///////////////////////////////////////////////////////////////////////////
// senf::ClockService
+////////////////////////////////////////
+// private members
+
+prefix_ bool senf::ClockService::checkSkew(boost::posix_time::ptime time)
+{
+ boost::posix_time::ptime h (heartbeat_); // reduce chance for race condition
+ return time < h || (time - h) > boost::posix_time::seconds(2*CheckInterval);
+}
+
+prefix_ void senf::ClockService::clockSkew(boost::posix_time::ptime time,
+ boost::posix_time::ptime expected)
+{
+ base_ += (time - expected);
+}
+
+prefix_ senf::ClockService::clock_type senf::ClockService::clock_m(abstime_type time)
+{
+ ///\fixme What happens, if base_ is changed in SIGALRM while reading it here ?
+
+ // Idea: Have *two* base values: one is written by the SIGALRM handler, the other is only
+ // Written by synchronous code. If they differ, we block signals, copy over and continue. If
+ // they transiently differ because we are reading the SIGALRM value while it is being changed
+ // this does not matter: We will then still copy it over.
+
+ boost::posix_time::time_duration delta (time - base_);
+ return clock_type( delta.ticks() )
+ * clock_type( 1000000000UL / boost::posix_time::time_duration::ticks_per_second() );
+}
+
+prefix_ senf::ClockService::clock_type senf::ClockService::now_m()
+{
+ // We want to make the normal case (no skew) really fast. This first 'checkSkew' *might*
+ // transiently fail if a SIGALRM is delivered in the midst of the test. updateSkew will
+ // therefore block signals and do the check again to make sure.
+ //
+ // The opposite case (the test returns 'false' even though it should return 'true') is so highly
+ // improbable that it is treated as academic. (it will be catched by the next SIGALRM)
+
+ boost::posix_time::ptime time (boost::posix_time::microsec_clock::universal_time());
+ if (checkSkew(time))
+ updateSkew(time);
+
+ // 'clock' will pick up the corrected base_ value if needed.
+ return clock_m(time);
+}
+
+prefix_ senf::ClockService::abstime_type senf::ClockService::abstime_m(clock_type clock)
+{
+#ifdef BOOST_DATE_TIME_POSIX_TIME_STD_CONFIG
+ return base_ + boost::posix_time::nanoseconds(clock);
+#else
+ return base_ + boost::posix_time::microseconds((clock+500)/1000);
+#endif
+}
+
+// public members
+
prefix_ senf::ClockService::clock_type senf::ClockService::now()
{
return instance().now_m();
return clock( boost::posix_time::from_time_t(time) );
}
-prefix_ senf::ClockService::clock_type senf::ClockService::from_timeval(timeval const & time)
-{
- return from_time_t(time.tv_sec) + ClockService::microseconds(time.tv_usec);
-}
-
-prefix_ senf::ClockService::clock_type senf::ClockService::nanoseconds(clock_type v)
+prefix_ senf::ClockService::clock_type senf::ClockService::nanoseconds(int64_type v)
{
return v;
}
-prefix_ senf::ClockService::clock_type senf::ClockService::microseconds(clock_type v)
+prefix_ senf::ClockService::clock_type senf::ClockService::microseconds(int64_type v)
{
return v * nanoseconds(1000);
}
-prefix_ senf::ClockService::clock_type senf::ClockService::milliseconds(clock_type v)
+prefix_ senf::ClockService::clock_type senf::ClockService::milliseconds(int64_type v)
{
return v * microseconds(1000);
}
-prefix_ senf::ClockService::clock_type senf::ClockService::seconds(clock_type v)
+prefix_ senf::ClockService::clock_type senf::ClockService::seconds(int64_type v)
{
return v * milliseconds(1000);
}
-prefix_ senf::ClockService::clock_type senf::ClockService::minutes(clock_type v)
+prefix_ senf::ClockService::clock_type senf::ClockService::minutes(int64_type v)
{
return v * seconds(60);
}
-prefix_ senf::ClockService::clock_type senf::ClockService::hours(clock_type v)
+prefix_ senf::ClockService::clock_type senf::ClockService::hours(int64_type v)
{
return v * minutes(60);
}
-prefix_ senf::ClockService::clock_type senf::ClockService::days(clock_type v)
+prefix_ senf::ClockService::clock_type senf::ClockService::days(int64_type v)
{
return v * hours(24);
}
-prefix_ void senf::ClockService::restart()
+prefix_ senf::ClockService::clock_type senf::ClockService::in_nanoseconds(int64_type v)
{
- instance().restart_m();
+ return v;
}
-////////////////////////////////////////
-// private members
-
-prefix_ senf::ClockService::clock_type senf::ClockService::now_m()
+prefix_ senf::ClockService::clock_type senf::ClockService::in_microseconds(int64_type v)
{
- // We want to make the normal case (no skew) really fast. This first 'checkSkew' *might*
- // transiently fail if a SIGALRM is delivered in the midst of the test. updateSkew will
- // therefore block signals and do the check again to make sure.
- //
- // The opposite case (the test returns 'false' even though it should return 'true') is so highly
- // improbable that it is treated as academic. (it will be catched by the next SIGALRM)
+ return v / nanoseconds(1000);
+}
- boost::posix_time::ptime time (boost::posix_time::microsec_clock::universal_time());
- if (checkSkew(time))
- updateSkew(time);
-
- // 'clock' will pick up the corrected base_ value if needed.
- return clock_m(time);
+prefix_ senf::ClockService::clock_type senf::ClockService::in_milliseconds(int64_type v)
+{
+ return v / microseconds(1000);
}
-prefix_ senf::ClockService::abstime_type senf::ClockService::abstime_m(clock_type clock)
+prefix_ senf::ClockService::clock_type senf::ClockService::in_seconds(int64_type v)
{
-#ifdef BOOST_DATE_TIME_POSIX_TIME_STD_CONFIG
- return base_ + boost::posix_time::nanoseconds(clock);
-#else
- return base_ + boost::posix_time::microseconds((clock+500)/1000);
-#endif
+ return v / milliseconds(1000);
}
-prefix_ senf::ClockService::clock_type senf::ClockService::clock_m(abstime_type time)
+prefix_ senf::ClockService::clock_type senf::ClockService::in_minutes(int64_type v)
{
- ///\fixme What happens, if base_ is changed in SIGALRM while reading it here ?
+ return v / seconds(60);
+}
- // Idea: Have *two* base values: one is written by the SIGALRM handler, the other is only
- // Written by synchronous code. If they differ, we block signals, copy over and continue. If
- // they transiently differ because we are reading the SIGALRM value while it is being changed
- // this does not matter: We will then still copy it over.
+prefix_ senf::ClockService::clock_type senf::ClockService::in_hours(int64_type v)
+{
+ return v / minutes(60);
+}
- boost::posix_time::time_duration delta (time - base_);
- return clock_type( delta.ticks() )
- * clock_type( 1000000000UL / boost::posix_time::time_duration::ticks_per_second() );
+prefix_ senf::ClockService::clock_type senf::ClockService::in_days(int64_type v)
+{
+ return v / hours(24);
}
-prefix_ bool senf::ClockService::checkSkew(boost::posix_time::ptime time)
+prefix_ senf::ClockService::clock_type senf::ClockService::from_timeval(timeval const & time)
{
- boost::posix_time::ptime h (heartbeat_); // reduce chance for race condition
- return time < h || (time - h) > boost::posix_time::seconds(2*CheckInterval);
+ return from_time_t(time.tv_sec) + ClockService::microseconds(time.tv_usec);
}
-prefix_ void senf::ClockService::clockSkew(boost::posix_time::ptime time,
- boost::posix_time::ptime expected)
+prefix_ void senf::ClockService::restart()
{
- base_ += (time - expected);
+ instance().restart_m();
}
///////////////////////////////cci.e///////////////////////////////////////