));
}
if (ints && num_ints > 0)
munmap ((caddr_t) ints, num_ints * sizeof (*ints));
if (offsets && num_offsets > 0)
munmap ((caddr_t) offsets, num_offsets * sizeof (*offsets));
if (data && data_len > 0)
munmap (data, data_len);
mach_port_deallocate (mach_task_self (), file);
return 1;
}
int
mono_sgen_thread_handshake (int signum)
{
task_t task = current_task ();
thread_port_t cur_thread = mach_thread_self ();
thread_act_array_t thread_list;
mach_msg_type_number_t num_threads;
mach_msg_type_number_t num_state;
thread_state_t state;
kern_return_t ret;
ucontext_t ctx;
mcontext_t mctx;
pthread_t exception_thread = mono_gc_get_mach_exception_thread ();
SgenThreadInfo *info;
gpointer regs [ARCH_NUM_REGS];
gpointer stack_start;
int count, i;
mono_mach_get_threads (&thread_list, &num_threads);
for (i = 0, count = 0; i < num_threads; i++) {
thread_port_t t = thread_list [i];
pthread_t pt = pthread_from_mach_thread_np (t);
if (t != cur_thread && pt != exception_thread && !mono_sgen_is_worker_thread (pt)) {
if (signum == suspend_signal_num) {
ret = thread_suspend (t);
if (ret != KERN_SUCCESS) {
mach_port_deallocate (task, t);
continue;
}
state = (thread_state_t) alloca (mono_mach_arch_get_thread_state_size ());
ret = mono_mach_arch_get_thread_state (t, state, &num_state);
if (ret != KERN_SUCCESS) {
mach_port_deallocate (task, t);
continue;
}
info = mono_sgen_thread_info_lookup (pt);
/* Ensure that the runtime is aware of this thread */
if (info != NULL) {
mctx = (mcontext_t) alloca (mono_mach_arch_get_mcontext_size ());
mono_mach_arch_thread_state_to_mcontext (state, mctx);
ctx.uc_mcontext = mctx;
info->stopped_domain = mono_mach_arch_get_tls_value_from_thread (t, mono_pthread_key_for_tls (mono_domain_get_tls_key ()));
info->stopped_ip = (gpointer) mono_mach_arch_get_ip (state);
stack_start = (char*) mono_mach_arch_get_sp (state) - REDZONE_SIZE;
/* If stack_start is not within the limits, then don't set it in info and we will be restarted. */
if (stack_start >= info->stack_start_limit && info->stack_start <= info->stack_end) {
info->stack_start = stack_start;
ARCH_COPY_SIGCTX_REGS (regs, &ctx);
info->stopped_regs = regs;
} else {
g_assert (!info->stack_start);
}
/* Notify the JIT */
if (mono_gc_get_gc_callbacks ()->thread_suspend_func)
mono_gc_get_gc_callbacks ()->thread_suspend_func (info->runtime_data, &ctx);
}
} else {
ret = thread_resume (t);
if (ret != KERN_SUCCESS) {
mach_port_deallocate (task, t);
continue;
}
}
count ++;
mach_port_deallocate (task, t);
}
}
mach_port_deallocate (task, cur_thread);
return count;
}
/* Send data over a socket, possibly including Mach ports. */
error_t
S_socket_send (struct sock_user *user, struct addr *dest_addr, int flags,
char *data, size_t data_len,
mach_port_t *ports, size_t num_ports,
char *control, size_t control_len,
size_t *amount)
{
error_t err = 0;
struct pipe *pipe;
struct sock *sock, *dest_sock;
struct addr *source_addr;
if (!user)
return EOPNOTSUPP;
sock = user->sock;
if (flags & MSG_OOB)
/* BSD local sockets don't support OOB data. */
return EOPNOTSUPP;
if (dest_addr)
{
err = addr_get_sock (dest_addr, &dest_sock);
if (err == EADDRNOTAVAIL)
/* The server went away. */
err = ECONNREFUSED;
if (err)
return err;
if (sock->pipe_class != dest_sock->pipe_class)
/* Sending to a different type of socket! */
err = EINVAL; /* ? XXX */
}
else
dest_sock = 0;
/* We could provide a source address for all writes, but we
only do so for connectionless sockets because that's the
only place it's required, and it's more efficient not to. */
if (!err && sock->pipe_class->flags & PIPE_CLASS_CONNECTIONLESS)
err = sock_get_addr (sock, &source_addr);
else
source_addr = NULL;
if (!err)
{
if (dest_sock)
/* Grab the destination socket's read pipe directly, and stuff data
into it. This is not quite the usage sock_acquire_read_pipe was
intended for, but it will work, as the only inappropriate errors
occur on a broken pipe, which shouldn't be possible with the sort of
sockets with which we can use socket_send... XXXX */
err = sock_acquire_read_pipe (dest_sock, &pipe);
else
/* No address, must be a connected socket... */
err = sock_acquire_write_pipe (sock, &pipe);
if (!err)
{
err = pipe_send (pipe, sock->flags & PFLOCAL_SOCK_NONBLOCK,
source_addr, data, data_len,
control, control_len, ports, num_ports,
amount);
if (dest_sock)
pipe_release_reader (pipe);
else
pipe_release_writer (pipe);
}
if (err)
/* The send failed, so free any resources it would have consumed
(mig gets rid of memory, but we have to do everything else). */
{
if (source_addr)
ports_port_deref (source_addr);
while (num_ports-- > 0)
mach_port_deallocate (mach_task_self (), *ports++);
}
}
if (dest_sock)
sock_deref (dest_sock);
return err;
}
int
main (int argc, char **argv, char **envp)
{
mach_port_t boot;
error_t err;
mach_port_t pset, psetcntl;
void *genport;
process_t startup_port;
struct argp argp = { 0, 0, 0, "Hurd process server" };
argp_parse (&argp, argc, argv, 0, 0, 0);
initialize_version_info ();
err = task_get_bootstrap_port (mach_task_self (), &boot);
assert_perror (err);
if (boot == MACH_PORT_NULL)
error (2, 0, "proc server can only be run by init during boot");
proc_bucket = ports_create_bucket ();
proc_class = ports_create_class (0, 0);
generic_port_class = ports_create_class (0, 0);
exc_class = ports_create_class (exc_clean, 0);
ports_create_port (generic_port_class, proc_bucket,
sizeof (struct port_info), &genport);
generic_port = ports_get_right (genport);
/* Create the initial proc object for init (PID 1). */
startup_proc = create_startup_proc ();
/* Create our own proc object (we are PID 0). */
self_proc = allocate_proc (mach_task_self ());
assert (self_proc);
complete_proc (self_proc, 0);
startup_port = ports_get_send_right (startup_proc);
err = startup_procinit (boot, startup_port, &startup_proc->p_task,
&authserver, &master_host_port, &master_device_port);
assert_perror (err);
mach_port_deallocate (mach_task_self (), startup_port);
mach_port_mod_refs (mach_task_self (), authserver, MACH_PORT_RIGHT_SEND, 1);
_hurd_port_set (&_hurd_ports[INIT_PORT_AUTH], authserver);
mach_port_deallocate (mach_task_self (), boot);
proc_death_notify (startup_proc);
add_proc_to_hash (startup_proc); /* Now that we have the task port. */
/* Set our own argv and envp locations. */
self_proc->p_argv = (vm_address_t) argv;
self_proc->p_envp = (vm_address_t) envp;
/* Give ourselves good scheduling performance, because we are so
important. */
err = thread_get_assignment (mach_thread_self (), &pset);
assert_perror (err);
err = host_processor_set_priv (master_host_port, pset, &psetcntl);
assert_perror (err);
thread_max_priority (mach_thread_self (), psetcntl, 0);
assert_perror (err);
err = task_priority (mach_task_self (), 2, 1);
assert_perror (err);
mach_port_deallocate (mach_task_self (), pset);
mach_port_deallocate (mach_task_self (), psetcntl);
{
/* Get our stderr set up to print on the console, in case we have
to panic or something. */
mach_port_t cons;
error_t err;
err = device_open (master_device_port, D_READ|D_WRITE, "console", &cons);
assert_perror (err);
stdin = mach_open_devstream (cons, "r");
stdout = stderr = mach_open_devstream (cons, "w");
mach_port_deallocate (mach_task_self (), cons);
}
while (1)
ports_manage_port_operations_multithread (proc_bucket,
message_demuxer,
0, 0, 0);
}
error_t
S_socket_connect (struct sock_user *user, struct addr *addr)
{
error_t err;
struct sock *peer;
if (! addr)
return ECONNREFUSED;
/* Deallocate ADDR's send right, which we get as a side effect of the rpc. */
mach_port_deallocate (mach_task_self (),
((struct port_info *)addr)->port_right);
if (! user)
return EOPNOTSUPP;
err = addr_get_sock (addr, &peer);
if (err == EADDRNOTAVAIL)
/* The server went away. */
err = ECONNREFUSED;
else if (!err)
{
struct sock *sock = user->sock;
struct connq *cq = peer->listen_queue;
if (sock->pipe_class->flags & PIPE_CLASS_CONNECTIONLESS)
/* For connectionless protocols, connect() just sets where writes
will go, so the destination need not be doing an accept. */
err = sock_connect (sock, peer);
else if (cq)
/* For connection-oriented protocols, only connect with sockets that
are actually listening. */
{
pthread_mutex_lock (&sock->lock);
if (sock->connect_queue)
/* SOCK is already doing a connect. */
err = EALREADY;
else if (sock->flags & PFLOCAL_SOCK_CONNECTED)
/* PFLOCAL_SOCK_CONNECTED is only set for connection-oriented sockets,
which can only ever connect once. [If we didn't do this test
here, it would eventually fail when the listening socket
tried to accept our connection request.] */
err = EISCONN;
else
{
/* Assert that we're trying to connect, so anyone else trying
to do so will fail with EALREADY. */
sock->connect_queue = cq;
/* Unlock SOCK while waiting. */
pthread_mutex_unlock (&sock->lock);
err = connq_connect (peer->listen_queue,
sock->flags & PFLOCAL_SOCK_NONBLOCK);
if (!err)
{
struct sock *server;
err = sock_clone (peer, &server);
if (!err)
{
err = sock_connect (sock, server);
if (!err)
connq_connect_complete (peer->listen_queue, server);
else
sock_free (server);
}
if (err)
connq_connect_cancel (peer->listen_queue);
}
pthread_mutex_lock (&sock->lock);
/* We must set CONNECT_QUEUE to NULL, as no one else can
set it until we've done so. */
sock->connect_queue = NULL;
}
pthread_mutex_unlock (&sock->lock);
}
else
err = ECONNREFUSED;
sock_deref (peer);
}
return err;
}
void
init_mapped_time(void)
{
kern_return_t kr;
mach_port_t pager;
int new_res;
tvalspec_t rtc_time;
kr = host_get_clock_service(host_port,
REALTIME_CLOCK,
&rt_clock);
if (kr != KERN_SUCCESS) {
MACH3_DEBUG(1, kr,
("init_mapped_time: "
"host_get_clock_service(REALTIME_CLOCK)"));
panic("unable to get real time clock");
}
kr = host_get_clock_control(privileged_host_port,
REALTIME_CLOCK,
&rt_clock_ctrl);
if (kr != KERN_SUCCESS) {
MACH3_DEBUG(1, kr,
("init_mapped_time: "
"host_get_clock_control(REALTIME_CLOCK)"));
} else {
/* ask for 500 microsecond resolution */
new_res = 500000;
#if 0
kr = clock_set_attributes(rt_clock_ctrl,
CLOCK_ALARM_CURRES,
(clock_attr_t) &new_res,
1);
if (kr != KERN_SUCCESS) {
MACH3_DEBUG(2, kr,
("init_mapped_time: "
"clock_set_attributes(%d nsec)",
new_res));
}
#endif
}
kr = clock_map_time(rt_clock, &pager);
if (kr != KERN_SUCCESS) {
MACH3_DEBUG(1, kr, ("init_mapped_time: clock_map_time"));
panic("unable to map real time clock");
}
kr = vm_map(mach_task_self(),
(vm_address_t *)&serv_mtime,
sizeof(mapped_tvalspec_t),
0,
TRUE,
pager,
0,
0,
VM_PROT_READ,
VM_PROT_READ,
VM_INHERIT_NONE);
if (kr != D_SUCCESS) {
MACH3_DEBUG(1, kr, ("init_mapped_time: vm_map"));
panic("unable to vm_map real time clock");
}
kr = mach_port_deallocate(mach_task_self(), pager);
if (kr != KERN_SUCCESS) {
MACH3_DEBUG(1, kr, ("init_mapped_time: mach_port_deallocate"));
panic("unable to deallocate pager");
}
/* calculate origin of rtclock (ie. time of boot) so that we
* can use rtclock to generate the current time
*/
kr = host_get_clock_service(host_port,
BATTERY_CLOCK,
&bb_clock);
if (kr != KERN_SUCCESS) {
MACH3_DEBUG(1, kr,
("init_mapped_time: "
"host_get_clock_service(BATTERY_CLOCK)"));
panic("unable to get battery backed clock");
}
kr = host_get_clock_control(privileged_host_port,
BATTERY_CLOCK,
&bb_clock_ctrl);
if (kr != KERN_SUCCESS) {
MACH3_DEBUG(1, kr,
("init_mapped_time: "
"host_get_clock_control(BATTERY_CLOCK)"));
return;
}
kr = clock_get_time(bb_clock, &base_time);
if (kr != KERN_SUCCESS) {
MACH3_DEBUG(1, kr, ("init_mapped_time: clock_get_time"));
}
MTS_TO_TS(serv_mtime, &rtc_time);
SUB_TVALSPEC(&base_time, &rtc_time);
}
static int disk_init (void)
{
#if HAVE_IOKIT_IOKITLIB_H
kern_return_t status;
if (io_master_port != MACH_PORT_NULL)
{
mach_port_deallocate (mach_task_self (),
io_master_port);
io_master_port = MACH_PORT_NULL;
}
status = IOMasterPort (MACH_PORT_NULL, &io_master_port);
if (status != kIOReturnSuccess)
{
ERROR ("IOMasterPort failed: %s",
mach_error_string (status));
io_master_port = MACH_PORT_NULL;
return (-1);
}
/* #endif HAVE_IOKIT_IOKITLIB_H */
#elif KERNEL_LINUX
/* do nothing */
/* #endif KERNEL_LINUX */
#elif KERNEL_FREEBSD
int rv;
rv = geom_gettree(&geom_tree);
if (rv != 0) {
ERROR ("geom_gettree() failed, returned %d", rv);
return (-1);
}
rv = geom_stats_open();
if (rv != 0) {
ERROR ("geom_stats_open() failed, returned %d", rv);
return (-1);
}
/* #endif KERNEL_FREEBSD */
#elif HAVE_LIBKSTAT
kstat_t *ksp_chain;
numdisk = 0;
if (kc == NULL)
return (-1);
for (numdisk = 0, ksp_chain = kc->kc_chain;
(numdisk < MAX_NUMDISK) && (ksp_chain != NULL);
ksp_chain = ksp_chain->ks_next)
{
if (strncmp (ksp_chain->ks_class, "disk", 4)
&& strncmp (ksp_chain->ks_class, "partition", 9))
continue;
if (ksp_chain->ks_type != KSTAT_TYPE_IO)
continue;
ksp[numdisk++] = ksp_chain;
}
/* #endif HAVE_LIBKSTAT */
#elif HAVE_SYSCTL && KERNEL_NETBSD
int mib[3];
size_t size;
/* figure out number of drives */
mib[0] = CTL_HW;
mib[1] = HW_IOSTATS;
mib[2] = sizeof(struct io_sysctl);
if (sysctl(mib, 3, NULL, &size, NULL, 0) == -1) {
ERROR ("disk plugin: sysctl for ndrives failed");
return -1;
}
ndrive = size / sizeof(struct io_sysctl);
if (size == 0 ) {
ERROR ("disk plugin: no drives found");
return -1;
}
drives = (struct io_sysctl *)malloc(size);
if (drives == NULL) {
ERROR ("disk plugin: memory allocation failure");
return -1;
}
#endif /* HAVE_SYSCTL && KERNEL_NETBSD */
return (0);
} /* int disk_init */
static void
gum_kernel_do_deinit (void)
{
mach_port_deallocate (mach_task_self (), gum_kernel_get_task ());
}
/* -----------------------------------------------------------------------------
----------------------------------------------------------------------------- */
__private_extern__
kern_return_t
_pppcontroller_attach_proxy(mach_port_t server,
xmlData_t nameRef, /* raw XML bytes */
mach_msg_type_number_t nameLen,
mach_port_t bootstrap,
mach_port_t notify,
mach_port_t au_session,
int uid,
int gid,
int pid,
mach_port_t *session,
int * result,
audit_token_t audit_token)
{
CFStringRef serviceID = NULL;
CFMachPortRef port = NULL;
CFRunLoopSourceRef rls = NULL;
struct client *client = NULL;
mach_port_t oldport;
uid_t audit_euid = -1;
gid_t audit_egid = -1;
pid_t audit_pid = -1;
*session = MACH_PORT_NULL;
/* un-serialize the serviceID */
if (!_SCUnserializeString(&serviceID, NULL, (void *)nameRef, nameLen)) {
*result = kSCStatusFailed;
goto failed;
}
if (!isA_CFString(serviceID)) {
*result = kSCStatusInvalidArgument;
goto failed;
}
/* only allow "root" callers to change the client uid/gid/pid */
audit_token_to_au32(audit_token,
NULL, // auidp
&audit_euid, // euid
&audit_egid, // egid
NULL, // ruid
NULL, // rgid
&audit_pid, // pid
NULL, // asid
NULL); // tid
if ((audit_euid != 0) &&
((uid != audit_euid) || (gid != audit_egid) || (pid != audit_pid))) {
/*
* the caller is NOT "root" and is trying to masquerade
* as some other user/process.
*/
/* does caller has the right entitlement */
if (!(hasEntitlement(audit_token, kSCVPNConnectionEntitlementName, NULL))){
*result = kSCStatusAccessError;
goto failed;
}
}
//if ((findbyserviceID(serviceID)) == 0) {
// *result = kSCStatusInvalidArgument;
// goto failed;
//}
/* allocate session port */
(void) mach_port_allocate(mach_task_self(),
MACH_PORT_RIGHT_RECEIVE,
session);
/*
* Note: we create the CFMachPort *before* we insert a send
* right present to ensure that CF does not establish
* it's dead name notification.
*/
port = _SC_CFMachPortCreateWithPort("PPPController/PPP", *session, server_handle_request, NULL);
/* insert send right that will be moved to the client */
(void) mach_port_insert_right(mach_task_self(),
*session,
*session,
MACH_MSG_TYPE_MAKE_SEND);
/* Request a notification when/if the client dies */
(void) mach_port_request_notification(mach_task_self(),
*session,
MACH_NOTIFY_NO_SENDERS,
1,
*session,
MACH_MSG_TYPE_MAKE_SEND_ONCE,
&oldport);
/* add to runloop */
rls = CFMachPortCreateRunLoopSource(NULL, port, 0);
CFRunLoopAddSource(CFRunLoopGetCurrent(), rls, kCFRunLoopDefaultMode);
if (au_session != MACH_PORT_NULL) {
if ((audit_session_join(au_session)) == AU_DEFAUDITSID) {
SCLog(TRUE, LOG_ERR, CFSTR("_pppcontroller_attach audit_session_join fails"));
}
}else {
SCLog(TRUE, LOG_ERR, CFSTR("_pppcontroller_attach au_session == NULL"));
}
client = client_new_mach(port, rls, serviceID, uid, gid, pid, bootstrap, notify, au_session);
if (client == 0) {
*result = kSCStatusFailed;
goto failed;
}
*result = kSCStatusOK;
my_CFRelease(&serviceID);
my_CFRelease(&port);
my_CFRelease(&rls);
return KERN_SUCCESS;
failed:
my_CFRelease(&serviceID);
if (port) {
CFMachPortInvalidate(port);
my_CFRelease(&port);
}
if (rls) {
CFRunLoopRemoveSource(CFRunLoopGetCurrent(), rls, kCFRunLoopDefaultMode);
my_CFRelease(&rls);
}
if (*session != MACH_PORT_NULL) {
mach_port_mod_refs(mach_task_self(), *session, MACH_PORT_RIGHT_SEND , -1);
mach_port_mod_refs(mach_task_self(), *session, MACH_PORT_RIGHT_RECEIVE, -1);
*session = MACH_PORT_NULL;
}
if (client) {
client_dispose(client);
} else {
if (bootstrap != MACH_PORT_NULL)
mach_port_deallocate(mach_task_self(), bootstrap);
if (notify != MACH_PORT_NULL)
mach_port_deallocate(mach_task_self(), notify);
}
return KERN_SUCCESS;
}
nsresult
nsPerformanceStatsService::GetResources(uint64_t* userTime,
uint64_t* systemTime) const {
MOZ_ASSERT(userTime);
MOZ_ASSERT(systemTime);
#if defined(XP_MACOSX)
// On MacOS X, to get we per-thread data, we need to
// reach into the kernel.
mach_msg_type_number_t count = THREAD_BASIC_INFO_COUNT;
thread_basic_info_data_t info;
mach_port_t port = mach_thread_self();
kern_return_t err =
thread_info(/* [in] targeted thread*/ port,
/* [in] nature of information*/ THREAD_BASIC_INFO,
/* [out] thread information */ (thread_info_t)&info,
/* [inout] number of items */ &count);
// We do not need ability to communicate with the thread, so
// let's release the port.
mach_port_deallocate(mach_task_self(), port);
if (err != KERN_SUCCESS)
return NS_ERROR_FAILURE;
*userTime = info.user_time.microseconds + info.user_time.seconds * 1000000;
*systemTime = info.system_time.microseconds + info.system_time.seconds * 1000000;
#elif defined(XP_UNIX)
struct rusage rusage;
#if defined(RUSAGE_THREAD)
// Under Linux, we can obtain per-thread statistics
int err = getrusage(RUSAGE_THREAD, &rusage);
#else
// Under other Unices, we need to do with more noisy
// per-process statistics.
int err = getrusage(RUSAGE_SELF, &rusage);
#endif // defined(RUSAGE_THREAD)
if (err)
return NS_ERROR_FAILURE;
*userTime = rusage.ru_utime.tv_usec + rusage.ru_utime.tv_sec * 1000000;
*systemTime = rusage.ru_stime.tv_usec + rusage.ru_stime.tv_sec * 1000000;
#elif defined(XP_WIN)
// Under Windows, we can obtain per-thread statistics. Experience
// seems to suggest that they are not very accurate under Windows
// XP, though.
FILETIME creationFileTime; // Ignored
FILETIME exitFileTime; // Ignored
FILETIME kernelFileTime;
FILETIME userFileTime;
BOOL success = GetThreadTimes(GetCurrentThread(),
&creationFileTime, &exitFileTime,
&kernelFileTime, &userFileTime);
if (!success)
return NS_ERROR_FAILURE;
ULARGE_INTEGER kernelTimeInt;
kernelTimeInt.LowPart = kernelFileTime.dwLowDateTime;
kernelTimeInt.HighPart = kernelFileTime.dwHighDateTime;
// Convert 100 ns to 1 us.
*systemTime = kernelTimeInt.QuadPart / 10;
ULARGE_INTEGER userTimeInt;
userTimeInt.LowPart = userFileTime.dwLowDateTime;
userTimeInt.HighPart = userFileTime.dwHighDateTime;
// Convert 100 ns to 1 us.
*userTime = userTimeInt.QuadPart / 10;
#endif // defined(XP_MACOSX) || defined(XP_UNIX) || defined(XP_WIN)
return NS_OK;
}
int yr_process_get_memory(
pid_t pid,
YR_MEMORY_BLOCK** first_block)
{
task_t task;
kern_return_t kr;
vm_size_t size = 0;
vm_address_t address = 0;
vm_region_basic_info_data_64_t info;
mach_msg_type_number_t info_count;
mach_port_t object;
unsigned char* data;
YR_MEMORY_BLOCK* new_block;
YR_MEMORY_BLOCK* current_block = NULL;
*first_block = NULL;
if ((kr = task_for_pid(mach_task_self(), pid, &task)) != KERN_SUCCESS)
return ERROR_COULD_NOT_ATTACH_TO_PROCESS;
do {
info_count = VM_REGION_BASIC_INFO_COUNT_64;
kr = vm_region_64(
task,
&address,
&size,
VM_REGION_BASIC_INFO,
(vm_region_info_t) &info,
&info_count,
&object);
if (kr == KERN_SUCCESS)
{
data = (unsigned char*) yr_malloc(size);
if (data == NULL)
return ERROR_INSUFICIENT_MEMORY;
if (vm_read_overwrite(
task,
address,
size,
(vm_address_t)
data,
&size) == KERN_SUCCESS)
{
new_block = (YR_MEMORY_BLOCK*) yr_malloc(sizeof(YR_MEMORY_BLOCK));
if (new_block == NULL)
{
yr_free(data);
return ERROR_INSUFICIENT_MEMORY;
}
if (*first_block == NULL)
*first_block = new_block;
new_block->base = address;
new_block->size = size;
new_block->data = data;
new_block->next = NULL;
if (current_block != NULL)
current_block->next = new_block;
current_block = new_block;
}
else
{
yr_free(data);
}
address += size;
}
} while (kr != KERN_INVALID_ADDRESS);
if (task != MACH_PORT_NULL)
mach_port_deallocate(mach_task_self(), task);
return ERROR_SUCCESS;
}
SharedMemory::Handle::~Handle()
{
if (m_port)
mach_port_deallocate(mach_task_self(), m_port);
}
int
main()
{
kern_return_t kr;
clock_serv_t clk_system;
mach_timespec_t alarm_time;
clock_reply_t alarm_port;
struct timeval t1, t2;
msg_format_recv_t message;
mach_port_t mytask;
// The C library optimized this call by returning the task port's value
// that it caches in the mach_task_self_ variable
mytask = mach_task_self();
kr = host_get_clock_service(mach_host_self(), SYSTEM_CLOCK,
(clock_serv_t *)&clk_system);
OUT_ON_MACH_ERROR("host_get_clock_service", kr);
// Let us set the alarm to ring after 2.5 seconds
alarm_time.tv_sec = 2;
alarm_time.tv_nsec = 50000000;
// Allocate a port (specifically, get receive right for the new port)
// We will use this port to receive the alarm message from the clock
kr = mach_port_allocate(
mytask, // the task acquiring the port right
MACH_PORT_RIGHT_RECEIVE, // type of right
&alarm_port); // task's name for the port right
OUT_ON_MACH_ERROR("mach_port_allocate", kr);
gettimeofday(&t1, NULL);
// Set the alarm
kr = clock_alarm(clk_system, // the clock to use
TIME_RELATIVE, // how to interpret alarm time
alarm_time, // the alarm time
alarm_port); // this port will receive the alarm message
OUT_ON_MACH_ERROR("clock_alarm", kr);
printf("Current time %ld s + %d us\n"
"Setting alarm to ring after %d s + %d ns\n",
t1.tv_sec, t1.tv_usec, alarm_time.tv_sec, alarm_time.tv_nsec);
// Wait to receive the alarm message (we will block here)
kr = mach_msg(&(message.header), // the message buffer
MACH_RCV_MSG, // message option bits
0, // send size (we are receiving, so 0)
message.header.msgh_size,// receive limit
alarm_port, // receive right
MACH_MSG_TIMEOUT_NONE, // no timeout
MACH_PORT_NULL); // no timeout notification port
// We should have received an alarm message at this point
gettimeofday(&t2, NULL);
OUT_ON_MACH_ERROR("mach_msg", kr);
if (t2.tv_usec < t1.tv_usec) {
t1.tv_sec += 1;
t1.tv_usec -= 1000000;
}
printf("\nCurrent time %ld s + %d us\n", t2.tv_sec, t2.tv_usec);
printf("Alarm rang after %ld s + %d us\n", (t2.tv_sec - t1.tv_sec),
(t2.tv_usec - t1.tv_usec));
out:
mach_port_deallocate(mytask, clk_system);
// Release user reference for the receive right we created
mach_port_deallocate(mytask, alarm_port);
exit(0);
}
