std::vector<std::string> to_internal(const std::vector<T>& s)
{
std::vector<std::string> result;
for (unsigned i = 0; i < s.size(); ++i)
result.push_back(to_internal(s[i]));
return result;
}
basic_command_line_parser<charT>::
basic_command_line_parser(int argc, charT* argv[])
: detail::cmdline(
// Explicit template arguments are required by gcc 3.3.1
// (at least mingw version), and do no harm on other compilers.
to_internal(detail::make_vector<charT, charT**>(argv+1, argv+argc+!argc)))
{}
int
pthread_setschedparam (pthread_t thread, int policy,
const struct sched_param *param)
{
int result;
/* Validate the thread id. */
result = pthread_kill (thread, 0);
if (0 != result)
{
return result;
}
/* Validate the scheduling policy. */
if (policy < SCHED_MIN || policy > SCHED_MAX)
{
return EINVAL;
}
/* Ensure the policy is SCHED_OTHER. */
if (policy != SCHED_OTHER)
{
return ENOTSUP;
}
return (ptw32_setthreadpriority (
to_internal(thread), policy, param->sched_priority));
}
inline Box::length_type
distance(Box const& obj, typename Box::position_type const& pos)
{
typedef Box::length_type length_type;
boost::array<length_type, 3> x_y_z(to_internal(obj, pos));
boost::array<length_type, 3> dx_dy_dz(subtract(abs(x_y_z), obj.half_extent()));
if (dx_dy_dz[0] > 0)
{
if (dx_dy_dz[1] > 0)
{
if (dx_dy_dz[2] > 0)
{
// Far away from box.
return length(dx_dy_dz);
}
else
{
return length(array_slice<0, 2>(dx_dy_dz));
}
}
else
{
if (dx_dy_dz[2] > 0)
{
return std::sqrt(gsl_pow_2(dx_dy_dz[0]) + gsl_pow_2(dx_dy_dz[2]));
}
else
{
return dx_dy_dz[0];
}
}
}
else
{
if (dx_dy_dz[1] > 0)
{
if (dx_dy_dz[2] > 0)
{
return length(array_slice<1, 3>(dx_dy_dz));
}
else
{
return dx_dy_dz[1];
}
}
else
{
if (dx_dy_dz[2] > 0)
{
return dx_dy_dz[2];
}
else
{
// Inside box.
return std::max(std::max(dx_dy_dz[0], dx_dy_dz[1]), dx_dy_dz[2]);
}
}
}
}
Self & operator<<(Symbol symbol) {
InternalSymbol internal_symbol = to_internal(symbol);
if (location[internal_symbol] == nullptr) {
new_symbol(internal_symbol);
}
increse_weight(location[internal_symbol]);
return *this;
}
BOOST_PROGRAM_OPTIONS_DECL std::vector<std::wstring>
split_winmain(const std::wstring& cmdline)
{
std::vector<std::wstring> result;
std::vector<std::string> aux = split_winmain(to_internal(cmdline));
for (unsigned i = 0, e = aux.size(); i < e; ++i)
result.push_back(from_utf8(aux[i]));
return result;
}
inline std::pair<typename Plane<T_>::position_type,
typename Plane<T_>::length_type>
projected_point(Plane<T_> const& obj, typename Plane<T_>::position_type const& pos)
{
boost::array<typename Plane<T_>::length_type, 3> x_y_z(to_internal(obj, pos));
return std::make_pair(
add(add(obj.position(), multiply(obj.unit_x(), x_y_z[0])),
multiply(obj.unit_y(), x_y_z[1])),
x_y_z[2]);
}
bool
basic_config_file_iterator<charT>::getline(std::string& s)
{
std::basic_string<charT> in;
if (std::getline(*is, in)) {
s = to_internal(in);
return true;
} else {
return false;
}
}
inline std::pair<typename Cylinder<T_>::position_type,
typename Cylinder<T_>::length_type>
projected_point(Cylinder<T_> const& obj,
typename Cylinder<T_>::position_type const& pos)
{
typedef typename Cylinder<T_>::length_type length_type;
// The projection lies on the z-axis.
std::pair<length_type, length_type> r_z(to_internal(obj, pos));
return std::make_pair(
add(obj.position(), multiply(obj.unit_z(), r_z.second)),
r_z.first);
}
// Get a pthread_attr_t containing attributes of the given pthread_t.
int pthread_getattr_np(pthread_t tid, pthread_attr_t* attr) {
ptw32_thread_t* thread_ptr;
if (ptw32_is_attr(attr) != 0) {
return EINVAL;
}
thread_ptr = (ptw32_thread_t*)to_internal(tid).p;
(*attr)->stacksize = thread_ptr->stackSize;
(*attr)->stackaddr = thread_ptr->stackAddr;
(*attr)->detachstate = thread_ptr->detachState;
(*attr)->param.sched_priority = thread_ptr->sched_priority;
return 0;
}
void rmDsummary_print(FILE *output, struct rmDsummary *so) {
struct rmsummary *s = rmsummary_create(-1);
s->command = xxstrdup(so->command);
if(so->category)
{
s->category = xxstrdup(so->category);
}
else if(so->command)
{
s->category = xxstrdup(so->command);
}
else
{
s->category = xxstrdup(DEFAULT_CATEGORY);
s->command = xxstrdup(DEFAULT_CATEGORY);
}
if(so->task_id) {
s->task_id = xxstrdup(so->task_id);
}
s->start = so->start;
s->end = so->end;
s->wall_time = so->wall_time;
to_internal(so, s, start, "us");
to_internal(so, s, end, "us");
to_internal(so, s, wall_time, "s");
to_internal(so, s, cpu_time, "s");
to_internal(so, s, cores, "cores");
to_internal(so, s, total_processes, "procs");
to_internal(so, s, max_concurrent_processes,"procs");
to_internal(so, s, memory, "MB");
to_internal(so, s, virtual_memory, "MB");
to_internal(so, s, swap_memory, "MB");
to_internal(so, s, bytes_read, "MB");
to_internal(so, s, bytes_written, "MB");
to_internal(so, s, bytes_received, "MB");
to_internal(so, s, bytes_sent, "MB");
to_internal(so, s, bandwidth, "Mbps");
to_internal(so, s, total_files, "files");
to_internal(so, s, disk, "MB");
rmsummary_print(output, s, /* pprint */ 1, /* extra fields */ 0);
rmsummary_delete(s);
return;
}
basic_command_line_parser<charT>::
basic_command_line_parser(const std::vector<
std::basic_string<charT> >& args)
: detail::cmdline(to_internal(args))
{}
static INLINE int
ptw32_cancelable_wait (HANDLE waitHandle, DWORD timeout)
/*
* -------------------------------------------------------------------
* This provides an extra hook into the pthread_cancel
* mechanism that will allow you to wait on a Windows handle and make it a
* cancellation point. This function blocks until the given WIN32 handle is
* signaled or pthread_cancel has been called. It is implemented using
* WaitForMultipleObjects on 'waitHandle' and a manually reset WIN32
* event used to implement pthread_cancel.
*
* Given this hook it would be possible to implement more of the cancellation
* points.
* -------------------------------------------------------------------
*/
{
int result;
pthread_t self;
ptw32_thread_t * sp;
HANDLE handles[2];
DWORD nHandles = 1;
DWORD status;
handles[0] = waitHandle;
self = pthread_self();
sp = (ptw32_thread_t *) to_internal(self).p;
if (sp != NULL)
{
/*
* Get cancelEvent handle
*/
if (sp->cancelState == PTHREAD_CANCEL_ENABLE)
{
if ((handles[1] = sp->cancelEvent) != NULL)
{
nHandles++;
}
}
}
else
{
handles[1] = NULL;
}
status = WaitForMultipleObjects (nHandles, handles, PTW32_FALSE, timeout);
switch (status - WAIT_OBJECT_0)
{
case 0:
/*
* Got the handle.
* In the event that both handles are signalled, the smallest index
* value (us) is returned. As it has been arranged, this ensures that
* we don't drop a signal that we should act on (i.e. semaphore,
* mutex, or condition variable etc).
*/
result = 0;
break;
case 1:
/*
* Got cancel request.
* In the event that both handles are signaled, the cancel will
* be ignored (see case 0 comment).
*/
ResetEvent (handles[1]);
if (sp != NULL)
{
ptw32_mcs_local_node_t stateLock;
/*
* Should handle POSIX and implicit POSIX threads..
* Make sure we haven't been async-canceled in the meantime.
*/
ptw32_mcs_lock_acquire (&sp->stateLock, &stateLock);
if (sp->state < PThreadStateCanceling)
{
sp->state = PThreadStateCanceling;
sp->cancelState = PTHREAD_CANCEL_DISABLE;
ptw32_mcs_lock_release (&stateLock);
ptw32_throw (PTW32_EPS_CANCEL);
/* Never reached */
}
ptw32_mcs_lock_release (&stateLock);
}
/* Should never get to here. */
result = EINVAL;
break;
default:
if (status == WAIT_TIMEOUT)
{
result = ETIMEDOUT;
}
else
{
result = EINVAL;
}
break;
}
return (result);
} /* CancelableWait */
basic_command_line_parser<charT>::
basic_command_line_parser(const std::vector<
std::basic_string<charT> >& args)
: common_command_line_parser(to_internal(args))
{}
Cursor operator[](Symbol symbol) const {
return (*this)[to_internal(symbol)];
}
unsigned __int64
pthread_getunique_np (pthread_t thread)
{
return ((ptw32_thread_t*)to_internal(thread).p)->seqNumber;
}
