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gcc/libstdc++-v3/mkcheck.in
Benjamin Kosnik 990101f973 mkcheck.in (static_fail): Remove S_FLAG decoration on output.
2001-05-21  Benjamin Kosnik  <bkoz@redhat.com>

	* mkcheck.in (static_fail): Remove S_FLAG decoration on output.

	* include/bits/std_sstream.h (stringbuf::setbuf): Require both
	arguments to be non-null.
	* include/bits/fstream.tcc (filebuf::_M_allocate_buffers): Only
	try allocations if allocated size is greater than zero.
	(filebuf::_M_filebuf_init): Change to
	(filebuf::_M_allocate_file): Which is what it does now.
	(filebuf::_M_allocate_bufers): Change to
	(filebuf::_M_allocate_internal_buffer): This, and create
	(filebuf::_M_allocate_pback_buffer): New.
	(filebuf::_M_destroy_internal_buffer): New.
	(filebuf::_M_buf_allocated): New data member.
	(filebuf::setbuf): Use new logic, allow use of external buffer.
	* testsuite/27_io/stringbuf_virtuals.cc: New file.
	* testsuite/27_io/filebuf_virtuals.cc: New file.

From-SVN: r42458
2001-05-22 18:48:19 +00:00

454 lines
15 KiB
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Executable File

#!/usr/bin/env bash
# Script to do automated testing and data collection for various test
# files, so that we don't have to do this by hand on every test file.
# It attempts to collect some diagnostic info about size and speed that
# should be useful in the future as the library gets tuned for size
# and speed. In addition, it tests static and shared linkage, iff each
# has been enabled.
# Invocation
# mkcheck [01]
# 1: variables
#
# WHICH determines if you are
# (0) testing the build binary and headers, or
# (1) testing the installed binary and headers, or
WHICH=$1
if [ "$WHICH"x = 0x ]; then
echo "running mkcheck"
echo "$0: testing the build directory"
elif [ "$WHICH"x = 1x ]; then
echo "running mkcheck"
echo "$0: testing the install directory"
else
echo 'Usage: mkcheck 0 /* test the build directory */'
echo ' mkcheck 1 /* test the install directory */'
exit 1;
fi
# Now that we've successfully translated the numerical option into
# a symbolic one, we can safely ignore it.
shift
# This has been true all along. Found out about it the hard way...
case $BASH_VERSION in
1*) echo 'You need bash 2.x to run mkcheck. Exiting.'; exit 1 ;;
*) ;; # ??
esac
BUILD_DIR=@glibcpp_builddir@
SRC_DIR=@glibcpp_srcdir@
PREFIX_DIR=@glibcpp_prefixdir@
if [ "$WHICH"x = 0x ]; then
CXX=`$BUILD_DIR/testsuite_flags --build-cxx`
INCLUDES=`$BUILD_DIR/testsuite_flags --build-includes`
else
CXX=`$BUILD_DIR/testsuite_flags --install-cxx`
INCLUDES=`$BUILD_DIR/testsuite_flags --install-includes`
fi
CXXFLAGS=`$BUILD_DIR/testsuite_flags --cxxflags`
LIBTOOL="$BUILD_DIR/libtool"
LTEXE="$LIBTOOL --mode=execute"
#LTCXX="$LIBTOOL --tag=CXX --mode=link $CXX $CXXFLAGS $INCLUDES"
LTCXX="$CXX $CXXFLAGS $INCLUDES"
# specific libtool flag(s) to use shared libraries, if any
SH_FLAG="-Wl,--rpath -Wl,$BUILD_DIR/../../gcc -Wl,--rpath -Wl,$BUILD_DIR/src/.libs"
# specific libtool flag(s) to use static libraries, if any
ST_FLAG="-static"
#ST_FLAG="-all-static"
# Set up the testing directory, which should be in a directory called
# "testsuite" in the root level of the build directory.
TEST_DIR="$BUILD_DIR/testsuite"
# help libtool keep quiet
if [ ! -d ${TEST_DIR}/.libs ]; then
mkdir $TEST_DIR/.libs
fi
# the name of the file that will collect and hold all this useful data:
RESULTS_FILE="$TEST_DIR/$(date +%Y%m%d)-mkcheck.txt"
# the name of the log file that will append compiler diagnostics:
LOG_FILE="$TEST_DIR/$(date +%Y%m%d)-mkchecklog.txt"
# the names of the specific test files to be run
TESTS_FILE="$TEST_DIR/$(date +%Y%m%d)-mkcheckfiles.txt"
# the heap size and virtual mem limit for testsuite binaries
# See http://gcc.gnu.org/ml/libstdc++/2000-10/msg00029.html
MAX_MEM_USAGE=16384
#
# 2: clean, make files, append general test info
#
# Remove old executables.
rm -rf "$TEST_DIR"/*exe
rm -rf "$TEST_DIR"/compile.out
# Remove old core files (which now get left in cwd, not $TEST_DIR).
rm -rf ./*core*
if [ -f $RESULTS_FILE ]; then
rm $RESULTS_FILE
fi
if [ -f $LOG_FILE ]; then
rm $LOG_FILE
fi
# Make a list of the files we're going to run, or use an old one if it exists.
if [ ! -f "$TESTS_FILE" ]; then
echo "making file $TESTS_FILE"
for LONG_NAME in $SRC_DIR/testsuite/*/*.cc
do
DIR_NAME=$(dirname $LONG_NAME)
SHORT_NAME="`basename $DIR_NAME`/`basename $LONG_NAME`"
echo "$SHORT_NAME" >> $TESTS_FILE
done
fi
# Nasty solution to replace GNU date(1)'s %s time_t output function.
TIMER_COMMAND=$TEST_DIR/printnow.exe
if [ ! -x "$TIMER_COMMAND" ]; then
echo "making utility $TIMER_COMMAND"
gcc -o "$TIMER_COMMAND" "$SRC_DIR/testsuite/printnow.c"
strip "$TIMER_COMMAND"
fi
# Copy over the data files for filebufs
cp $SRC_DIR/testsuite/27_io/*.txt $TEST_DIR
cp $SRC_DIR/testsuite/27_io/*.tst $TEST_DIR
chmod u+w $TEST_DIR/*.txt
chmod u+w $TEST_DIR/*.tst
# Emit useful info about compiler and platform
echo "host: $(uname -mrsv)" >> $RESULTS_FILE
echo "compiler: $($CXX -v 2>&1)" >> $RESULTS_FILE
echo "compiler flags: $CXXFLAGS" >> $RESULTS_FILE
echo "date: $(date +%Y%m%d)" >> $RESULTS_FILE
echo "" >> $RESULTS_FILE
explanation='+: pass, -b: build failure, -r: run failure, x: disabled'
printf "%s\n %s\n" 'p == pass/fail execution test' "$explanation" \
>> $RESULTS_FILE
echo "ctime == time to compile and link" >> $RESULTS_FILE
echo "etime == time for executable to run" >> $RESULTS_FILE
echo "text == size of the executable text section" >> $RESULTS_FILE
echo "data == size of the executable data section" >> $RESULTS_FILE
echo "total == size of the executable" >> $RESULTS_FILE
echo "" >> $RESULTS_FILE
echo "p" | awk '{printf("%s ", $1)}' >> $RESULTS_FILE
echo "ctime" "etime" | awk '{printf("%s\t%s\t", $1, $2)}' >> $RESULTS_FILE
echo "text" "data" | awk '{printf("%s\t%s\t", $1, $2)}' >> $RESULTS_FILE
echo "total" "name" | awk '{printf("%s\t%s\t", $1, $2)}' >> $RESULTS_FILE
echo "" >> $RESULTS_FILE
# Counters. These could be members of an array, but they'd all have to
# become individuals anyhow if we ever change this script to super-portable sh.
shared_pass=0
shared_fail=0
static_pass=0
static_fail=0
#
# 2.5: support functions
#
# Figure out how to extract size information from binaries. We take
# the text of the value we want as an argument, and leave the size in
# the appropriate variable.
#
# We discover what kind of size(1) we are using *once* and build a shell
# function named 'size_command' to wrap it. (The "function" keyword is
# redundant here, but helps me read it, so there.) Previously we were
# re-discovering the size(1) arguments three times for each test; sloooow.
#
# It is VERY IMPORTANT not to compare these numbers across platforms.
# Different size(1)'s extract section information differently. For
# example, using the native Sun size(1) and GNU size(1) built for Suns
# on the exact same binary will give very different numbers, due to all
# the variance in command-line options and arbitrary names of ELF sections.
#
# and suddenly we go to 2-space indentations...
setup_size_command()
{
if size --version 2> /dev/null | grep -c GNU > /dev/null;
then # Then we're using a GNU size(1) built for this platform.
# We lose .rodata and .data1 and who knows what else... kludge.
function size_command()
{
case $1 in
TEXT) TEXT=$(size -B $EXENAME | tail -1 | awk '{print $1}') ;;
DATA) DATA=$(size -B $EXENAME | tail -1 | awk '{print $2}') ;;
SIZE) SIZE=$(size -B $EXENAME | tail -1 | awk '{print $4}') ;;
esac
}
else
# Not using GNU size; check for platform. These numbers seem to match
# up to text/data/total, although their meanings seem to be different.
# THIS TABLE IS SORTED. KEEP IT THAT WAY.
case @host_os@ in
*aix*)
function size_command()
{
case $1 in
TEXT) TEXT=$(size -X32_64 $EXENAME | awk '{print $2}') ;;
DATA) DATA=$(size -X32_64 $EXENAME | awk '{print $4}') ;;
SIZE) SIZE=$(size -X32_64 $EXENAME | awk '{print $12}') ;;
esac
}
;;
*hpux*)
function size_command()
{
case $1 in
TEXT) TEXT=$(size $EXENAME | awk '{print $1}') ;;
DATA) DATA=$(size $EXENAME | awk '{print $3}') ;;
SIZE) SIZE=$(size $EXENAME | awk '{print $7}') ;;
esac
}
;;
*irix*)
function size_command()
{
case $1 in
TEXT) TEXT=$(size -4 $EXENAME | awk '{print $1}') ;;
DATA) DATA=$(size -4 $EXENAME | awk '{print $3}') ;;
SIZE) SIZE=$(size -4 $EXENAME | awk '{print $7}') ;;
esac
}
;;
*solaris*)
function size_command()
{
case $1 in
TEXT) TEXT=$(size $EXENAME | awk '{print $1}') ;;
DATA) DATA=$(size $EXENAME | awk '{print $3}') ;;
SIZE) SIZE=$(size $EXENAME | awk '{print $7}') ;;
esac
}
;;
*)
echo ' * Warning! Skipping section sizes!' 1>&2
function size_command()
{
case $1 in
TEXT) TEXT=0 ;;
DATA) DATA=0 ;;
SIZE) SIZE=0 ;;
esac
}
;;
esac
fi
}
# Test for file output
test_for_output()
{
# This checks for emitted output files, which is useful when
# testing file-related output. The rules for this working are as
# follows: the emitted file must have the ".txt" extension, and be
# based on the actual *.cc file's name. For example, 27/filbuf.cc
# currently outputs files named 27/filebuf-2.txt and 27/filebuf-3.txt.
# Also, the first emitted file must be in the form $NAME-1.txt.
# The control file must follow the same constraints, but have a
# ".tst" extension. Thus, you have 27/filebuf-2.tst, etc.
# NAME contains the source name, like 27/filebuf.cc
# From that NAME, we want to generate some possible names, using
# ls on MATCH, a pattern description generated with sed.
# this is the name of the resulting diff file, if any
DIFF_FILE="`echo $TEST_NAME | sed 's/cc$/diff/'`"
# construct wildcard names, ie for $NAME=filebuf.cc, makes "filebuf*.tst"
DATA_FILES="`echo $TEST_NAME | sed 's/\.cc/\*\.tst/g'`"
# make sure there is at least one, then go
ST_E="`echo $TEST_NAME | sed 's/\.cc/\-1\.tst/g'`"
if [ -f $ST_E ]; then
# list of actual files that match the wildcard above, ie
# "filebuf-1.tst"
ST_MATCH_LIST="`ls $DATA_FILES`"
for i in $ST_MATCH_LIST; do
# ST_OUT_FILE is generated in the build directory.
PRE_NAME2="$TEST_DIR/`basename $i`"
ST_OUT_FILE="`echo $PRE_NAME2 | sed 's/tst$/txt/'`"
diff $ST_OUT_FILE $i > $DIFF_FILE
if [ -s $DIFF_FILE ]; then
RESULT="-r"
else
RESULT="+"
fi
rm $DIFF_FILE
done
else
# the file does no output, and didn't abnormally
# terminate, so assume passed.
RESULT="+"
fi
}
#
# 3: compile, link, execute, time
#
# Abstract out the common code for compiling, linking, executing and printing.
test_file()
{
# NB: S_FLAG has to be last argument because it may be null, and
# error checking hasn't been invented yet.
NAME=$1
EXENAME=$2
S_FLAG=$3
SRC_NAME="$SRC_DIR/testsuite/$1"
TEST_NAME="$TEST_DIR/`basename $NAME`"
# This would be deliciously easy if GNU date's %s were always around.
# There are three ways to do this: 1) use the builtin 'time' like we
# do later; then getting compiler errors into LOG_FILE is a nightmare.
# 2) Grab the output of a formatted date(1) and do the math; harder
# and harder as we try compiling at, say, top of the hour; we would
# eventually have to calculate time_t anyhow. Or 3) just grab two
# time_t's (no more overhead than grabbing two date(1)'s).
compiler_invocation="$LTCXX $S_FLAG $SRC_NAME -o $EXENAME"
echo $compiler_invocation >> compile.out 2>&1
COMP_TIME_START=$($TIMER_COMMAND)
$compiler_invocation >> compile.out 2>&1
COMP_TIME_END=$($TIMER_COMMAND)
if [ $COMP_TIME_START -lt $COMP_TIME_END ]; then
C_TIME=$[ $COMP_TIME_END - $COMP_TIME_START ]
else
C_TIME="0"
fi
if [ -f $EXENAME ]; then
# rm compile.out
size_command TEXT
size_command DATA
size_command SIZE
# Actually run the executable and time it. Note that output
# printed by the executable will be lost and cannot be redirected,
# because we need to capture the output of 'time'. Bummer.
TIMEFORMAT='timemark %R'
E_TIME_TEXT="$(exec 2>&1; \
ulimit -d $MAX_MEM_USAGE; ulimit -v $MAX_MEM_USAGE; \
time $LTEXE $EXENAME)"
E_ABNORMAL_TERMINATION=$?
E_TIME="$(echo $E_TIME_TEXT | awk '{print $2}')"
# joining those two commands does not work due to quoting problems:
#E_TIME="$(exec 2>&1; time $EXENAME | awk '{print $2}')"
# this will work as a fallback on certain systems...?
#E_TIME=$(exec 2>&1; time $EXENAME | cut -d ' ' -f 2)
if [ "$E_ABNORMAL_TERMINATION" -ne 0 ]; then
RESULT='-r'
rm -f ./*core
# sometimes you want to save all core files for review:
#mv ./core $EXENAME.core
# sometimes the OS allows you to name core files yourself:
#mv ./*core $EXENAME.core
#mv ./core* $EXENAME.core
else
test_for_output
fi
# sometimes you want to save all failing exe files for review:
if [ "$RESULT" = "+" ]; then
rm "$EXENAME"
fi
else
# the file did not compile/link.
printf "\n" >> $LOG_FILE
# `cat compile.out >> $LOG_FILE`
# rm compile.out
RESULT="-b"
TEXT="0"
DATA="0"
SIZE="0"
fi
# update the counters
if test "$RESULT" = "+" ; then
if test x"$S_FLAG" = x"$ST_FLAG"; then
static_pass=`expr $static_pass + 1`
else
shared_pass=`expr $shared_pass + 1`
fi
else
if test x"$S_FLAG" = x"$ST_FLAG"; then
static_fail=`expr $static_fail + 1`
else
shared_fail=`expr $shared_fail + 1`
fi
fi
printf "%s\t" "$RESULT"
printf "%-2s %d\t%.3f\t%s\t%s\t%s\t%s %s\n" \
"$RESULT" $C_TIME $E_TIME $TEXT $DATA $SIZE $NAME >> $RESULTS_FILE
}
setup_size_command
echo ""
echo "Detailed test results in .${RESULTS_FILE/$BUILD_DIR}"
echo $explanation
echo "------------------------------------------------------------------------"
printf "static\tshared\ttest\n"
echo "------------------------------------------------------------------------"
TEST_TIME_START=$($TIMER_COMMAND)
for NAME in `cat $TESTS_FILE`
do
PRE_NAME="$TEST_DIR/`basename $NAME`"
ST_NAME="`echo $PRE_NAME | sed 's/cc$/st-exe/'`"
SH_NAME="`echo $PRE_NAME | sed 's/cc$/sh-exe/'`"
if test @enable_static@ = yes; then
test_file $NAME $ST_NAME "$ST_FLAG"
else
printf "x\t"
printf "static skipped\n" >> $RESULTS_FILE
fi
if test @enable_shared@ = yes; then
test_file $NAME $SH_NAME "$SH_FLAG"
else
printf "x\t"
printf "shared skipped\n" >> $RESULTS_FILE
fi
printf "%s\n" "$NAME"
echo "" >> $RESULTS_FILE
done
TEST_TIME_END=$($TIMER_COMMAND)
#
# 4: summary
#
# grep can count faster than we can...
total_failures=`expr ${shared_fail} + ${static_fail}`
total_successes=`expr ${shared_pass} + ${static_pass}`
resultstext="pass/fail results: ${shared_pass}/${shared_fail} shared + ${static_pass}/${static_fail} static = ${total_successes}/${total_failures} total"
if [ $total_failures -eq 0 ]; then
resultstext="${resultstext}, WIN WIN"
fi
sed -e "/^date:/a\\
$resultstext" $RESULTS_FILE > ${RESULTS_FILE}.tmp
mv ${RESULTS_FILE}.tmp $RESULTS_FILE
if [ $TEST_TIME_START -lt $TEST_TIME_END ]; then
TEST_TIME=$[ $TEST_TIME_END - $TEST_TIME_START ]
echo "testrun == $TEST_TIME seconds"
echo "testrun == $TEST_TIME seconds" >> $RESULTS_FILE
fi
exit 0