def timer():
t1 = read_timestamp()
start = time.time()
while time.time() - start < 0.1:
# busy wait
pass
t2 = read_timestamp()
return t2 - t1
def do_read_timestamp(cpu, _):
x = read_timestamp()
if longlong.is_64_bit:
assert is_valid_int(x) # 64-bit
return BoxInt(x)
else:
assert isinstance(x, r_longlong) # 32-bit
return BoxFloat(x)
def disable(self, space):
if not self.is_enabled:
return # ignored
# We want total_real_time and total_timestamp to end up containing
# (endtime - starttime), or the sum of such intervals if
# enable() and disable() are called several times.
self.is_enabled = False
self.total_timestamp += read_timestamp()
self.total_real_time += time.time()
# unset profiler hook
space.getexecutioncontext().setllprofile(None, None)
c_teardown_profiling()
self._flush_unmatched()
def ll_timer(self):
if self.w_callable:
space = self.space
try:
if _is_64_bit:
return space.int_w(space.call_function(self.w_callable))
else:
return space.r_longlong_w(
space.call_function(self.w_callable))
except OperationError as e:
e.write_unraisable(space, "timer function ", self.w_callable)
return timer_size_int(0)
return read_timestamp()
def disable(self, space):
if not self.is_enabled:
return # ignored
# We want total_real_time and total_timestamp to end up containing
# (endtime - starttime), or the sum of such intervals if
# enable() and disable() are called several times.
self.is_enabled = False
self.total_timestamp += read_timestamp()
self.total_real_time += time.time()
# unset profiler hook
space.getexecutioncontext().setllprofile(None, None)
c_teardown_profiling()
self._flush_unmatched()
def ll_timer(self):
if self.w_callable:
space = self.space
try:
if _is_64_bit:
return space.int_w(space.call_function(self.w_callable))
else:
return space.r_longlong_w(space.call_function(self.w_callable))
except OperationError as e:
e.write_unraisable(space, "timer function ",
self.w_callable)
return timer_size_int(0)
return read_timestamp()
def enable(self, space, w_subcalls=None, w_builtins=None):
if self.is_enabled:
return # ignored
if w_subcalls is not None:
self.subcalls = space.bool_w(w_subcalls)
if w_builtins is not None:
self.builtins = space.bool_w(w_builtins)
# We want total_real_time and total_timestamp to end up containing
# (endtime - starttime). Now we are at the start, so we first
# have to subtract the current time.
self.is_enabled = True
self.total_real_time -= time.time()
self.total_timestamp -= read_timestamp()
# set profiler hook
c_setup_profiling()
space.getexecutioncontext().setllprofile(lsprof_call, self)
def enable(self, space, w_subcalls=None,
w_builtins=None):
if self.is_enabled:
return # ignored
if w_subcalls is not None:
self.subcalls = space.bool_w(w_subcalls)
if w_builtins is not None:
self.builtins = space.bool_w(w_builtins)
# We want total_real_time and total_timestamp to end up containing
# (endtime - starttime). Now we are at the start, so we first
# have to subtract the current time.
self.is_enabled = True
self.total_real_time -= time.time()
self.total_timestamp -= read_timestamp()
# set profiler hook
c_setup_profiling()
space.getexecutioncontext().setllprofile(lsprof_call, space.wrap(self))
def op_ll_read_timestamp():
from rpython.rlib.rtimer import read_timestamp
return read_timestamp()
def _ll_0_ll_read_timestamp():
from rpython.rlib import rtimer
return rtimer.read_timestamp()
def rtimer_example():
t1 = rtimer.read_timestamp()
print rtimer.get_timestamp_unit()
t2 = rtimer.read_timestamp()
print t2 - t1
def bh_read_timestamp(self):
return read_timestamp()
def op_ll_read_timestamp():
from rpython.rlib.rtimer import read_timestamp
return read_timestamp()
def tiger_start_timer():
"""Native function to start a timer; in RPython this will measure the CPU ticks with RDTSC, see
genop_math_read_timestamp in pypy/rpython/jit/backend/x86/assembler.py"""
start_timestamp.value = read_timestamp()
return IntegerValue(start_timestamp.value)
def _ll_0_ll_read_timestamp():
from rpython.rlib import rtimer
return rtimer.read_timestamp()
def debug_read_timestamp(space):
return space.newint(rtimer.read_timestamp())