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1998-12-12  Andreas Schwab  <schwab@issan.cs.uni-dortmund.de>
	* timezone/Makefile: Protect inclusion of z.* by avoid-generated
	and inhibit_timezone_rules instead of no_deps.
	* Make-dist: Pass inhibit_timezone_rules=t when making
	echo-distinfo.
 
1998-12-12  Andreas Schwab  <schwab@issan.cs.uni-dortmund.de>
 
	* manual/Makefile (distribute): Remove dir-add.texinfo.
 
	* sysdeps/unix/sysv/linux/powerpc/Dist: Add sys/procfs.h and
	sys/user.h.
 
1998-12-11  Andreas Schwab  <schwab@issan.cs.uni-dortmund.de>
 
	* manual/Makefile (stamp-summary): Use ^L as separator for
	sorting.
	* manual/arith.texi: Add comments before all @deffoox lines to get
	them added to the summary.
	* manual/creature.texi: Likewise.
	* manual/math.texi: Likewise.
 
1998-12-13  Andreas Jaeger  <aj@arthur.rhein-neckar.de>
 
	* math/libm-test.c: Remove macro ISINF.  Change all usages of
	ISINF to isinf.
1998-12-13  Andreas Jaeger  <aj@arthur.rhein-neckar.de>
	* sysdeps/alpha/fpu/fsetexcptflg.c: Avoid -Wparentheses warning.
	* sysdeps/libm-ieee754/s_expm1.c (__expm1): Avoid -Wparentheses
	warning.
	* sysdeps/libm-ieee754/s_log1p.c (__log1p): Likewise.
	* sysdeps/libm-ieee754/e_logf.c (__ieee754_logf): Likewise.
	* sysdeps/libm-ieee754/s_expm1f.c (__expm1f): Likewise.
	* sysdeps/libm-ieee754/e_log.c (__ieee754_log): Likewise.
	* sysdeps/libm-ieee754/s_log1pf.c (__log1pf): Likewise.

1998-12-13  Andreas Jaeger  <aj@arthur.rhein-neckar.de>
	* sunrpc/svc_udp.c (svcudp_bufcreate): Declare len as socklen_t.
	(svcudp_recv): Likewise.
1998-12-13  Thorsten Kukuk  <kukuk@vt.uni-paderborn.de>
	* nis/nss-nisplus.h: Change some mappings of NIS+ errors to
	NSS error codes to avoid endless loops.
1998-12-12  Geoff Keating  <geoffk@ozemail.com.au>
	* posix/fnmatch.c (fnmatch): Arguments to FOLD must not have
	side-effects.
This commit is contained in:
Ulrich Drepper 1998-12-14 09:14:02 +00:00
parent e3743e2ffd
commit 4260bc7454
10 changed files with 462 additions and 25 deletions
Show Stats Download Patch File Download Diff File Expand all files Collapse all files

65
ChangeLog
View File

@ -1,7 +1,30 @@
1998-12-13 Andreas Jaeger <aj@arthur.rhein-neckar.de>
1998-12-12 Andreas Schwab <schwab@issan.cs.uni-dortmund.de>
* math/libm-test.c: Remove macro ISINF. Change all usages of
ISINF to isinf.
* timezone/Makefile: Protect inclusion of z.* by avoid-generated
and inhibit_timezone_rules instead of no_deps.
* Make-dist: Pass inhibit_timezone_rules=t when making
echo-distinfo.
1998-12-12 Andreas Schwab <schwab@issan.cs.uni-dortmund.de>
* manual/Makefile (distribute): Remove dir-add.texinfo.
* sysdeps/unix/sysv/linux/powerpc/Dist: Add sys/procfs.h and
sys/user.h.
1998-12-11 Andreas Schwab <schwab@issan.cs.uni-dortmund.de>
* manual/Makefile (stamp-summary): Use ^L as separator for
sorting.
* manual/arith.texi: Add comments before all @deffoox lines to get
them added to the summary.
* manual/creature.texi: Likewise.
* manual/math.texi: Likewise.
1998-12-13 Andreas Jaeger <aj@arthur.rhein-neckar.de>
* math/libm-test.c: Remove macro ISINF. Change all usages of
ISINF to isinf.
1998-12-13 Ulrich Drepper <drepper@cygnus.com>
@ -15,37 +38,37 @@
* string/stratcliff.c: Use MAP_ANON instead of MAP_ANONYMOUS.
Patch by UCHIYAMA Yasushi <uch@nop.or.jp>.
1998-12-13 Andreas Jaeger <aj@arthur.rhein-neckar.de>
1998-12-13 Andreas Jaeger <aj@arthur.rhein-neckar.de>
* sysdeps/alpha/fpu/fsetexcptflg.c: Avoid -Wparentheses warning.
* sysdeps/alpha/fpu/fsetexcptflg.c: Avoid -Wparentheses warning.
* sysdeps/libm-ieee754/s_expm1.c (__expm1): Avoid -Wparentheses
warning.
* sysdeps/libm-ieee754/s_log1p.c (__log1p): Likewise.
* sysdeps/libm-ieee754/e_logf.c (__ieee754_logf): Likewise.
* sysdeps/libm-ieee754/s_expm1f.c (__expm1f): Likewise.
* sysdeps/libm-ieee754/e_log.c (__ieee754_log): Likewise.
* sysdeps/libm-ieee754/s_log1pf.c (__log1pf): Likewise.
* sysdeps/libm-ieee754/s_expm1.c (__expm1): Avoid -Wparentheses
warning.
* sysdeps/libm-ieee754/s_log1p.c (__log1p): Likewise.
* sysdeps/libm-ieee754/e_logf.c (__ieee754_logf): Likewise.
* sysdeps/libm-ieee754/s_expm1f.c (__expm1f): Likewise.
* sysdeps/libm-ieee754/e_log.c (__ieee754_log): Likewise.
* sysdeps/libm-ieee754/s_log1pf.c (__log1pf): Likewise.
1998-12-13 Andreas Jaeger <aj@arthur.rhein-neckar.de>
1998-12-13 Andreas Jaeger <aj@arthur.rhein-neckar.de>
* sunrpc/svc_udp.c (svcudp_bufcreate): Declare len as socklen_t.
(svcudp_recv): Likewise.
* sunrpc/svc_udp.c (svcudp_bufcreate): Declare len as socklen_t.
(svcudp_recv): Likewise.
1998-12-13 Thorsten Kukuk <kukuk@vt.uni-paderborn.de>
1998-12-13 Thorsten Kukuk <kukuk@vt.uni-paderborn.de>
* nis/nss-nisplus.h: Change some mappings of NIS+ errors to
NSS error codes to avoid endless loops.
* nis/nss-nisplus.h: Change some mappings of NIS+ errors to
NSS error codes to avoid endless loops.
1998-12-13 Ulrich Drepper <drepper@cygnus.com>
* iconvdata/gconv-modules: Correct aliases for ISO-8859-13 and add
aliases for ISO-8859-14.
1998-12-12 Geoff Keating <geoffk@ozemail.com.au>
1998-12-12 Geoff Keating <geoffk@ozemail.com.au>
* posix/fnmatch.c (fnmatch): Arguments to FOLD must not have
side-effects.
* posix/fnmatch.c (fnmatch): Arguments to FOLD must not have
side-effects.
1998-12-12 Ulrich Drepper <drepper@cygnus.com>

1
Make-dist
View File

@ -65,6 +65,7 @@ all-headers = $(filter-out $(sysdep_headers),$(headers))
else
+distinfo := $(shell MAKEFLAGS= MFLAGS= $(MAKE) -s no_deps=t \
inhibit_interface_rules=t inhibit_mach_syscalls=t \
inhibit_timezone_rules=t \
subdirs='$(subdirs)' echo-distinfo | grep -v '^make')
foo:=$(shell echo>&2 '+distinfo=$(+distinfo)')
all-headers := $(patsubst +header+%,%,$(filter +header+%,$(+distinfo)))

5
linuxthreads/ChangeLog
View File

@ -1,3 +1,8 @@
1998-12-14 Ulrich Drepper <drepper@cygnus.com>
* Examples/ex6.c: Unbuffer stdout and reduce sleep time to reduce
overall runtime.
1998-12-13 Ulrich Drepper <drepper@cygnus.com>
* Examples/ex3.c: Wait until all threads are started before

4
linuxthreads/Examples/ex6.c
View File

@ -15,6 +15,8 @@ main (void)
{
unsigned long count;
setvbuf (stdout, NULL, _IONBF, 0);
for (count = 0; count < 2000; ++count)
{
pthread_t thread;
@ -33,7 +35,7 @@ main (void)
}
/* pthread_detach (thread); */
pthread_join (thread, NULL);
usleep (50);
usleep (10);
}
return 0;
}

4
manual/Makefile
View File

@ -74,7 +74,7 @@ libc.dvi: texinfo.tex
# Generate the summary from the Texinfo source files for each chapter.
summary.texi: stamp-summary ;
stamp-summary: summary.awk $(filter-out summary.texi, $(texis))
$(AWK) -f $^ | sort -df +1 -2 | tr '\014' '\012' > summary-tmp
$(AWK) -f $^ | sort -t ' ' -df +0 -1 | tr '\014' '\012' > summary-tmp
$(move-if-change) summary-tmp summary.texi
touch $@
@ -111,7 +111,7 @@ minimal-dist = summary.awk texis.awk libc-texinfo.sh libc.texinfo \
doc-only-dist = Makefile COPYING.LIB
distribute = $(minimal-dist) $(examples) texis stdio-fp.c \
libc.info* libc.?? libc.??s texinfo.tex stamp-summary \
xtract-typefun.awk dir-add.texinfo dir-add.info dir \
xtract-typefun.awk dir-add.info dir \
chapters.texi top-menu.texi summary.texi
export distribute := $(distribute)

166
manual/arith.texi
View File

@ -152,7 +152,11 @@ not have to worry about the type of their argument.
@comment math.h
@comment BSD
@deftypefun int isinf (double @var{x})
@comment math.h
@comment BSD
@deftypefunx int isinff (float @var{x})
@comment math.h
@comment BSD
@deftypefunx int isinfl (long double @var{x})
This function returns @code{-1} if @var{x} represents negative infinity,
@code{1} if @var{x} represents positive infinity, and @code{0} otherwise.
@ -161,7 +165,11 @@ This function returns @code{-1} if @var{x} represents negative infinity,
@comment math.h
@comment BSD
@deftypefun int isnan (double @var{x})
@comment math.h
@comment BSD
@deftypefunx int isnanf (float @var{x})
@comment math.h
@comment BSD
@deftypefunx int isnanl (long double @var{x})
This function returns a nonzero value if @var{x} is a ``not a number''
value, and zero otherwise.
@ -179,7 +187,11 @@ function for some reason, you can write
@comment math.h
@comment BSD
@deftypefun int finite (double @var{x})
@comment math.h
@comment BSD
@deftypefunx int finitef (float @var{x})
@comment math.h
@comment BSD
@deftypefunx int finitel (long double @var{x})
This function returns a nonzero value if @var{x} is finite or a ``not a
number'' value, and zero otherwise.
@ -566,7 +578,11 @@ to test for overflow on both old and new hardware.
@comment math.h
@comment ISO
@deftypevr Macro double HUGE_VAL
@comment math.h
@comment ISO
@deftypevrx Macro float HUGE_VALF
@comment math.h
@comment ISO
@deftypevrx Macro {long double} HUGE_VALL
An expression representing a particular very large number. On machines
that use @w{IEEE 754} floating point format, @code{HUGE_VAL} is infinity.
@ -816,7 +832,11 @@ Prototypes for @code{abs}, @code{labs} and @code{llabs} are in @file{stdlib.h};
@comment stdlib.h
@comment ISO
@deftypefun int abs (int @var{number})
@comment stdlib.h
@comment ISO
@deftypefunx {long int} labs (long int @var{number})
@comment stdlib.h
@comment ISO
@deftypefunx {long long int} llabs (long long int @var{number})
These functions return the absolute value of @var{number}.
@ -830,7 +850,11 @@ cannot be represented; thus, @w{@code{abs (INT_MIN)}} is not defined.
@comment math.h
@comment ISO
@deftypefun double fabs (double @var{number})
@comment math.h
@comment ISO
@deftypefunx float fabsf (float @var{number})
@comment math.h
@comment ISO
@deftypefunx {long double} fabsl (long double @var{number})
This function returns the absolute value of the floating-point number
@var{number}.
@ -839,7 +863,11 @@ This function returns the absolute value of the floating-point number
@comment complex.h
@comment ISO
@deftypefun double cabs (complex double @var{z})
@comment complex.h
@comment ISO
@deftypefunx float cabsf (complex float @var{z})
@comment complex.h
@comment ISO
@deftypefunx {long double} cabsl (complex long double @var{z})
These functions return the absolute value of the complex number @var{z}
(@pxref{Complex Numbers}). The absolute value of a complex number is:
@ -872,7 +900,11 @@ All these functions are declared in @file{math.h}.
@comment math.h
@comment ISO
@deftypefun double frexp (double @var{value}, int *@var{exponent})
@comment math.h
@comment ISO
@deftypefunx float frexpf (float @var{value}, int *@var{exponent})
@comment math.h
@comment ISO
@deftypefunx {long double} frexpl (long double @var{value}, int *@var{exponent})
These functions are used to split the number @var{value}
into a normalized fraction and an exponent.
@ -893,7 +925,11 @@ zero is stored in @code{*@var{exponent}}.
@comment math.h
@comment ISO
@deftypefun double ldexp (double @var{value}, int @var{exponent})
@comment math.h
@comment ISO
@deftypefunx float ldexpf (float @var{value}, int @var{exponent})
@comment math.h
@comment ISO
@deftypefunx {long double} ldexpl (long double @var{value}, int @var{exponent})
These functions return the result of multiplying the floating-point
number @var{value} by 2 raised to the power @var{exponent}. (It can
@ -909,7 +945,11 @@ equivalent to those of @code{ldexp} and @code{frexp}.
@comment math.h
@comment BSD
@deftypefun double logb (double @var{x})
@comment math.h
@comment BSD
@deftypefunx float logbf (float @var{x})
@comment math.h
@comment BSD
@deftypefunx {long double} logbl (long double @var{x})
These functions return the integer part of the base-2 logarithm of
@var{x}, an integer value represented in type @code{double}. This is
@ -931,7 +971,11 @@ the value that @code{frexp} would store into @code{*@var{exponent}}.
@comment math.h
@comment BSD
@deftypefun double scalb (double @var{value}, int @var{exponent})
@comment math.h
@comment BSD
@deftypefunx float scalbf (float @var{value}, int @var{exponent})
@comment math.h
@comment BSD
@deftypefunx {long double} scalbl (long double @var{value}, int @var{exponent})
The @code{scalb} function is the BSD name for @code{ldexp}.
@end deftypefun
@ -939,7 +983,11 @@ The @code{scalb} function is the BSD name for @code{ldexp}.
@comment math.h
@comment BSD
@deftypefun {long long int} scalbn (double @var{x}, int n)
@comment math.h
@comment BSD
@deftypefunx {long long int} scalbnf (float @var{x}, int n)
@comment math.h
@comment BSD
@deftypefunx {long long int} scalbnl (long double @var{x}, int n)
@code{scalbn} is identical to @code{scalb}, except that the exponent
@var{n} is an @code{int} instead of a floating-point number.
@ -948,7 +996,11 @@ The @code{scalb} function is the BSD name for @code{ldexp}.
@comment math.h
@comment BSD
@deftypefun {long long int} scalbln (double @var{x}, long int n)
@comment math.h
@comment BSD
@deftypefunx {long long int} scalblnf (float @var{x}, long int n)
@comment math.h
@comment BSD
@deftypefunx {long long int} scalblnl (long double @var{x}, long int n)
@code{scalbln} is identical to @code{scalb}, except that the exponent
@var{n} is a @code{long int} instead of a floating-point number.
@ -957,7 +1009,11 @@ The @code{scalb} function is the BSD name for @code{ldexp}.
@comment math.h
@comment BSD
@deftypefun {long long int} significand (double @var{x})
@comment math.h
@comment BSD
@deftypefunx {long long int} significandf (float @var{x})
@comment math.h
@comment BSD
@deftypefunx {long long int} significandl (long double @var{x})
@code{significand} returns the mantissa of @var{x} scaled to the range
@math{[1, 2)}.
@ -987,7 +1043,11 @@ result as a @code{double} instead to get around this problem.
@comment math.h
@comment ISO
@deftypefun double ceil (double @var{x})
@comment math.h
@comment ISO
@deftypefunx float ceilf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} ceill (long double @var{x})
These functions round @var{x} upwards to the nearest integer,
returning that value as a @code{double}. Thus, @code{ceil (1.5)}
@ -997,7 +1057,11 @@ is @code{2.0}.
@comment math.h
@comment ISO
@deftypefun double floor (double @var{x})
@comment math.h
@comment ISO
@deftypefunx float floorf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} floorl (long double @var{x})
These functions round @var{x} downwards to the nearest
integer, returning that value as a @code{double}. Thus, @code{floor
@ -1007,7 +1071,11 @@ integer, returning that value as a @code{double}. Thus, @code{floor
@comment math.h
@comment ISO
@deftypefun double trunc (double @var{x})
@comment math.h
@comment ISO
@deftypefunx float truncf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} truncl (long double @var{x})
@code{trunc} is another name for @code{floor}
@end deftypefun
@ -1015,7 +1083,11 @@ integer, returning that value as a @code{double}. Thus, @code{floor
@comment math.h
@comment ISO
@deftypefun double rint (double @var{x})
@comment math.h
@comment ISO
@deftypefunx float rintf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} rintl (long double @var{x})
These functions round @var{x} to an integer value according to the
current rounding mode. @xref{Floating Point Parameters}, for
@ -1031,7 +1103,11 @@ inexact exception.
@comment math.h
@comment ISO
@deftypefun double nearbyint (double @var{x})
@comment math.h
@comment ISO
@deftypefunx float nearbyintf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} nearbyintl (long double @var{x})
These functions return the same value as the @code{rint} functions, but
do not raise the inexact exception if @var{x} is not an integer.
@ -1040,7 +1116,11 @@ do not raise the inexact exception if @var{x} is not an integer.
@comment math.h
@comment ISO
@deftypefun double round (double @var{x})
@comment math.h
@comment ISO
@deftypefunx float roundf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} roundl (long double @var{x})
These functions are similar to @code{rint}, but they round halfway
cases away from zero instead of to the nearest even integer.
@ -1049,7 +1129,11 @@ cases away from zero instead of to the nearest even integer.
@comment math.h
@comment ISO
@deftypefun {long int} lrint (double @var{x})
@comment math.h
@comment ISO
@deftypefunx {long int} lrintf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long int} lrintl (long double @var{x})
These functions are just like @code{rint}, but they return a
@code{long int} instead of a floating-point number.
@ -1058,7 +1142,11 @@ These functions are just like @code{rint}, but they return a
@comment math.h
@comment ISO
@deftypefun {long long int} llrint (double @var{x})
@comment math.h
@comment ISO
@deftypefunx {long long int} llrintf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long long int} llrintl (long double @var{x})
These functions are just like @code{rint}, but they return a
@code{long long int} instead of a floating-point number.
@ -1067,7 +1155,11 @@ These functions are just like @code{rint}, but they return a
@comment math.h
@comment ISO
@deftypefun {long int} lround (double @var{x})
@comment math.h
@comment ISO
@deftypefunx {long int} lroundf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long int} lroundl (long double @var{x})
These functions are just like @code{round}, but they return a
@code{long int} instead of a floating-point number.
@ -1076,7 +1168,11 @@ These functions are just like @code{round}, but they return a
@comment math.h
@comment ISO
@deftypefun {long long int} llround (double @var{x})
@comment math.h
@comment ISO
@deftypefunx {long long int} llroundf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long long int} llroundl (long double @var{x})
These functions are just like @code{round}, but they return a
@code{long long int} instead of a floating-point number.
@ -1086,7 +1182,11 @@ These functions are just like @code{round}, but they return a
@comment math.h
@comment ISO
@deftypefun double modf (double @var{value}, double *@var{integer-part})
@comment math.h
@comment ISO
@deftypefunx float modff (float @var{value}, float *@var{integer-part})
@comment math.h
@comment ISO
@deftypefunx {long double} modfl (long double @var{value}, long double *@var{integer-part})
These functions break the argument @var{value} into an integer part and a
fractional part (between @code{-1} and @code{1}, exclusive). Their sum
@ -1108,7 +1208,11 @@ suits your problem.
@comment math.h
@comment ISO
@deftypefun double fmod (double @var{numerator}, double @var{denominator})
@comment math.h
@comment ISO
@deftypefunx float fmodf (float @var{numerator}, float @var{denominator})
@comment math.h
@comment ISO
@deftypefunx {long double} fmodl (long double @var{numerator}, long double @var{denominator})
These functions compute the remainder from the division of
@var{numerator} by @var{denominator}. Specifically, the return value is
@ -1126,7 +1230,11 @@ If @var{denominator} is zero, @code{fmod} signals a domain error.
@comment math.h
@comment BSD
@deftypefun double drem (double @var{numerator}, double @var{denominator})
@comment math.h
@comment BSD
@deftypefunx float dremf (float @var{numerator}, float @var{denominator})
@comment math.h
@comment BSD
@deftypefunx {long double} dreml (long double @var{numerator}, long double @var{denominator})
These functions are like @code{fmod} except that they rounds the
internal quotient @var{n} to the nearest integer instead of towards zero
@ -1145,7 +1253,11 @@ If @var{denominator} is zero, @code{drem} signals a domain error.
@comment math.h
@comment BSD
@deftypefun double remainder (double @var{numerator}, double @var{denominator})
@comment math.h
@comment BSD
@deftypefunx float remainderf (float @var{numerator}, float @var{denominator})
@comment math.h
@comment BSD
@deftypefunx {long double} remainderl (long double @var{numerator}, long double @var{denominator})
This function is another name for @code{drem}.
@end deftypefun
@ -1162,7 +1274,11 @@ bits.
@comment math.h
@comment ISO
@deftypefun double copysign (double @var{x}, double @var{y})
@comment math.h
@comment ISO
@deftypefunx float copysignf (float @var{x}, float @var{y})
@comment math.h
@comment ISO
@deftypefunx {long double} copysignl (long double @var{x}, long double @var{y})
These functions return @var{x} but with the sign of @var{y}. They work
even if @var{x} or @var{y} are NaN or zero. Both of these can carry a
@ -1191,7 +1307,11 @@ false, but @code{signbit (-0.0)} will return a nonzero value.
@comment math.h
@comment ISO
@deftypefun double nextafter (double @var{x}, double @var{y})
@comment math.h
@comment ISO
@deftypefunx float nextafterf (float @var{x}, float @var{y})
@comment math.h
@comment ISO
@deftypefunx {long double} nextafterl (long double @var{x}, long double @var{y})
The @code{nextafter} function returns the next representable neighbor of
@var{x} in the direction towards @var{y}. The size of the step between
@ -1210,7 +1330,11 @@ recommended functions in @w{IEEE 754}/@w{IEEE 854}).
@comment math.h
@comment ISO
@deftypefun {long long int} nextafterx (double @var{x}, long double @var{y})
@comment math.h
@comment ISO
@deftypefunx {long long int} nextafterxf (float @var{x}, long double @var{y})
@comment math.h
@comment ISO
@deftypefunx {long long int} nextafterxl (long double @var{x}, long double @var{y})
These functions are identical to the corresponding versions of
@code{nextafter} except that their second argument is a @code{long
@ -1221,7 +1345,11 @@ double}.
@comment math.h
@comment ISO
@deftypefun double nan (const char *@var{tagp})
@comment math.h
@comment ISO
@deftypefunx float nanf (const char *@var{tagp})
@comment math.h
@comment ISO
@deftypefunx {long double} nanl (const char *@var{tagp})
The @code{nan} function returns a representation of NaN, provided that
NaN is supported by the target platform.
@ -1328,7 +1456,11 @@ perform these operations faster than the equivalent C code.
@comment math.h
@comment ISO
@deftypefun double fmin (double @var{x}, double @var{y})
@comment math.h
@comment ISO
@deftypefunx float fminf (float @var{x}, float @var{y})
@comment math.h
@comment ISO
@deftypefunx {long double} fminl (long double @var{x}, long double @var{y})
The @code{fmin} function returns the lesser of the two values @var{x}
and @var{y}. It is similar to the expression
@ -1344,7 +1476,11 @@ are NaN, NaN is returned.
@comment math.h
@comment ISO
@deftypefun double fmax (double @var{x}, double @var{y})
@comment math.h
@comment ISO
@deftypefunx float fmaxf (float @var{x}, float @var{y})
@comment math.h
@comment ISO
@deftypefunx {long double} fmaxl (long double @var{x}, long double @var{y})
The @code{fmax} function returns the greater of the two values @var{x}
and @var{y}.
@ -1356,7 +1492,11 @@ are NaN, NaN is returned.
@comment math.h
@comment ISO
@deftypefun double fdim (double @var{x}, double @var{y})
@comment math.h
@comment ISO
@deftypefunx float fdimf (float @var{x}, float @var{y})
@comment math.h
@comment ISO
@deftypefunx {long double} fdiml (long double @var{x}, long double @var{y})
The @code{fdim} function returns the positive difference between
@var{x} and @var{y}. The positive difference is @math{@var{x} -
@ -1368,7 +1508,11 @@ If @var{x}, @var{y}, or both are NaN, NaN is returned.
@comment math.h
@comment ISO
@deftypefun double fma (double @var{x}, double @var{y}, double @var{z})
@comment math.h
@comment ISO
@deftypefunx float fmaf (float @var{x}, float @var{y}, float @var{z})
@comment math.h
@comment ISO
@deftypefunx {long double} fmal (long double @var{x}, long double @var{y}, long double @var{z})
@cindex butterfly
The @code{fma} function performs floating-point multiply-add. This is
@ -1494,7 +1638,11 @@ available in three variants, one for each of the three complex types.
@comment complex.h
@comment ISO
@deftypefun double creal (complex double @var{z})
@comment complex.h
@comment ISO
@deftypefunx float crealf (complex float @var{z})
@comment complex.h
@comment ISO
@deftypefunx {long double} creall (complex long double @var{z})
These functions return the real part of the complex number @var{z}.
@end deftypefun
@ -1502,7 +1650,11 @@ These functions return the real part of the complex number @var{z}.
@comment complex.h
@comment ISO
@deftypefun double cimag (complex double @var{z})
@comment complex.h
@comment ISO
@deftypefunx float cimagf (complex float @var{z})
@comment complex.h
@comment ISO
@deftypefunx {long double} cimagl (complex long double @var{z})
These functions return the imaginary part of the complex number @var{z}.
@end deftypefun
@ -1510,7 +1662,11 @@ These functions return the imaginary part of the complex number @var{z}.
@comment complex.h
@comment ISO
@deftypefun {complex double} conj (complex double @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex float} conjf (complex float @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex long double} conjl (complex long double @var{z})
These functions return the conjugate value of the complex number
@var{z}. The conjugate of a complex number has the same real part and a
@ -1520,7 +1676,11 @@ negated imaginary part. In other words, @samp{conj(a + bi) = a + -bi}.
@comment complex.h
@comment ISO
@deftypefun double carg (complex double @var{z})
@comment complex.h
@comment ISO
@deftypefunx float cargf (complex float @var{z})
@comment complex.h
@comment ISO
@deftypefunx {long double} cargl (complex long double @var{z})
These functions return the argument of the complex number @var{z}.
The argument of a complex number is the angle in the complex plane
@ -1534,7 +1694,11 @@ to @math{2@pi{}}.
@comment complex.h
@comment ISO
@deftypefun {complex double} cproj (complex double @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex float} cprojf (complex float @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex long double} cprojl (complex long double @var{z})
These functions return the projection of the complex value @var{z} onto
the Riemann sphere. Values with a infinite imaginary part are projected
@ -1952,6 +2116,8 @@ examining @var{errno} and @var{tailptr}.
@comment stdlib.h
@comment GNU
@deftypefun float strtof (const char *@var{string}, char **@var{tailptr})
@comment stdlib.h
@comment GNU
@deftypefunx {long double} strtold (const char *@var{string}, char **@var{tailptr})
These functions are analogous to @code{strtod}, but return @code{float}
and @code{long double} values respectively. They report errors in the

2
manual/creature.texi
View File

@ -112,6 +112,8 @@ included as well as the @w{ISO C}, POSIX.1, POSIX.2, and X/Open material.
@comment (none)
@comment X/Open
@defvr Macro _XOPEN_SOURCE
@comment (none)
@comment X/Open
@defvrx Macro _XOPEN_SOURCE_EXTENDED
If you define this macro, functionality described in the X/Open
Portability Guide is included. This is a superset of the POSIX.1 and

234
manual/math.texi
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@ -150,7 +150,11 @@ You can also compute the value of pi with the expression @code{acos
@comment math.h
@comment ISO
@deftypefun double sin (double @var{x})
@comment math.h
@comment ISO
@deftypefunx float sinf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} sinl (long double @var{x})
These functions return the sine of @var{x}, where @var{x} is given in
radians. The return value is in the range @code{-1} to @code{1}.
@ -159,7 +163,11 @@ radians. The return value is in the range @code{-1} to @code{1}.
@comment math.h
@comment ISO
@deftypefun double cos (double @var{x})
@comment math.h
@comment ISO
@deftypefunx float cosf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} cosl (long double @var{x})
These functions return the cosine of @var{x}, where @var{x} is given in
radians. The return value is in the range @code{-1} to @code{1}.
@ -168,7 +176,11 @@ radians. The return value is in the range @code{-1} to @code{1}.
@comment math.h
@comment ISO
@deftypefun double tan (double @var{x})
@comment math.h
@comment ISO
@deftypefunx float tanf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} tanl (long double @var{x})
These functions return the tangent of @var{x}, where @var{x} is given in
radians.
@ -186,7 +198,11 @@ function to do that.
@comment math.h
@comment GNU
@deftypefun void sincos (double @var{x}, double *@var{sinx}, double *@var{cosx})
@comment math.h
@comment GNU
@deftypefunx void sincosf (float @var{x}, float *@var{sinx}, float *@var{cosx})
@comment math.h
@comment GNU
@deftypefunx void sincosl (long double @var{x}, long double *@var{sinx}, long double *@var{cosx})
These functions return the sine of @var{x} in @code{*@var{sinx}} and the
cosine of @var{x} in @code{*@var{cos}}, where @var{x} is given in
@ -210,7 +226,11 @@ the implementation.)
@comment complex.h
@comment ISO
@deftypefun {complex double} csin (complex double @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex float} csinf (complex float @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex long double} csinl (complex long double @var{z})
These functions return the complex sine of @var{z}.
The mathematical definition of the complex sine is
@ -226,7 +246,11 @@ $$\sin(z) = {1\over 2i} (e^{zi} - e^{-zi})$$
@comment complex.h
@comment ISO
@deftypefun {complex double} ccos (complex double @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex float} ccosf (complex float @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex long double} ccosl (complex long double @var{z})
These functions return the complex cosine of @var{z}.
The mathematical definition of the complex cosine is
@ -242,7 +266,11 @@ $$\cos(z) = {1\over 2} (e^{zi} + e^{-zi})$$
@comment complex.h
@comment ISO
@deftypefun {complex double} ctan (complex double @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex float} ctanf (complex float @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex long double} ctanl (complex long double @var{z})
These functions return the complex tangent of @var{z}.
The mathematical definition of the complex tangent is
@ -272,7 +300,11 @@ respectively.
@comment math.h
@comment ISO
@deftypefun double asin (double @var{x})
@comment math.h
@comment ISO
@deftypefunx float asinf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} asinl (long double @var{x})
These functions compute the arc sine of @var{x}---that is, the value whose
sine is @var{x}. The value is in units of radians. Mathematically,
@ -287,7 +319,11 @@ domain, @code{asin} signals a domain error.
@comment math.h
@comment ISO
@deftypefun double acos (double @var{x})
@comment math.h
@comment ISO
@deftypefunx float acosf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} acosl (long double @var{x})
These functions compute the arc cosine of @var{x}---that is, the value
whose cosine is @var{x}. The value is in units of radians.
@ -302,7 +338,11 @@ domain, @code{acos} signals a domain error.
@comment math.h
@comment ISO
@deftypefun double atan (double @var{x})
@comment math.h
@comment ISO
@deftypefunx float atanf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} atanl (long double @var{x})
These functions compute the arc tangent of @var{x}---that is, the value
whose tangent is @var{x}. The value is in units of radians.
@ -313,7 +353,11 @@ returned is the one between @code{-pi/2} and @code{pi/2} (inclusive).
@comment math.h
@comment ISO
@deftypefun double atan2 (double @var{y}, double @var{x})
@comment math.h
@comment ISO
@deftypefunx float atan2f (float @var{y}, float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} atan2l (long double @var{y}, long double @var{x})
This function computes the arc tangent of @var{y}/@var{x}, but the signs
of both arguments are used to determine the quadrant of the result, and
@ -337,7 +381,11 @@ If both @var{x} and @var{y} are zero, @code{atan2} returns zero.
@comment complex.h
@comment ISO
@deftypefun {complex double} casin (complex double @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex float} casinf (complex float @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex long double} casinl (complex long double @var{z})
These functions compute the complex arc sine of @var{z}---that is, the
value whose sine is @var{z}. The value returned is in radians.
@ -349,7 +397,11 @@ values of @var{z}.
@comment complex.h
@comment ISO
@deftypefun {complex double} cacos (complex double @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex float} cacosf (complex float @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex long double} cacosl (complex long double @var{z})
These functions compute the complex arc cosine of @var{z}---that is, the
value whose cosine is @var{z}. The value returned is in radians.
@ -362,7 +414,11 @@ values of @var{z}.
@comment complex.h
@comment ISO
@deftypefun {complex double} catan (complex double @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex float} catanf (complex float @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex long double} catanl (complex long double @var{z})
These functions compute the complex arc tangent of @var{z}---that is,
the value whose tangent is @var{z}. The value is in units of radians.
@ -378,7 +434,11 @@ the value whose tangent is @var{z}. The value is in units of radians.
@comment math.h
@comment ISO
@deftypefun double exp (double @var{x})
@comment math.h
@comment ISO
@deftypefunx float expf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} expl (long double @var{x})
These functions compute @code{e} (the base of natural logarithms) raised
to the power @var{x}.
@ -390,7 +450,11 @@ If the magnitude of the result is too large to be representable,
@comment math.h
@comment ISO
@deftypefun double exp2 (double @var{x})
@comment math.h
@comment ISO
@deftypefunx float exp2f (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} exp2l (long double @var{x})
These functions compute @code{2} raised to the power @var{x}.
Mathematically, @code{exp2 (x)} is the same as @code{exp (x * log (2))}.
@ -399,10 +463,20 @@ Mathematically, @code{exp2 (x)} is the same as @code{exp (x * log (2))}.
@comment math.h
@comment GNU
@deftypefun double exp10 (double @var{x})
@comment math.h
@comment GNU
@deftypefunx float exp10f (float @var{x})
@comment math.h
@comment GNU
@deftypefunx {long double} exp10l (long double @var{x})
@comment math.h
@comment GNU
@deftypefunx double pow10 (double @var{x})
@comment math.h
@comment GNU
@deftypefunx float pow10f (float @var{x})
@comment math.h
@comment GNU
@deftypefunx {long double} pow10l (long double @var{x})
These functions compute @code{10} raised to the power @var{x}.
Mathematically, @code{exp10 (x)} is the same as @code{exp (x * log (10))}.
@ -415,7 +489,11 @@ preferred, since it is analogous to @code{exp} and @code{exp2}.
@comment math.h
@comment ISO
@deftypefun double log (double @var{x})
@comment math.h
@comment ISO
@deftypefunx float logf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} logl (long double @var{x})
These functions compute the natural logarithm of @var{x}. @code{exp (log
(@var{x}))} equals @var{x}, exactly in mathematics and approximately in
@ -429,7 +507,11 @@ it may signal overflow.
@comment math.h
@comment ISO
@deftypefun double log10 (double @var{x})
@comment math.h
@comment ISO
@deftypefunx float log10f (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} log10l (long double @var{x})
These functions return the base-10 logarithm of @var{x}.
@code{log10 (@var{x})} equals @code{log (@var{x}) / log (10)}.
@ -439,7 +521,11 @@ These functions return the base-10 logarithm of @var{x}.
@comment math.h
@comment ISO
@deftypefun double log2 (double @var{x})
@comment math.h
@comment ISO
@deftypefunx float log2f (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} log2l (long double @var{x})
These functions return the base-2 logarithm of @var{x}.
@code{log2 (@var{x})} equals @code{log (@var{x}) / log (2)}.
@ -448,7 +534,11 @@ These functions return the base-2 logarithm of @var{x}.
@comment math.h
@comment ISO
@deftypefun double logb (double @var{x})
@comment math.h
@comment ISO
@deftypefunx float logbf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} logbl (long double @var{x})
These functions extract the exponent of @var{x} and return it as a
floating-point value. If @code{FLT_RADIX} is two, @code{logb} is equal
@ -463,7 +553,11 @@ negative), @code{logb} returns @math{@infinity{}}. If @var{x} is zero,
@comment math.h
@comment ISO
@deftypefun int ilogb (double @var{x})
@comment math.h
@comment ISO
@deftypefunx int ilogbf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx int ilogbl (long double @var{x})
These functions are equivalent to the corresponding @code{logb}
functions except that they return signed integer values.
@ -518,7 +612,11 @@ if (i == FP_ILOGB0 || i == FP_ILOGBNAN)
@comment math.h
@comment ISO
@deftypefun double pow (double @var{base}, double @var{power})
@comment math.h
@comment ISO
@deftypefunx float powf (float @var{base}, float @var{power})
@comment math.h
@comment ISO
@deftypefunx {long double} powl (long double @var{base}, long double @var{power})
These are general exponentiation functions, returning @var{base} raised
to @var{power}.
@ -533,7 +631,11 @@ underflow or overflow the destination type.
@comment math.h
@comment ISO
@deftypefun double sqrt (double @var{x})
@comment math.h
@comment ISO
@deftypefunx float sqrtf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} sqrtl (long double @var{x})
These functions return the nonnegative square root of @var{x}.
@ -545,7 +647,11 @@ Mathematically, it should return a complex number.
@comment math.h
@comment BSD
@deftypefun double cbrt (double @var{x})
@comment math.h
@comment BSD
@deftypefunx float cbrtf (float @var{x})
@comment math.h
@comment BSD
@deftypefunx {long double} cbrtl (long double @var{x})
These functions return the cube root of @var{x}. They cannot
fail; every representable real value has a representable real cube root.
@ -554,7 +660,11 @@ fail; every representable real value has a representable real cube root.
@comment math.h
@comment ISO
@deftypefun double hypot (double @var{x}, double @var{y})
@comment math.h
@comment ISO
@deftypefunx float hypotf (float @var{x}, float @var{y})
@comment math.h
@comment ISO
@deftypefunx {long double} hypotl (long double @var{x}, long double @var{y})
These functions return @code{sqrt (@var{x}*@var{x} +
@var{y}*@var{y})}. This is the length of the hypotenuse of a right
@ -567,7 +677,11 @@ much smaller. See also the function @code{cabs} in @ref{Absolute Value}.
@comment math.h
@comment ISO
@deftypefun double expm1 (double @var{x})
@comment math.h
@comment ISO
@deftypefunx float expm1f (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} expm1l (long double @var{x})
These functions return a value equivalent to @code{exp (@var{x}) - 1}.
They are computed in a way that is accurate even if @var{x} is
@ -578,7 +692,11 @@ to subtraction of two numbers that are nearly equal.
@comment math.h
@comment ISO
@deftypefun double log1p (double @var{x})
@comment math.h
@comment ISO
@deftypefunx float log1pf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} log1pl (long double @var{x})
These functions returns a value equivalent to @w{@code{log (1 + @var{x})}}.
They are computed in a way that is accurate even if @var{x} is
@ -594,7 +712,11 @@ logarithm functions.
@comment complex.h
@comment ISO
@deftypefun {complex double} cexp (complex double @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex float} cexpf (complex float @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex long double} cexpl (complex long double @var{z})
These functions return @code{e} (the base of natural
logarithms) raised to the power of @var{z}.
@ -611,7 +733,11 @@ $$\exp(z) = e^z = e^{{\rm Re}\,z} (\cos ({\rm Im}\,z) + i \sin ({\rm Im}\,z))$$
@comment complex.h
@comment ISO
@deftypefun {complex double} clog (complex double @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex float} clogf (complex float @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex long double} clogl (complex long double @var{z})
These functions return the natural logarithm of @var{z}.
Mathematically this corresponds to the value
@ -633,7 +759,11 @@ or is very close to 0. It is well-defined for all other values of
@comment complex.h
@comment GNU
@deftypefun {complex double} clog10 (complex double @var{z})
@comment complex.h
@comment GNU
@deftypefunx {complex float} clog10f (complex float @var{z})
@comment complex.h
@comment GNU
@deftypefunx {complex long double} clog10l (complex long double @var{z})
These functions return the base 10 logarithm of the complex value
@var{z}. Mathematically this corresponds to the value
@ -651,7 +781,11 @@ These functions are GNU extensions.
@comment complex.h
@comment ISO
@deftypefun {complex double} csqrt (complex double @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex float} csqrtf (complex float @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex long double} csqrtl (complex long double @var{z})
These functions return the complex square root of the argument @var{z}. Unlike
the real-valued functions, they are defined for all values of @var{z}.
@ -660,7 +794,11 @@ the real-valued functions, they are defined for all values of @var{z}.
@comment complex.h
@comment ISO
@deftypefun {complex double} cpow (complex double @var{base}, complex double @var{power})
@comment complex.h
@comment ISO
@deftypefunx {complex float} cpowf (complex float @var{base}, complex float @var{power})
@comment complex.h
@comment ISO
@deftypefunx {complex long double} cpowl (complex long double @var{base}, complex long double @var{power})
These functions return @var{base} raised to the power of
@var{power}. This is equivalent to @w{@code{cexp (y * clog (x))}}
@ -676,7 +814,11 @@ see @ref{Exponents and Logarithms}.
@comment math.h
@comment ISO
@deftypefun double sinh (double @var{x})
@comment math.h
@comment ISO
@deftypefunx float sinhf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} sinhl (long double @var{x})
These functions return the hyperbolic sine of @var{x}, defined
mathematically as @w{@code{(exp (@var{x}) - exp (-@var{x})) / 2}}. They
@ -686,7 +828,11 @@ may signal overflow if @var{x} is too large.
@comment math.h
@comment ISO
@deftypefun double cosh (double @var{x})
@comment math.h
@comment ISO
@deftypefunx float coshf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} coshl (long double @var{x})
These function return the hyperbolic cosine of @var{x},
defined mathematically as @w{@code{(exp (@var{x}) + exp (-@var{x})) / 2}}.
@ -696,7 +842,11 @@ They may signal overflow if @var{x} is too large.
@comment math.h
@comment ISO
@deftypefun double tanh (double @var{x})
@comment math.h
@comment ISO
@deftypefunx float tanhf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} tanhl (long double @var{x})
These functions return the hyperbolic tangent of @var{x},
defined mathematically as @w{@code{sinh (@var{x}) / cosh (@var{x})}}.
@ -711,7 +861,11 @@ complex arguments.
@comment complex.h
@comment ISO
@deftypefun {complex double} csinh (complex double @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex float} csinhf (complex float @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex long double} csinhl (complex long double @var{z})
These functions return the complex hyperbolic sine of @var{z}, defined
mathematically as @w{@code{(exp (@var{z}) - exp (-@var{z})) / 2}}.
@ -720,7 +874,11 @@ mathematically as @w{@code{(exp (@var{z}) - exp (-@var{z})) / 2}}.
@comment complex.h
@comment ISO
@deftypefun {complex double} ccosh (complex double @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex float} ccoshf (complex float @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex long double} ccoshl (complex long double @var{z})
These functions return the complex hyperbolic cosine of @var{z}, defined
mathematically as @w{@code{(exp (@var{z}) + exp (-@var{z})) / 2}}.
@ -729,7 +887,11 @@ mathematically as @w{@code{(exp (@var{z}) + exp (-@var{z})) / 2}}.
@comment complex.h
@comment ISO
@deftypefun {complex double} ctanh (complex double @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex float} ctanhf (complex float @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex long double} ctanhl (complex long double @var{z})
These functions return the complex hyperbolic tangent of @var{z},
defined mathematically as @w{@code{csinh (@var{z}) / ccosh (@var{z})}}.
@ -741,7 +903,11 @@ defined mathematically as @w{@code{csinh (@var{z}) / ccosh (@var{z})}}.
@comment math.h
@comment ISO
@deftypefun double asinh (double @var{x})
@comment math.h
@comment ISO
@deftypefunx float asinhf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} asinhl (long double @var{x})
These functions return the inverse hyperbolic sine of @var{x}---the
value whose hyperbolic sine is @var{x}.
@ -750,7 +916,11 @@ value whose hyperbolic sine is @var{x}.
@comment math.h
@comment ISO
@deftypefun double acosh (double @var{x})
@comment math.h
@comment ISO
@deftypefunx float acoshf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} acoshl (long double @var{x})
These functions return the inverse hyperbolic cosine of @var{x}---the
value whose hyperbolic cosine is @var{x}. If @var{x} is less than
@ -760,7 +930,11 @@ value whose hyperbolic cosine is @var{x}. If @var{x} is less than
@comment math.h
@comment ISO
@deftypefun double atanh (double @var{x})
@comment math.h
@comment ISO
@deftypefunx float atanhf (float @var{x})
@comment math.h
@comment ISO
@deftypefunx {long double} atanhl (long double @var{x})
These functions return the inverse hyperbolic tangent of @var{x}---the
value whose hyperbolic tangent is @var{x}. If the absolute value of
@ -773,7 +947,11 @@ if it is equal to 1, @code{atanh} returns infinity.
@comment complex.h
@comment ISO
@deftypefun {complex double} casinh (complex double @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex float} casinhf (complex float @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex long double} casinhl (complex long double @var{z})
These functions return the inverse complex hyperbolic sine of
@var{z}---the value whose complex hyperbolic sine is @var{z}.
@ -782,7 +960,11 @@ These functions return the inverse complex hyperbolic sine of
@comment complex.h
@comment ISO
@deftypefun {complex double} cacosh (complex double @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex float} cacoshf (complex float @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex long double} cacoshl (complex long double @var{z})
These functions return the inverse complex hyperbolic cosine of
@var{z}---the value whose complex hyperbolic cosine is @var{z}. Unlike
@ -792,7 +974,11 @@ the real-valued functions, there are no restrictions on the value of @var{z}.
@comment complex.h
@comment ISO
@deftypefun {complex double} catanh (complex double @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex float} catanhf (complex float @var{z})
@comment complex.h
@comment ISO
@deftypefunx {complex long double} catanhl (complex long double @var{z})
These functions return the inverse complex hyperbolic tangent of
@var{z}---the value whose complex hyperbolic tangent is @var{z}. Unlike
@ -812,7 +998,11 @@ useful. Currently they only have real-valued versions.
@comment math.h
@comment SVID
@deftypefun double erf (double @var{x})
@comment math.h
@comment SVID
@deftypefunx float erff (float @var{x})
@comment math.h
@comment SVID
@deftypefunx {long double} erfl (long double @var{x})
@code{erf} returns the error function of @var{x}. The error
function is defined as
@ -829,7 +1019,11 @@ erf (x) = 2/sqrt(pi) * integral from 0 to x of exp(-t^2) dt
@comment math.h
@comment SVID
@deftypefun double erfc (double @var{x})
@comment math.h
@comment SVID
@deftypefunx float erfcf (float @var{x})
@comment math.h
@comment SVID
@deftypefunx {long double} erfcl (long double @var{x})
@code{erfc} returns @code{1.0 - erf(@var{x})}, but computed in a
fashion that avoids round-off error when @var{x} is large.
@ -838,7 +1032,11 @@ fashion that avoids round-off error when @var{x} is large.
@comment math.h
@comment SVID
@deftypefun double lgamma (double @var{x})
@comment math.h
@comment SVID
@deftypefunx float lgammaf (float @var{x})
@comment math.h
@comment SVID
@deftypefunx {long double} lgammal (long double @var{x})
@code{lgamma} returns the natural logarithm of the absolute value of
the gamma function of @var{x}. The gamma function is defined as
@ -872,7 +1070,11 @@ singularity.
@comment math.h
@comment XPG
@deftypefun double lgamma_r (double @var{x}, int *@var{signp})
@comment math.h
@comment XPG
@deftypefunx float lgammaf_r (float @var{x}, int *@var{signp})
@comment math.h
@comment XPG
@deftypefunx {long double} lgammal_r (long double @var{x}, int *@var{signp})
@code{lgamma_r} is just like @code{lgamma}, but it stores the sign of
the intermediate result in the variable pointed to by @var{signp}
@ -882,7 +1084,11 @@ instead of in the @var{signgam} global.
@comment math.h
@comment SVID
@deftypefun double gamma (double @var{x})
@comment math.h
@comment SVID
@deftypefunx float gammaf (float @var{x})
@comment math.h
@comment SVID
@deftypefunx {long double} gammal (long double @var{x})
These functions exist for compatibility reasons. They are equivalent to
@code{lgamma} etc. It is better to use @code{lgamma} since for one the
@ -893,7 +1099,11 @@ standardized in @w{ISO C 9x} while @code{gamma} is not.
@comment math.h
@comment XPG
@deftypefun double tgamma (double @var{x})
@comment math.h
@comment XPG
@deftypefunx float tgammaf (float @var{x})
@comment math.h
@comment XPG
@deftypefunx {long double} tgammal (long double @var{x})
@code{tgamma} applies the gamma function to @var{x}. The gamma
function is defined as
@ -912,7 +1122,11 @@ This function was introduced in @w{ISO C 9x}.
@comment math.h
@comment SVID
@deftypefun double j0 (double @var{x})
@comment math.h
@comment SVID
@deftypefunx float j0f (float @var{x})
@comment math.h
@comment SVID
@deftypefunx {long double} j0l (long double @var{x})
@code{j0} returns the Bessel function of the first kind of order 0 of
@var{x}. It may signal underflow if @var{x} is too large.
@ -921,7 +1135,11 @@ This function was introduced in @w{ISO C 9x}.
@comment math.h
@comment SVID
@deftypefun double j1 (double @var{x})
@comment math.h
@comment SVID
@deftypefunx float j1f (float @var{x})
@comment math.h
@comment SVID
@deftypefunx {long double} j1l (long double @var{x})
@code{j1} returns the Bessel function of the first kind of order 1 of
@var{x}. It may signal underflow if @var{x} is too large.
@ -930,7 +1148,11 @@ This function was introduced in @w{ISO C 9x}.
@comment math.h
@comment SVID
@deftypefun double jn (int n, double @var{x})
@comment math.h
@comment SVID
@deftypefunx float jnf (int n, float @var{x})
@comment math.h
@comment SVID
@deftypefunx {long double} jnl (int n, long double @var{x})
@code{jn} returns the Bessel function of the first kind of order
@var{n} of @var{x}. It may signal underflow if @var{x} is too large.
@ -939,7 +1161,11 @@ This function was introduced in @w{ISO C 9x}.
@comment math.h
@comment SVID
@deftypefun double y0 (double @var{x})
@comment math.h
@comment SVID
@deftypefunx float y0f (float @var{x})
@comment math.h
@comment SVID
@deftypefunx {long double} y0l (long double @var{x})
@code{y0} returns the Bessel function of the second kind of order 0 of
@var{x}. It may signal underflow if @var{x} is too large. If @var{x}
@ -950,7 +1176,11 @@ is negative, @code{y0} signals a domain error; if it is zero,
@comment math.h
@comment SVID
@deftypefun double y1 (double @var{x})
@comment math.h
@comment SVID
@deftypefunx float y1f (float @var{x})
@comment math.h
@comment SVID
@deftypefunx {long double} y1l (long double @var{x})
@code{y1} returns the Bessel function of the second kind of order 1 of
@var{x}. It may signal underflow if @var{x} is too large. If @var{x}
@ -961,7 +1191,11 @@ is negative, @code{y1} signals a domain error; if it is zero,
@comment math.h
@comment SVID
@deftypefun double yn (int n, double @var{x})
@comment math.h
@comment SVID
@deftypefunx float ynf (int n, float @var{x})
@comment math.h
@comment SVID
@deftypefunx {long double} ynl (int n, long double @var{x})
@code{yn} returns the Bessel function of the second kind of order @var{n} of
@var{x}. It may signal underflow if @var{x} is too large. If @var{x}

2
sysdeps/unix/sysv/linux/powerpc/Dist
View File

@ -2,3 +2,5 @@ clone.S
kernel_stat.h
kernel_termios.h
init-first.h
sys/procfs.h
sys/user.h

4
timezone/Makefile
View File

@ -53,9 +53,11 @@ define nl
endef
ifndef no_deps
ifndef avoid-generated
ifndef inhibit_timezone_rules
-include $(addprefix $(objpfx)z.,$(tzfiles))
endif
endif
# Make these absolute file names.
installed-localtime-file := $(firstword $(filter /%,$(inst_localtime-file)) \