I am attempting to use the version 1.3 of the palabos cfd library (which can be found at http://www.palabos.org/ ) in version 13.12 of Code::Blocks, using the progect file that was provided with the palabos distribution. Things went fine until i attempted to activate palabos's paralell processing features. The advice given in the palabos documentation is mostly directed tword people running the program from the command line in unix based systems. As such the advise they give regarding how to activate the built in paralellization features is: "edit the Makefile, set MPI_PARALLEL=true, and recompile" However, Code::blocks does not use makefiles by default, I have tried using the included makefile (check the download in the same folder as the "permeability" example), but it gives an error about there being no rule for release (even after i have changed seffings so that it should work in windows). What should i do?
Makefile contents:
palabosRoot = C:\Users\estone\Documents\summers\summer 2014\Soil Research\palabos v1.3r0
# Name of source files in current directory to compile and link with Palabos
projectFiles = permeability.cpp
# Set optimization flags on/off
optimize = true
# Set debug mode and debug flags on/off
debug = false
# Set profiling flags on/off
profile = false
# Set MPI-parallel mode on/off (parallelism in cluster-like environment)
MPIparallel = true
# Set SMP-parallel mode on/off (shared-memory parallelism)
SMPparallel = false
# Decide whether to include calls to the POSIX API. On non-POSIX systems,
# including Windows, this flag must be false, unless a POSIX environment is
# emulated (such as with Cygwin).
usePOSIX = false
# Path to external libraries (other than Palabos)
libraryPaths =
# Path to inlude directories (other than Palabos)
includePaths =
# Dynamic and static libraries (other than Palabos)
libraries =
# Compiler to use without MPI parallelism
serialCXX = g++
# Compiler to use with MPI parallelism
parallelCXX = mpicxx
# General compiler flags (e.g. -Wall to turn on all warnings on g++)
compileFlags = -Wall -Wnon-virtual-dtor
# General linker flags (don't put library includes into this flag)
linkFlags =
# Compiler flags to use when optimization mode is on
optimFlags = -O3
# Compiler flags to use when debug mode is on
debugFlags = -g
# Compiler flags to use when profile mode is on
profileFlags = -pg
##########################################################################
# All code below this line is just about forwarding the options
# to SConstruct. It is recommended not to modify anything there.
##########################################################################
SCons = $(palabosRoot)/scons/scons.py -j 2 -f $(palabosRoot)/SConstruct
SConsArgs = palabosRoot=$(palabosRoot) \
projectFiles="$(projectFiles)" \
optimize=$(optimize) \
debug=$(debug) \
profile=$(profile) \
MPIparallel=$(MPIparallel) \
SMPparallel=$(SMPparallel) \
usePOSIX=$(usePOSIX) \
serialCXX=$(serialCXX) \
parallelCXX=$(parallelCXX) \
compileFlags="$(compileFlags)" \
linkFlags="$(linkFlags)" \
optimFlags="$(optimFlags)" \
debugFlags="$(debugFlags)" \
profileFlags="$(profileFlags)" \
libraryPaths="$(libraryPaths)" \
includePaths="$(includePaths)" \
libraries="$(libraries)"
compile:
python $(SCons) $(SConsArgs)
clean:
python $(SCons) -c $(SConsArgs)
/bin/rm -vf `find $(palabosRoot) -name '*~'`
Related
Problem summary
I am trying to install an open-source parallel finite-element code called TACS and available at this github repository. To comply with the indicated prerequisites, I followed the instructions at this github repository, which allowed me to install SuiteSparse and METIS on Windows with precompiled BLAS/LAPACK DLLs. For the MPI, I installed both the Intel MPI Library and Open MPI through Cygwin. The final step should be to compile running make, however this command is not directly available in Windows 10. As a consequence, I explored the options suggested in this question, unfortunately without success. I feel at a dead end, any help will be appreciated.
What I've tried
Please have a look below at my attempts. I am mainly a Windows user and I don't know much of compiling programs using Makefile. My current understanding is that the Makefile that I am trying to compile is written for Linux and whatever GNU compiler for Windows I use will not work because of the different syntax needed. Please correct me if I am wrong. What I can't understand is why I get errors also when I try to compile with Ubuntu Bash for Windows 10 (last attempt of the list below).
Visual Studio nmake
Running the Developer Command Prompt for VS 2019 as administrator, I typed nmake -f Makefile in TACS base directory and I got Makefile.in(28) : fatal error U1001: syntax error : illegal character '{' in macro Stop.
Chocolatey make
Running Windows Command Prompt as administrator with C:\ProgramData\chocolatey\bin at the top of PATH environment variable, I typed make in TACS base directory and I got
"" was unexpected at this time.
make: *** [Makefile:23: default] Error 255
Cygwin make
Running Windows Command Prompt as administrator with C:\cygwin64\bin at the top of PATH environment variables, I typed make in TACS base directory and I got three types of error:
error: expected ',' or '...' before numeric constant
error: cannot convert 'int*' to 'idx_t*' {aka 'long int*'}
error: no matching function for call to 'TACSSchurMat::getBCSRMat(BCSRMat**, NULL, NULL, NULL)'
I tried to change some variable names in the affected scripts (like N_ in place of _N) and I got rid of the first and the third type of error, but not of the second one.
GnuWin make
Running Windows Command Prompt as administrator with C:\Program Files (x86)\GnuWin32\bin at the top of PATH environment variables, I typed make in TACS base directory and I got
"" was unexpected at this time.
make: *** [Makefile:23: default] Error 255
MinGW mingw32-make
Running Windows Command Prompt as administrator with C:\MinGW\bin at the top of PATH environment variables, I typed mingw32-make in TACS base directory and I got
"" was unexpected at this time.
Makefile:23: recipe for target 'default' failed
mingw32-make: *** [default] Error 255
MSYS MinGW 64-bit make
Running Windows Command Prompt as administrator with C:\msys64\usr\bin at the top of PATH environment variables, I typed make in TACS base directory and I got
make[1]: mpicxx: No such file or directory
make[1]: *** [../TACS_Common.mk:28: C:/Users/qa21944/git/tacs/src/TACSAssembler.o] Error 127
make[1]: *** Waiting for unfinished jobs....
make[1]: mpicxx: No such file or directory
make[1]: *** [../TACS_Common.mk:28: C:/Users/qa21944/git/tacs/src/TACSCreator.o] Error 127
make[1]: Leaving directory '/c/Users/qa21944/git/tacs/src'
make: *** [Makefile:23: default] Error 1
This is quite difficult for me to understand, as the mpicxx file is C:\Program Files (x86)\Intel\oneAPI\mpi\latest\bin, which in turn is in the PATH environment variable. When I tried to add C:\cygwin64\bin to PATH (below C:\msys64\usr\bin) and to rerun make, I got
0 [main] opal_wrapper (14432) C:\cygwin64\bin\opal_wrapper.exe: *** fatal error - cygheap base mismatch detected - 0x180352408/0x180357408.
This problem is probably due to using incompatible versions of the cygwin DLL.
Search for cygwin1.dll using the Windows Start->Find/Search facility
and delete all but the most recent version. The most recent version *should*
reside in x:\cygwin\bin, where 'x' is the drive on which you have
installed the cygwin distribution. Rebooting is also suggested if you
are unable to find another cygwin DLL.
I tried to follow these instructions and then rebooted my computer, but nothing changed.
Ubuntu Bash for Windows 10 make
This attempt was inspired by this answer. I downloaded Ubuntu from Microsoft Store and installed make. From the Ubuntu Bash I typed make in TACS base directory and I got
make[1]: Entering directory '/mnt/c/Users/qa21944/git/tacs/src'
Makefile:26: *** target pattern contains no '%'. Stop.
make[1]: Leaving directory '/mnt/c/Users/qa21944/git/tacs/src'
make: *** [Makefile:23: default] Error 1
I do not understand why I should get this error. I also made sure that all lines started with a tab rather than white spaces, but nothing changed.
Codes
Below you can find the Makefile.in and Makefile that I am using.
Makefile.in
# Do not modify this file. Copy this file to Makefile.in and then modify it.
# In order to get TACS to compile, you'll need to fill in the
# following path information. Some of the items below are required
# only if you're going to use the python interface.
# the full path to the root TACS directory
TACS_DIR = C:/Users/qa21944/git/tacs
CXX = mpicxx
RM = rm -f
PYTHON = python
PYTHON_CONFIG = python-config
# Set up for parallel make
MAKE = make -j 8
# Set the ar flags
AR_FLAGS = rcs
# Flags for debugging and regular compilation versions
EXTRA_DEBUG_CC_FLAGS = -fPIC -g
EXTRA_CC_FLAGS = -fPIC -O3
# Use this if you have problems with mpich
# TACS_DEF = -DMPICH_IGNORE_CXX_SEEK
# Defines whether to use static or dynamic linking
# TACS_LD_CMD=${TACS_DIR}/lib/libtacs.a
TACS_LD_CMD=-L${TACS_DIR}/lib/ -Wl,-rpath,${TACS_DIR}/lib -ltacs
# For linux systems, use the following settings:
SO_EXT=so
SO_LINK_FLAGS=-fPIC -shared
# For MAC OS X, use the following settings:
# SO_EXT=so
# SO_LINK_FLAGS=-fPIC -dynamiclib
# This uses the default installation of LAPACK.
# Use an optimized version of LAPACK if available.
# You may also have to include -lblas as well.
LAPACK_LIBS = -LC:/SP_ROOT/lapack_windows/x64 -llapack -lpthread -lblas
# For MAC OSX use the accelerate framework
# LAPACK_LIBS=-framework accelerate
# METIS is handy for partitioning graphs, but can be problematic for
# compilation. If you compile METIS using a C++ compiler you must add
# -DTACS_CPLUSPLUS_METIS to the TACS_DEF arguments below. If you
# compile METIS using a C compiler, there should be no issues.
METIS_INCLUDE = -IC:/SP_ROOT/build/install/include
METIS_LIB = -LC:/SP_ROOT/build/install/lib -lmetis
# AMD is a set of routines for ordering matrices. It is not required by default.
AMD_INCLUDE = -IC:/SP_ROOT/build/install/include/suitesparse
AMD_LIBS = -LC:/SP_ROOT/build/install/lib -llibamd
Makefile
# ============================================
#
# Make file for TACS_DIR/
#
# ============================================
include Makefile.in
include TACS_Common.mk
TACS_SUBDIRS = src \
src/bpmat \
src/elements \
src/elements/dynamics \
src/elements/basis \
src/elements/shell \
src/constitutive \
src/functions \
src/io
TACS_OBJS := $(addsuffix /*.o, ${TACS_SUBDIRS})
default:
#if [ "${TACS_IS_COMPLEX}" = "true" ]; then \
echo "Building Complex TACS"; \
for subdir in $(TACS_SUBDIRS) ; do \
echo "making $# in $$subdir"; \
echo; (cd $$subdir && $(MAKE) TACS_DIR=${TACS_DIR} TACS_DEF="${TACS_DEF} -DTACS_USE_COMPLEX") || exit 1; \
done \
else \
echo "Building Real TACS"; \
for subdir in $(TACS_SUBDIRS) ; do \
echo "making $# in $$subdir"; \
echo; (cd $$subdir && $(MAKE) TACS_DIR=${TACS_DIR}) || exit 1; \
done \
fi
${CXX} ${SO_LINK_FLAGS} ${TACS_OBJS} ${TACS_EXTERN_LIBS} -o ${TACS_DIR}/lib/libtacs.${SO_EXT}
#if [ "${TACS_IS_COMPLEX}" = "true" ]; then \
echo "ctypedef complex TacsScalar" > tacs/TacsTypedefs.pxi; \
echo "TACS_NPY_SCALAR = np.NPY_CDOUBLE" > tacs/TacsDefs.pxi; \
echo "dtype = complex" >> tacs/TacsDefs.pxi; \
else \
echo "ctypedef double TacsScalar" > tacs/TacsTypedefs.pxi; \
echo "TACS_NPY_SCALAR = np.NPY_DOUBLE" > tacs/TacsDefs.pxi; \
echo "dtype = np.double" >> tacs/TacsDefs.pxi; \
fi
debug:
#if [ "${TACS_IS_COMPLEX}" = "true" ]; then \
echo "Building Complex TACS"; \
for subdir in $(TACS_SUBDIRS) ; do \
echo "making $# in $$subdir"; \
echo; (cd $$subdir && $(MAKE) debug TACS_DIR=${TACS_DIR} TACS_DEF="${TACS_DEF} -DTACS_USE_COMPLEX") || exit 1; \
done \
else \
echo "Building Real TACS"; \
for subdir in $(TACS_SUBDIRS) ; do \
echo "making $# in $$subdir"; \
echo; (cd $$subdir && $(MAKE) debug TACS_DIR=${TACS_DIR}) || exit 1; \
done \
fi
${CXX} ${SO_LINK_FLAGS} ${TACS_OBJS} ${TACS_EXTERN_LIBS} -o ${TACS_DIR}/lib/libtacs.${SO_EXT}
#if [ "${TACS_IS_COMPLEX}" = "true" ]; then \
echo "ctypedef complex TacsScalar" > tacs/TacsTypedefs.pxi; \
echo "TACS_NPY_SCALAR = np.NPY_CDOUBLE" > tacs/TacsDefs.pxi; \
echo "dtype = complex" >> tacs/TacsDefs.pxi; \
else \
echo "ctypedef double TacsScalar" > tacs/TacsTypedefs.pxi; \
echo "TACS_NPY_SCALAR = np.NPY_DOUBLE" > tacs/TacsDefs.pxi; \
echo "dtype = np.double" >> tacs/TacsDefs.pxi; \
fi
interface:
${PYTHON} setup.py build_ext --inplace
complex_interface:
${PYTHON} setup.py build_ext --inplace --define TACS_USE_COMPLEX
complex: TACS_IS_COMPLEX=true
complex: default
complex_debug: TACS_IS_COMPLEX=true
complex_debug: debug
clean:
${RM} lib/libtacs.a lib/libtacs.so
${RM} tacs/*.so tacs/*.cpp
#for subdir in $(TACS_SUBDIRS) ; do \
echo "making $# in $$subdir"; \
echo; \
(cd $$subdir && $(MAKE) $# TACS_DIR=${TACS_DIR}) || exit 1; \
done
Edit: I am adding a snippet of TACS_Common.mk as requested in the comments.
TACS_Common.mk
TACS_LIB = ${TACS_DIR}/lib/libtacs.a
TACS_INCLUDE = -I${TACS_DIR}/src \
-I${TACS_DIR}/src/bpmat \
-I${TACS_DIR}/src/elements \
-I${TACS_DIR}/src/elements/dynamics \
-I${TACS_DIR}/src/elements/basis \
-I${TACS_DIR}/src/elements/shell \
-I${TACS_DIR}/src/constitutive \
-I${TACS_DIR}/src/functions \
-I${TACS_DIR}/src/io
# Set the command line flags to use for compilation
TACS_OPT_CC_FLAGS = ${TACS_DEF} ${EXTRA_CC_FLAGS} ${METIS_INCLUDE} ${AMD_INCLUDE} ${TACS_INCLUDE}
TACS_DEBUG_CC_FLAGS = ${TACS_DEF} ${EXTRA_DEBUG_CC_FLAGS} ${METIS_INCLUDE} ${AMD_INCLUDE} ${TACS_INCLUDE}
# By default, use the optimized flags
TACS_CC_FLAGS = ${TACS_OPT_CC_FLAGS}
# Set the linking flags to use
TACS_EXTERN_LIBS = ${AMD_LIBS} ${METIS_LIB} ${LAPACK_LIBS}
TACS_LD_FLAGS = ${EXTRA_LD_FLAGS} ${TACS_LD_CMD} ${TACS_EXTERN_LIBS}
# This is the one rule that is used to compile all the
# source code in TACS
%.o: %.cpp
${CXX} ${TACS_CC_FLAGS} -c $< -o $*.o
#echo
#echo " --- Compiled $*.cpp successfully ---"
#echo
I can't answer but maybe I can orient you.
First nmake is not make. It will not work with any makefile not written specifically as an nmake makefile. And it's only available on Windows. So, best to just forget it exists.
Second, it's important to understand how make works: rules in makefiles are a combination of targets/prerequisites, and a recipe. The recipe is not in "makefile" syntax, it's a shell script (batch file). So make works in tandem with the shell, to run commands. Which shell? On POSIX systems like GNU/Linux and MacOS it's very simple: a POSIX shell; by default /bin/sh.
On Windows systems it's much less simple: there are a lot of options. It could be cmd.exe. It could be PowerShell. It could be a POSIX shell, that was installed by the user. Which one is chosen by default, depends on how your version of make was compiled. That's why you see different behaviors for different "ports" of make to Windows.
So, if you look at the makefiles you are trying to use you can see they are unquestionably written specifically for a POSIX system and expect a POSIX shell and a POSIX environment. Any attempt to use a version of make that invokes cmd.exe as its default shell will fail immediately with syntax errors ("" was unexpected at this time.).
OK, so you find a version of make that invokes a POSIX shell, and you don't get that error anymore.
But then you have to contend with another difference: directory separators. In Windows they use backslash. In POSIX systems, they use forward slash and backslash is an escape character (so it's not just passed through the shell untouched). If you are going to use paths in a POSIX shell, you need to make sure your paths use forward slashes else the shell will remove them as escape characters. Luckily, most Windows programs accept forward slashes as well as backslashes as directory separators (but not all: for example cmd.exe built-in tools do not).
Then you have to contend with the Windows abomination known as drive letters. This is highly problematic for make because to make, the : character is special in various places. So when make sees a line like C:/foo:C:/bar its parser will get confused, and you get errors. Some versions of make compiled for Windows enable a heuristic which tries to see if a path looks like a drive letter or not. Some just assume POSIX-style paths. They can also be a problem for the POSIX shell: many POSIX environments on Windows map drive letters to standard POSIX paths, so C:\foo is written as /c/foo or /mnt/c/foo or something else. If you are adding paths to your makefile you need to figure out what the right mapping, if any, is and use that.
That's not even to start discussing the other differences between POSIX and Windows... there are so many.
From what you've shown above, this project was not written with any sort of portability to Windows in mind. Given the complexity of this, that's not surprising: it takes a huge amount of work. So you have these options that I can see:
Port it yourself to be Windows-compatible
Try to get it working inside cygwin (cygwin is intended to be a POSIX-style environment that runs on Windows)
Try to get it working in WSL
Install a virtual machine using VMWare, VirtualBox, etc. running a Linux distribution and build and run it there
Unfortunately I don't know much about the pros and cons of these approaches so I can't advise you as to the best course.
The route I chose, long long ago, was to get rid of Windows entirely and just use GNU/Linux. But of course that won't be possible for everyone :).
You need a real answer: you can't compile using the Windows Command Prompt.
Get yourself MSYS2 -- which will also install MinGW-w64 -- and follow the setup instructions. Then launch the MSYS shell to get a unix-y terminal prompt (zsh, IIRC), and change directory to the head of the project folder.
To access the Windows filesystem the root directory will be either /c or /mnt/c (sorry, on my mobile ATM, I can improve this in a day or two). For example,
C:\Users\qa21944\git\tacs
becomes
/c/Users/qa21944/git/tacs
From there the GNU/Windows make command should work:
mingw32-make
There is also this post to use more modern *nix environments under Windows:
How to install and use "make" in Windows?
Thanks may be overkill for what you need, though.
When I finish traveling and can sit down to look at this properly I can improve this answer's details, but getting a Linux shell terminal is what you need.
I've made a program in C++, but now I must install this program with autoconf and automake.
So, when I run command "./configure && make && make install", it must do the following:
compile program
create folder my_program inside /opt (example: /opt/my_program/) and in this folder I must also have all static libraries and source files
There must be symbolic link in /usr/local/bin for my_program
Libraries must be in /usr/local/lib (DONE - Thanks to #Galik )
Header files of my_program must be in /usr/local/include (DONE)
I've wrote this configure.ac script:
# -*- Autoconf -*-
# Process this file with autoconf to produce a configure script.
AC_PREREQ([2.69])
AC_INIT([my_program], [0.1], [my_mail])
AC_CONFIG_SRCDIR([AbsAlgorithm.hpp])
AM_INIT_AUTOMAKE
# Checks for programs.
AC_PROG_CXX
AC_PROG_CC
# Checks for libraries.
# Checks for header files.
AC_CHECK_HEADERS([stdlib.h string.h sys/time.h unistd.h wchar.h wctype.h])
# Checks for typedefs, structures, and compiler characteristics.
AC_CHECK_HEADER_STDBOOL
AC_C_INLINE
AC_TYPE_SIZE_T
# Checks for library functions.
AC_FUNC_MALLOC
AC_FUNC_MKTIME
AC_CHECK_FUNCS([gettimeofday memset mkdir])
LIBS="-ldl"
AC_CONFIG_FILES([Makefile])
AC_OUTPUT
and this Makefile.am script:
AUTOMAKE_OPTIONS = foreign
AM_CXXFLAGS=-Wall -std=gnu++11 -DVERSION=\"$(VERSION)\" -DPROG="\"$(PACKAGE)\""
bin_PROGRAMS = algatorc
noinst_LIBRARIES = libalgatorc.a
libalgatorc_a_SOURCES = Timer.cpp
include_HEADERS = Timer.hpp TestSetIterator.hpp TestCase.hpp ETestSet.hpp EParameter.hpp Entity.hpp ParameterSet.hpp AbsAlgorithm.hpp Log.hpp JSON.hpp
algatorc_SOURCES = ParameterSet.cpp TestCase.cpp EParameter.cpp ETestSet.cpp TestSetIterator.cpp Entity.cpp Timer.cpp main.cpp JSON.cpp JSONValue.cpp
Now, when I run "./configure && make && make install" I don't get new folder called my_program in /opt. But, I now, I do have header files in /usr/local/include. I don't have lib files in /usr/local/lib. There is just one folder for python. I would like to have folder called my_program and inside that folder I would like to have static libs.
I am using Ubuntu 12.04 x64
I would appreciate any help. Thanks
Autotools is not really designed to put things in specific locations. The idea is that programs go in the programs directory $(bindir), libraries in the libraries directory $(libdir) etc and that the person installing everything gets to decide where those locations are.
So you should really only care about installing things relative to wherever the person running the installer wants them to be.
They do this by adding arguments to the configure script like:
configure --prefix=/opt/myprog
That will typically install programs in /opt/myprog/bin and libraries in /opt/myprog/lib etc...
You can add to the places that things get installed by setting special dir variables. For example to put libraries in a sub-directory of $(libdir) (default /usr/local/lib) you caan do:
myprog_librarydir = $(libdir)/myprog
And its not uncommon to do the same for the header files:
myprog_includedir = $(prefix)/include/myprog
That defines some destination folders you can refer to instead of the defaults:
myprog_include_HEADERS = \
Timer.hpp \
TestSetIterator.hpp \
TestCase.hpp \
ETestSet.hpp \
EParameter.hpp \
Entity.hpp \
ParameterSet.hpp \
AbsAlgorithm.hpp \
Log.hpp \
JSON.hpp
Those will now get installed into $(prefix)/include/myprog.
Similarly with the corresponding library:
myprog_library_LIBRARIES = libmyprog.a
libmyprog_a_SOURCES = \
ParameterSet.cpp \
TestCase.cpp \
EParameter.cpp \
ETestSet.cpp \
TestSetIterator.cpp \
Entity.cpp \
Timer.cpp \
JSON.cpp \
JSONValue.cpp
So basically you create a destination (installation) directory using:
mynamedir = $(prefix)/path/... whatever
That allows you to set destinations other than bin_, lib_ and include_ etc...
So instead of saying lib_LIBRARIES you can say myname_LIBRARIES.
Hope that helps.
I'm trying to compile a C++ project manually ( I'm a newbie )
I have a MakeFile.am that contains:
ifneq ($(WANT_JANSSON),)
JANSSON_INCLUDES= -I$(top_srcdir)/compat/jansson
else
JANSSON_INCLUDES=
endif
EXTRA_DIST = example-cfg.json nomacro.pl
SUBDIRS = compat
INCLUDES = $(PTHREAD_FLAGS) -fno-strict-aliasing $(JANSSON_INCLUDES)
bin_PROGRAMS = minerd
dist_man_MANS = minerd.1
minerd_SOURCES = elist.h miner.h compat.h \
cpu-miner.c util.c \
sha2.c scrypt.c
ifneq ($(ARCH_x86),)
minerd_SOURCES += sha2-x86.S scrypt-x86.S
endif
ifneq ($(ARCH_x86_64),)
minerd_SOURCES += sha2-x64.S scrypt-x64.S
endif
ifneq ($(ARCH_ARM),)
minerd_SOURCES += sha2-arm.S scrypt-arm.S
endif
minerd_LDFLAGS = $(PTHREAD_FLAGS)
minerd_LDADD = #LIBCURL# #JANSSON_LIBS# #PTHREAD_LIBS# #WS2_LIBS#
minerd_CPPFLAGS = #LIBCURL_CPPFLAGS#
I've opened the Windows' Command Prompt and type:
mingw32-make -f Makefile.am
The output:
mingw32-make: *** No targets. Stop.
I don't know why this error shows up.
You're confused about the tools available.
A Makefile.am is not a makefile. It's an automake file. Automake is a tool that will take in a description of a makefile (the Makefile.am file) and a set of configuration options (typically, but not necessarily, generated by the auto-configuration tool autoconf), and generate a makefile named Makefile.
Then you can run make with that Makefile in order to build your system.
These tools (autoconf and automake) are very important to portable software because so many of the UNIX-like systems have slight differences. These tools help you abstract away all those differences and even support new systems which you've never used before.
On Windows this is not so important, since most Windows systems are pretty similar and backward-compatible. So I doubt most people who are targeting Windows-only environments bother with autoconf and automake.
I have an old version of boost 1.33.1. I want to build it with a custom gcc binary whih is in a path other than default. I could not find the page on the web so I paste the first part of the gcc-tools.jam form tools/build/v1/gcc-tools.jam.
Copyright (c) 2001 David Abrahams.
# Copyright (c) 2002-2005 Rene Rivera.
# Distributed under the Boost Software License, Version 1.0.
# (See accompanying file LICENSE_1_0.txt or http://www.boost.org/LICENSE_1_0.txt)
# The following #// line will be used by the regression test table generation
# program as the column heading for HTML tables. Must not include version number.
#//GNU<br>GCC
# compute directories for invoking GCC
#
# The gcc toolset can be user-configured using the following
# variables:
#
# GCC_ROOT_DIRECTORY
# The directory in which GCC was installed. Defaults to
# unset. Usually, there is no need to set this variable at
# all. However, if G++ is not in the path it is usually
# sufficient to configure this one variable. More fine-grained
# configuration is available by setting the following:
#
# GCC_BIN_DIRECTORY
# the directory prefix used to find the gcc executables. Defaults to
# $(GCC_ROOT_DIRECTORY)/bin/, or "" if GCC_ROOT_DIRECTORY is
# not set.
#
# GCC_INCLUDE_DIRECTORY
# the directory in which to find system includes. Defaults to
# empty.
#
# GCC_STDLIB_DIRECTORY
# the directory in which to find the standard library
# objects associated with this build of gcc. Defaults to
# $(GCC_ROOT_DIRECTORY)/lib.
#
# GXX
# The name by which g++ is invoked. You can also use this in
# lieu of setting the <cxxflags> property to force options such
# as "-V3.0.4" into the g++ command line: "-sGXX=g++ -V3.0.4".
#
# GCC
# Similar to GXX, the name by which gcc is invoked for "C"
# language targets.
# singleton variables...
set-as-singleton GCC_ROOT_DIRECTORY GCC_BIN_DIRECTORY GCC_INCLUDE_DIRECTORY GCC_STDLIB_DIRECTORY ;
flags gcc GCC_BIN_DIRECTORY : $(GCC_BIN_DIRECTORY) ;
flags gcc GCC_INCLUDE_DIRECTORY : $(GCC_INCLUDE_DIRECTORY) ;
flags gcc GCC_STDLIB_DIRECTORY : $(GCC_STDLIB_DIRECTORY) ;
GCC_BIN_DIRECTORY ?= $(GCC_ROOT_DIRECTORY)$(SLASH)bin ;
GCC_BIN_DIRECTORY ?= "" ; # Don't clobber tool names if GCC_ROOT_DIRECTORY not set
GCC_STDLIB_DIRECTORY ?= $(GCC_ROOT_DIRECTORY)$(SLASH)lib ;
# Make sure this gets set "on" the target
flags gcc GCC_BIN_DIR : $(GCC_BIN_DIRECTORY) ;
flags gcc LINKFLAGS <runtime-link>static : -static ;
flags gcc CFLAGS <debug-symbols>on : -g ;
flags gcc LINKFLAGS <debug-symbols>on : -g ;
flags gcc CFLAGS <optimization>off : -O0 ;
flags gcc CFLAGS <optimization>speed : -O3 ;
In this part I can modify the default gcc/g++ to my own using the variables which are defined in the comment section. However I don't know How to do that. For example, I write
GCC_BIN_DIRECTORY=/opt/gcc-4.1.2/installed
But that gives me this error:
rule GCC_ROOT_DIRECTORY=/opt/gcc-4.1.2/installed unknown in module
So how can I do that?
there is script bjam, or b2, take a look here: http://www.boost.org/boost-build2/doc/html/bbv2/reference/tools.html#bbv2.reference.tools.compiler.gcc
and try:
./b2 root /usr/local/mygcc
should be working with provided compiler
I am trying to build gcc 4.7.2 using a custom prefix $PREFIX
I have built and installed all the prerequisites into my prefix location, and then successfully configured, built and installed gcc.
The problem that I now have is that $PREFIX is not in the library search path, and therefore the shared libraries cannot be found.
$PREFIX/bin $ ./g++ ~/main.cpp
$PREFIX/libexec/gcc/x86_64-suse-linux/4.7.2/cc1plus: \
error while loading shared libraries: \
libcloog-isl.so.1: \
cannot open shared object file: No such file or directory
What works, but isn't ideal
If I export LD_LIBRARY_PATH=$PREFIX/lib then it works, but I'm looking for something which works without having to set environment variables.
If I use patchelf to set the RPATH on all the gcc binaries then it also works; however this involves searching out all elf binaries and iterating over them calling patchelf, I would rather have something more permanent.
What I think would be ideal for my purposes
So I'm hoping there is a way to have -Wl,-rpath,$PREFIX/lib passed to make during the build process.
Since I know the paths won't need to be changed this seems like the most robust solution, and can be also be used for when we build the next gcc version.
Is configuring the build process to hard code the RPATH possible?
What I have tried, but doesn't work
Setting LDFLAGS_FOR_TARGET prior to calling configure:
All of these fail:
export LDFLAGS_FOR_TARGET="-L$PREFIX/lib -R$PREFIX/lib"
export LDFLAGS_FOR_TARGET="-L$PREFIX/lib"
export LDFLAGS_FOR_TARGET="-L$PREFIX/lib -Wl,-rpath,$PREFIX/lib"
Setting LDFLAGS prior to calling configure:
export LDFLAGS="-L$PREFIX/lib -Wl,-rpath,$PREFIX/lib"
In any event I worry that these will override any of the LDFLAGS gcc would have had, so I'm not sure these are a viable option even if they could be made to work?
My configure line
For completeness here is the line I pass to configure:
./configure \
--prefix=$PREFIX \
--build=x86_64-suse-linux \
--with-pkgversion='SIG build 12/10/2012' \
--disable-multilib \
--enable-cloog-backend=isl \
--with-mpc=$PREFIX \
--with-mpfr=$PREFIX \
--with-gmp=$PREFIX \
--with-cloog=$PREFIX \
--with-ppl=$PREFIX \
--with-gxx-include-dir=$PREFIX/include/c++/4.7.2
I've found that copying the source directories for gmp, mpfr, mpc, isl, cloog, etc. into the top level gcc source directory (or using symbolic links with the same name) works everywhere. This is in fact the preferred way.
You need to copy (or link) to those source directory names without the version numbers for this to work.
The compilers do not need LD_LIBRARY_PATH (although running applications built with the compilers will need an LD_LIBRARY_PATH to the $PREFIX/lib64 or something like that - but that's different)
Start in a source directory where you'll keep all your sources.
In this source directory you have your gcc directory either by unpacking a tarball or svn...
I use subversion.
Also in this top level directory you have, say, the following source tarballs:
gmp-5.1.0.tar.bz2
mpfr-3.1.1.tar.bz2
mpc-1.0.1.tar.gz
isl-0.11.1.tar.bz2
cloog-0.18.0.tar.gz
I just download these and update to the latest tarballs periodically.
In script form:
# Either:
svn checkout svn://gcc.gnu.org/svn/gcc/trunk gcc_work
# Or:
bunzip -c gcc-4.8.0.tar.bz2 | tar -xvf -
mv gcc-4.8.0 gcc_work
# Uncompress sources.. (This will produce version numbered directories).
bunzip -c gmp-5.1.0.tar.bz2 | tar -xvf -
bunzip -c mpfr-3.1.1.tar.bz2 | tar -xvf -
gunzip -c mpc-1.0.1.tar.gz | tar -xvf -
bunzip -c isl-0.11.1.tar.bz2 | tar -xvf -
gunzip -c cloog-0.18.0.tar.gz | tar -xvf -
# Link outside source directories into the top level gcc directory.
cd gcc_work
ln -s ../gmp-5.1.0 gmp
ln -s ../mpfr-3.1.1 mpfr
ln -s ../mpc-1.0.1 mpc
ln -s ../isl-0.11.1 isl
ln -s ../cloog-0.18.0 cloog
# Get out of the gcc working directory and create a build directory. I call mine obj_work.
# I configure the gcc binary and other outputs to be bin_work in the top level directory. Your choice. But I have this:
# home/ed/projects
# home/ed/projects/gcc_work
# home/ed/projects/obj_work
# home/ed/projects/bin_work
# home/ed/projects/gmp-5.1.0
# home/ed/projects/mpfr-3.1.1
# home/ed/projects/mpc-1.0.1
# home/ed/projects/isl-0.11.1
# home/ed/projects/cloog-0.18.0
mkdir obj_work
cd obj_work
../gcc_work/configure --prefix=../bin_work <other options>
# Your <other options> shouldn't need to involve anything about gmp, mpfr, mpc, isl, cloog.
# The gcc build system will find the directories you linked,
# then configure and compile the needed libraries with the necessary flags and such.
# Good luck.
I've been using this configure option with gcc-4.8.0, on FreeBSD, after building and installing gmp, isl and cloog:
LD_LIBRARY_PATH=/path/to/isl/lib ./configure (lots of other options) \
--with-stage1-ldflags="-rpath /path/to/isl/lib -rpath /path/to/cloog/lib -rpath /path/to/gmp/lib"
and the resulting gcc binary does not need any LD_LIBRARY_PATH. The LD_LIBRARY_PATH for configure is needed because it compiles a test program to check for the ISL version, which would fail if it didn't find the ISL shared lib.
I tried it on Linux (Ubuntu) where it failed during configuring because the -rpath args were passed to gcc instead of ld. I could fix this by using
--with-stage1-ldflags="-Wl,-rpath,/path/to/isl/lib,-rpath,/path/to/cloog/lib,-rpath,/path/to/gmp/lib"
instead.
Just using configure --with-stage1-ldflags="-Wl,-rpath,/path/to/lib" was not enough for me to build gcc 4.9.2, bootstrap failed in stage 2. What works is to pass he flags directly to make via
make BOOT_LDFLAGS="-Wl,-rpath,/path/to/lib"
I got this from https://gcc.gnu.org/ml/gcc/2008-09/msg00214.html
While it still involves setting environment variables, what I do is that I define LD_RUN_PATH, which sets the rpath. That way the rest of the system can keep using the system provided libraries instead of using the ones that your gcc build generates.
I am going to make a suggestion that I believe solves your problem, although it definitely does not answer your question. Let's see how many downvotes I get.
Writing a generic wrapper script to set LD_LIBRARY_PATH and then to run the executable is easy; see https://stackoverflow.com/a/7101577/768469.
The idea is to pass something like --prefix=$PREFIX/install to configure, building an install tree that looks like this:
$PREFIX/
install/
lib/
libcloogXX.so
libgmpYY.so
...
bin/
gcc
emacs
...
bin/
.wrapper
gcc -> .wrapper
emacs -> .wrapper
.wrapper is a simple shell script:
#!/bin/sh
here="${0%/*}" # or use $(dirname "$0")
base="${0##*/}" # or use $(basename "$0")
libdir="$here"/../install/lib
if [ "$LD_LIBRARY_PATH"x = x ] ; then
LD_LIBRARY_PATH="$libdir"
else
LD_LIBRARY_PATH="$libdir":"$LD_LIBRARY_PATH"
fi
export LD_LIBRARY_PATH
exec "$here"/../install/bin/"$base" "$#"
This will forward all arguments correctly, handle spaces in arguments or directory names, and so forth. For practical purposes, it is indistinguishable from setting the rpath like you want.
Also, you can use this approach not only for gcc, but for your entire my-personal-$PREFIX tree. I do this all the time in environments where I want an up-to-date suite of GNU tools, but I do not have (or want to admit to have) root access.
Try to add your $PREFIX to /etc/ld.so.conf and then run ldconfig:
# echo $PREFIX >> /etc/ld.so.conf
# ldconfig
This will recreate cache that is used by runtime linker and it will pick up your libraries.
WARNING: This operation will cause ALL applications to use your newly compiled libraries in $PREFIX instead of default location