manual/probes.texi: Use "triggered" instead of "hit"

Use the term "triggered" instead of "hit" when talking about probe
points.

ChangeLog:

2014-02-11  Will Newton  <will.newton@linaro.org>

	* manual/probes.texi (Mathematical Function Probes): Use
	"triggered" instead of "hit".
This commit is contained in:
Will Newton 2014-02-11 10:11:32 +00:00
parent 7b3436d468
commit d35f1e8073
2 changed files with 84 additions and 73 deletions

View file

@ -1,3 +1,8 @@
2014-02-11 Will Newton <will.newton@linaro.org>
* manual/probes.texi (Mathematical Function Probes): Use
"triggered" instead of "hit".
2014-02-11 Will Newton <will.newton@linaro.org>
* manual/probes.texi (Internal Probes): Add documentation

View file

@ -247,127 +247,133 @@ precision in the mantissa of the multiple precision number. Hence, a precision
level of 32 implies 768 bits of precision in the mantissa.
@deftp Probe slowexp_p6 (double @var{$arg1}, double @var{$arg2})
This probe is hit when the @code{exp} function is called with an input that
results in multiple precision computation with precision 6. Argument
@var{$arg1} is the input value and @var{$arg2} is the computed output.
This probe is triggered when the @code{exp} function is called with an
input that results in multiple precision computation with precision
6. Argument @var{$arg1} is the input value and @var{$arg2} is the
computed output.
@end deftp
@deftp Probe slowexp_p32 (double @var{$arg1}, double @var{$arg2})
This probe is hit when the @code{exp} function is called with an input that
results in multiple precision computation with precision 32. Argument
@var{$arg1} is the input value and @var{$arg2} is the computed output.
This probe is triggered when the @code{exp} function is called with an
input that results in multiple precision computation with precision
32. Argument @var{$arg1} is the input value and @var{$arg2} is the
computed output.
@end deftp
@deftp Probe slowpow_p10 (double @var{$arg1}, double @var{$arg2}, double @var{$arg3}, double @var{$arg4})
This probe is hit when the @code{pow} function is called with inputs that
result in multiple precision computation with precision 10. Arguments
@var{$arg1} and @var{$arg2} are the input values, @code{$arg3} is the value
computed in the fast phase of the algorithm and @code{$arg4} is the final
accurate value.
This probe is triggered when the @code{pow} function is called with
inputs that result in multiple precision computation with precision
10. Arguments @var{$arg1} and @var{$arg2} are the input values,
@code{$arg3} is the value computed in the fast phase of the algorithm
and @code{$arg4} is the final accurate value.
@end deftp
@deftp Probe slowpow_p32 (double @var{$arg1}, double @var{$arg2}, double @var{$arg3}, double @var{$arg4})
This probe is hit when the @code{pow} function is called with an input that
results in multiple precision computation with precision 32. Arguments
@var{$arg1} and @var{$arg2} are the input values, @code{$arg3} is the value
computed in the fast phase of the algorithm and @code{$arg4} is the final
accurate value.
This probe is triggered when the @code{pow} function is called with an
input that results in multiple precision computation with precision
32. Arguments @var{$arg1} and @var{$arg2} are the input values,
@code{$arg3} is the value computed in the fast phase of the algorithm
and @code{$arg4} is the final accurate value.
@end deftp
@deftp Probe slowlog (int @var{$arg1}, double @var{$arg2}, double @var{$arg3})
This probe is hit when the @code{log} function is called with an input that
results in multiple precision computation. Argument @var{$arg1} is the
precision with which the computation succeeded. Argument @var{$arg2} is the
input and @var{$arg3} is the computed output.
This probe is triggered when the @code{log} function is called with an
input that results in multiple precision computation. Argument
@var{$arg1} is the precision with which the computation succeeded.
Argument @var{$arg2} is the input and @var{$arg3} is the computed
output.
@end deftp
@deftp Probe slowlog_inexact (int @var{$arg1}, double @var{$arg2}, double @var{$arg3})
This probe is hit when the @code{log} function is called with an input that
results in multiple precision computation and none of the multiple precision
computations result in an accurate result. Argument @var{$arg1} is the maximum
precision with which computations were performed. Argument @var{$arg2} is the
input and @var{$arg3} is the computed output.
This probe is triggered when the @code{log} function is called with an
input that results in multiple precision computation and none of the
multiple precision computations result in an accurate result.
Argument @var{$arg1} is the maximum precision with which computations
were performed. Argument @var{$arg2} is the input and @var{$arg3} is
the computed output.
@end deftp
@deftp Probe slowatan2 (int @var{$arg1}, double @var{$arg2}, double @var{$arg3}, double @var{$arg4})
This probe is hit when the @code{atan2} function is called with an input that
results in multiple precision computation. Argument @var{$arg1} is the
precision with which computation succeeded. Arguments @var{$arg2} and
@var{$arg3} are inputs to the @code{atan2} function and @var{$arg4} is the
computed result.
This probe is triggered when the @code{atan2} function is called with
an input that results in multiple precision computation. Argument
@var{$arg1} is the precision with which computation succeeded.
Arguments @var{$arg2} and @var{$arg3} are inputs to the @code{atan2}
function and @var{$arg4} is the computed result.
@end deftp
@deftp Probe slowatan2_inexact (int @var{$arg1}, double @var{$arg2}, double @var{$arg3}, double @var{$arg4})
This probe is hit when the @code{atan} function is called with an input that
results in multiple precision computation and none of the multiple precision
computations result in an accurate result. Argument @var{$arg1} is the maximum
precision with which computations were performed. Arguments @var{$arg2} and
@var{$arg3} are inputs to the @code{atan2} function and @var{$arg4} is the
computed result.
This probe is triggered when the @code{atan} function is called with
an input that results in multiple precision computation and none of
the multiple precision computations result in an accurate result.
Argument @var{$arg1} is the maximum precision with which computations
were performed. Arguments @var{$arg2} and @var{$arg3} are inputs to
the @code{atan2} function and @var{$arg4} is the computed result.
@end deftp
@deftp Probe slowatan (int @var{$arg1}, double @var{$arg2}, double @var{$arg3})
This probe is hit when the @code{atan} function is called with an input that
results in multiple precision computation. Argument @var{$arg1} is the
precision with which computation succeeded. Argument @var{$arg2} is the
input to the @code{atan} function and @var{$arg3} is the computed result.
This probe is triggered when the @code{atan} function is called with
an input that results in multiple precision computation. Argument
@var{$arg1} is the precision with which computation succeeded.
Argument @var{$arg2} is the input to the @code{atan} function and
@var{$arg3} is the computed result.
@end deftp
@deftp Probe slowatan_inexact (int @var{$arg1}, double @var{$arg2}, double @var{$arg3})
This probe is hit when the @code{atan} function is called with an input that
results in multiple precision computation and none of the multiple precision
computations result in an accurate result. Argument @var{$arg1} is the maximum
precision with which computations were performed. Argument @var{$arg2} is the
input to the @code{atan} function and @var{$arg3} is the computed result.
This probe is triggered when the @code{atan} function is called with
an input that results in multiple precision computation and none of
the multiple precision computations result in an accurate result.
Argument @var{$arg1} is the maximum precision with which computations
were performed. Argument @var{$arg2} is the input to the @code{atan}
function and @var{$arg3} is the computed result.
@end deftp
@deftp Probe slowtan (double @var{$arg1}, double @var{$arg2})
This probe is hit when the @code{tan} function is called with an input that
results in multiple precision computation with precision 32. Argument
@var{$arg1} is the input to the function and @var{$arg2} is the computed
result.
This probe is triggered when the @code{tan} function is called with an
input that results in multiple precision computation with precision
32. Argument @var{$arg1} is the input to the function and @var{$arg2}
is the computed result.
@end deftp
@deftp Probe slowasin (double @var{$arg1}, double @var{$arg2})
This probe is hit when the @code{asin} function is called with an input that
results in multiple precision computation with precision 32. Argument
@var{$arg1} is the input to the function and @var{$arg2} is the computed
result.
This probe is triggered when the @code{asin} function is called with
an input that results in multiple precision computation with precision
32. Argument @var{$arg1} is the input to the function and @var{$arg2}
is the computed result.
@end deftp
@deftp Probe slowacos (double @var{$arg1}, double @var{$arg2})
This probe is hit when the @code{acos} function is called with an input that
results in multiple precision computation with precision 32. Argument
@var{$arg1} is the input to the function and @var{$arg2} is the computed
result.
This probe is triggered when the @code{acos} function is called with
an input that results in multiple precision computation with precision
32. Argument @var{$arg1} is the input to the function and @var{$arg2}
is the computed result.
@end deftp
@deftp Probe slowsin (double @var{$arg1}, double @var{$arg2})
This probe is hit when the @code{sin} function is called with an input that
results in multiple precision computation with precision 32. Argument
@var{$arg1} is the input to the function and @var{$arg2} is the computed
result.
This probe is triggered when the @code{sin} function is called with an
input that results in multiple precision computation with precision
32. Argument @var{$arg1} is the input to the function and @var{$arg2}
is the computed result.
@end deftp
@deftp Probe slowcos (double @var{$arg1}, double @var{$arg2})
This probe is hit when the @code{cos} function is called with an input that
results in multiple precision computation with precision 32. Argument
@var{$arg1} is the input to the function and @var{$arg2} is the computed
result.
This probe is triggered when the @code{cos} function is called with an
input that results in multiple precision computation with precision
32. Argument @var{$arg1} is the input to the function and @var{$arg2}
is the computed result.
@end deftp
@deftp Probe slowsin_dx (double @var{$arg1}, double @var{$arg2}, double @var{$arg3})
This probe is hit when the @code{sin} function is called with an input that
results in multiple precision computation with precision 32. Argument
@var{$arg1} is the input to the function, @var{$arg2} is the error bound of
@var{$arg1} and @var{$arg3} is the computed result.
This probe is triggered when the @code{sin} function is called with an
input that results in multiple precision computation with precision
32. Argument @var{$arg1} is the input to the function, @var{$arg2} is
the error bound of @var{$arg1} and @var{$arg3} is the computed result.
@end deftp
@deftp Probe slowcos_dx (double @var{$arg1}, double @var{$arg2}, double @var{$arg3})
This probe is hit when the @code{cos} function is called with an input that
results in multiple precision computation with precision 32. Argument
@var{$arg1} is the input to the function, @var{$arg2} is the error bound of
@var{$arg1} and @var{$arg3} is the computed result.
This probe is triggered when the @code{cos} function is called with an
input that results in multiple precision computation with precision
32. Argument @var{$arg1} is the input to the function, @var{$arg2} is
the error bound of @var{$arg1} and @var{$arg3} is the computed result.
@end deftp
@node Non-local Goto Probes