ports/openmpi
ports/openmpi
1
1
Форкнуть 0
Код Релизы Активность
29b22f350e
openmpi/ompi/tools/ompi_info/param.c
Ralph Castain a200e4f865 As per the RFC, bring in the ORTE async progress code and the rewrite of OOB: 
*** THIS RFC INCLUDES A MINOR CHANGE TO THE MPI-RTE INTERFACE ***

Note: during the course of this work, it was necessary to completely separate the MPI and RTE progress engines. There were multiple places in the MPI layer where ORTE_WAIT_FOR_COMPLETION was being used. A new OMPI_WAIT_FOR_COMPLETION macro was created (defined in ompi/mca/rte/rte.h) that simply cycles across opal_progress until the provided flag becomes false. Places where the MPI layer blocked waiting for RTE to complete an event have been modified to use this macro.

***************************************************************************************

I am reissuing this RFC because of the time that has passed since its original release. Since its initial release and review, I have debugged it further to ensure it fully supports tests like loop_spawn. It therefore seems ready for merge back to the trunk. Given its prior review, I have set the timeout for one week.

The code is in  https://bitbucket.org/rhc/ompi-oob2


WHAT:    Rewrite of ORTE OOB

WHY:       Support asynchronous progress and a host of other features

WHEN:    Wed, August 21

SYNOPSIS:
The current OOB has served us well, but a number of limitations have been identified over the years. Specifically:

* it is only progressed when called via opal_progress, which can lead to hangs or recursive calls into libevent (which is not supported by that code)

* we've had issues when multiple NICs are available as the code doesn't "shift" messages between transports - thus, all nodes had to be available via the same TCP interface.

* the OOB "unloads" incoming opal_buffer_t objects during the transmission, thus preventing use of OBJ_RETAIN in the code when repeatedly sending the same message to multiple recipients

* there is no failover mechanism across NICs - if the selected NIC (or its attached switch) fails, we are forced to abort

* only one transport (i.e., component) can be "active"


The revised OOB resolves these problems:

* async progress is used for all application processes, with the progress thread blocking in the event library

* each available TCP NIC is supported by its own TCP module. The ability to asynchronously progress each module independently is provided, but not enabled by default (a runtime MCA parameter turns it "on")

* multi-address TCP NICs (e.g., a NIC with both an IPv4 and IPv6 address, or with virtual interfaces) are supported - reachability is determined by comparing the contact info for a peer against all addresses within the range covered by the address/mask pairs for the NIC.

* a message that arrives on one TCP NIC is automatically shifted to whatever NIC that is connected to the next "hop" if that peer cannot be reached by the incoming NIC. If no TCP module will reach the peer, then the OOB attempts to send the message via all other available components - if none can reach the peer, then an "error" is reported back to the RML, which then calls the errmgr for instructions.

* opal_buffer_t now conforms to standard object rules re OBJ_RETAIN as we no longer "unload" the incoming object

* NIC failure is reported to the TCP component, which then tries to resend the message across any other available TCP NIC. If that doesn't work, then the message is given back to the OOB base to try using other components. If all that fails, then the error is reported to the RML, which reports to the errmgr for instructions

* obviously from the above, multiple OOB components (e.g., TCP and UD) can be active in parallel

* the matching code has been moved to the RML (and out of the OOB/TCP component) so it is independent of transport

* routing is done by the individual OOB modules (as opposed to the RML). Thus, both routed and non-routed transports can simultaneously be active

* all blocking send/recv APIs have been removed. Everything operates asynchronously.


KNOWN LIMITATIONS:

* although provision is made for component failover as described above, the code for doing so has not been fully implemented yet. At the moment, if all connections for a given peer fail, the errmgr is notified of a "lost connection", which by default results in termination of the job if it was a lifeline

* the IPv6 code is present and compiles, but is not complete. Since the current IPv6 support in the OOB doesn't work anyway, I don't consider this a blocker

* routing is performed at the individual module level, yet the active routed component is selected on a global basis. We probably should update that to reflect that different transports may need/choose to route in different ways

* obviously, not every error path has been tested nor necessarily covered

* determining abnormal termination is more challenging than in the old code as we now potentially have multiple ways of connecting to a process. Ideally, we would declare "connection failed" when *all* transports can no longer reach the process, but that requires some additional (possibly complex) code. For now, the code replicates the old behavior only somewhat modified - i.e., if a module sees its connection fail, it checks to see if it is a lifeline. If so, it notifies the errmgr that the lifeline is lost - otherwise, it notifies the errmgr that a non-lifeline connection was lost.

* reachability is determined solely on the basis of a shared subnet address/mask - more sophisticated algorithms (e.g., the one used in the tcp btl) are required to handle routing via gateways

* the RML needs to assign sequence numbers to each message on a per-peer basis. The receiving RML will then deliver messages in order, thus preventing out-of-order messaging in the case where messages travel across different transports or a message needs to be redirected/resent due to failure of a NIC

This commit was SVN r29058.
2013-08-22 16:37:40 +00:00

613 строки
30 KiB
C
Исходник Ответственный История

/*
* Copyright (c) 2004-2010 The Trustees of Indiana University and Indiana
* University Research and Technology
* Corporation. All rights reserved.
* Copyright (c) 2004-2006 The University of Tennessee and The University
* of Tennessee Research Foundation. All rights
* reserved.
* Copyright (c) 2004-2005 High Performance Computing Center Stuttgart,
* University of Stuttgart. All rights reserved.
* Copyright (c) 2004-2005 The Regents of the University of California.
* All rights reserved.
* Copyright (c) 2007-2012 Cisco Systems, Inc. All rights reserved.
* Copyright (c) 2009 Oak Ridge National Labs. All rights reserved.
* $COPYRIGHT$
*
* Additional copyrights may follow
*
* $HEADER$
*/
#include "ompi_config.h"
#include "mpi.h"
#include <string.h>
#include <ctype.h>
#ifdef HAVE_UNISTD_H
#include <unistd.h>
#endif
#ifdef HAVE_SYS_PARAM_H
#include <sys/param.h>
#endif
#ifdef HAVE_NETDB_H
#include <netdb.h>
#endif
#include MCA_timer_IMPLEMENTATION_HEADER
#include "opal/class/opal_value_array.h"
#include "opal/class/opal_pointer_array.h"
#include "opal/util/printf.h"
#include "opal/memoryhooks/memory.h"
#include "opal/runtime/opal_info_support.h"
#if OMPI_RTE_ORTE
#include "orte/util/show_help.h"
#endif
#include "ompi/tools/ompi_info/ompi_info.h"
#include "ompi/include/mpi_portable_platform.h"
const char *ompi_info_deprecated_value = "deprecated-ompi-info-value";
static void append(char *dest, size_t max, int *first, char *src)
{
size_t len;
if (NULL == src) {
return;
}
len = max - strlen(dest);
if (!(*first)) {
strncat(dest, ", ", len);
len = max - strlen(dest);
}
strncat(dest, src, len);
*first = 0;
}
/*
* do_config
* Accepts:
* - want_all: boolean flag; TRUE -> display all options
* FALSE -> display selected options
*
* This function displays all the options with which the current
* installation of ompi was configured. There are many options here
* that are carried forward from OMPI-7 and are not mca parameters
* in OMPI-10. I have to dig through the invalid options and replace
* them with OMPI-10 options.
*/
void ompi_info_do_config(bool want_all)
{
char *cxx;
char *fortran_mpifh;
char *fortran_usempi;
char *fortran_usempif08;
char *fortran_usempif08_compliance;
char *fortran_have_ignore_tkr;
char *fortran_have_f08_assumed_rank;
char *fortran_build_f08_subarrays;
char *fortran_have_optional_args;
char *fortran_have_bind_c;
char *fortran_have_private;
char *fortran_have_abstract;
char *fortran_have_asynchronous;
char *fortran_have_procedure;
char *fortran_08_using_wrappers_for_choice_buffer_functions;
char *java;
char *heterogeneous;
char *memprofile;
char *memdebug;
char *debug;
char *mpi_interface_warning;
char *cprofiling;
char *cxxprofiling;
char *fortran_mpifh_profiling;
char *fortran_usempi_profiling;
char *fortran_usempif08_profiling;
char *cxxexceptions;
char *threads;
char *want_libltdl;
#if OMPI_RTE_ORTE
char *mpirun_prefix_by_default;
#endif
char *sparse_groups;
char *have_mpi_io;
char *wtime_support;
char *symbol_visibility;
char *ft_support;
char *crdebug_support;
char *topology_support;
char *vt_support;
/* Do a little preprocessor trickery here to figure opal_info_out the
* tri-state of MPI_PARAM_CHECK (which will be either 0, 1, or
* ompi_mpi_param_check). The preprocessor will only allow
* comparisons against constants, so you'll get a warning if you
* check MPI_PARAM_CHECK against 0 or 1, but its real value is the
* char *ompi_mpi_param_check. So define ompi_mpi_param_check to
* be a constant, and then all the preprocessor comparisons work
* opal_info_out ok. Note that we chose the preprocessor
* comparison ropal_info_oute because it is not sufficient to
* simply set the variable ompi_mpi_param_check to a non-0/non-1
* value. This is because the compiler will generate a warning
* that that C variable is unused when MPI_PARAM_CHECK is
* hard-coded to 0 or 1.
*/
char *paramcheck;
#define ompi_mpi_param_check 999
#if 0 == MPI_PARAM_CHECK
paramcheck = "never";
#elif 1 == MPI_PARAM_CHECK
paramcheck = "always";
#else
paramcheck = "runtime";
#endif
/* setup the strings that don't require allocations*/
cxx = OMPI_BUILD_CXX_BINDINGS ? "yes" : "no";
if (OMPI_BUILD_FORTRAN_USEMPI_BINDINGS) {
if (OMPI_FORTRAN_HAVE_IGNORE_TKR) {
fortran_usempi = "yes (full: ignore TKR)";
} else {
fortran_usempi = "yes (limited: overloading)";
}
} else {
fortran_usempi = "no";
}
fortran_usempif08 = OMPI_BUILD_FORTRAN_USEMPIF08_BINDINGS ? "yes" : "no";
fortran_have_f08_assumed_rank = OMPI_FORTRAN_HAVE_F08_ASSUMED_RANK ?
"yes" : "no";
fortran_build_f08_subarrays = OMPI_BUILD_FORTRAN_F08_SUBARRAYS ?
"yes" : "no";
fortran_have_optional_args = OMPI_FORTRAN_HAVE_OPTIONAL_ARGS ?
"yes" : "no";
fortran_have_bind_c = OMPI_FORTRAN_HAVE_BIND_C ? "yes" : "no";
fortran_have_private = OMPI_FORTRAN_HAVE_PRIVATE ? "yes" : "no";
fortran_have_abstract = OMPI_FORTRAN_HAVE_ABSTRACT ? "yes" : "no";
fortran_have_asynchronous = OMPI_FORTRAN_HAVE_ASYNCHRONOUS ? "yes" : "no";
fortran_have_procedure = OMPI_FORTRAN_HAVE_PROCEDURE ? "yes" : "no";
fortran_08_using_wrappers_for_choice_buffer_functions =
OMPI_FORTRAN_NEED_WRAPPER_ROUTINES ? "yes" : "no";
/* Build a string describing what level of compliance the mpi_f08
module has */
if (OMPI_BUILD_FORTRAN_USEMPIF08_BINDINGS) {
/* Do we have everything? */
if (OMPI_BUILD_FORTRAN_F08_SUBARRAYS &&
OMPI_FORTRAN_HAVE_PRIVATE &&
OMPI_FORTRAN_HAVE_ABSTRACT &&
OMPI_FORTRAN_HAVE_ASYNCHRONOUS &&
OMPI_FORTRAN_HAVE_PROCEDURE &&
OMPI_FORTRAN_NEED_WRAPPER_ROUTINES) {
fortran_usempif08_compliance = strdup("The mpi_f08 module is available, and is fully compliant. w00t!");
} else {
char f08[1024];
int first = 1;
snprintf(f08, sizeof(f08),
"The mpi_f08 module is available, but due to limitations in the %s compiler, does not support the following: ",
OMPI_FC);
if (!OMPI_BUILD_FORTRAN_F08_SUBARRAYS) {
append(f08, sizeof(f08), &first, "array subsections");
}
if (!OMPI_FORTRAN_HAVE_PRIVATE) {
append(f08, sizeof(f08), &first, "private MPI_Status members");
}
if (!OMPI_FORTRAN_HAVE_ABSTRACT) {
append(f08, sizeof(f08), &first, "ABSTRACT INTERFACE function pointers");
}
if (!OMPI_FORTRAN_HAVE_ASYNCHRONOUS) {
append(f08, sizeof(f08), &first, "Fortran '08-specified ASYNCHRONOUS behavior");
}
if (!OMPI_FORTRAN_HAVE_PROCEDURE) {
append(f08, sizeof(f08), &first, "PROCEDUREs");
}
if (OMPI_FORTRAN_NEED_WRAPPER_ROUTINES) {
append(f08, sizeof(f08), &first, "direct passthru (where possible) to underlying Open MPI's C functionality");
}
fortran_usempif08_compliance = strdup(f08);
}
} else {
fortran_usempif08_compliance = strdup("The mpi_f08 module was not built");
}
java = OMPI_WANT_JAVA_BINDINGS ? "yes" : "no";
heterogeneous = OPAL_ENABLE_HETEROGENEOUS_SUPPORT ? "yes" : "no";
memprofile = OPAL_ENABLE_MEM_PROFILE ? "yes" : "no";
memdebug = OPAL_ENABLE_MEM_DEBUG ? "yes" : "no";
debug = OPAL_ENABLE_DEBUG ? "yes" : "no";
mpi_interface_warning = OMPI_WANT_MPI_INTERFACE_WARNING ? "yes" : "no";
cprofiling = OMPI_ENABLE_MPI_PROFILING ? "yes" : "no";
cxxprofiling = (OMPI_BUILD_CXX_BINDINGS && OMPI_ENABLE_MPI_PROFILING) ? "yes" : "no";
cxxexceptions = (OMPI_BUILD_CXX_BINDINGS && OMPI_HAVE_CXX_EXCEPTION_SUPPORT) ? "yes" : "no";
fortran_mpifh_profiling = (OMPI_ENABLE_MPI_PROFILING && OMPI_BUILD_FORTRAN_MPIFH_BINDINGS) ? "yes" : "no";
fortran_usempi_profiling = (OMPI_ENABLE_MPI_PROFILING && OMPI_BUILD_FORTRAN_USEMPI_BINDINGS) ? "yes" : "no";
fortran_usempif08_profiling = (OMPI_ENABLE_MPI_PROFILING && OMPI_BUILD_FORTRAN_USEMPIF08_BINDINGS) ? "yes" : "no";
want_libltdl = OPAL_WANT_LIBLTDL ? "yes" : "no";
#if OMPI_RTE_ORTE
mpirun_prefix_by_default = ORTE_WANT_ORTERUN_PREFIX_BY_DEFAULT ? "yes" : "no";
#endif
sparse_groups = OMPI_GROUP_SPARSE ? "yes" : "no";
have_mpi_io = OMPI_PROVIDE_MPI_FILE_INTERFACE ? "yes" : "no";
wtime_support = OPAL_TIMER_USEC_NATIVE ? "native" : "gettimeofday";
symbol_visibility = OPAL_C_HAVE_VISIBILITY ? "yes" : "no";
topology_support = OPAL_HAVE_HWLOC ? "yes" : "no";
vt_support = OMPI_ENABLE_CONTRIB_vt ? "yes" : "no";
/* setup strings that require allocation */
if (OMPI_BUILD_FORTRAN_MPIFH_BINDINGS) {
(void)asprintf(&fortran_mpifh, "yes (%s)",
(OPAL_HAVE_WEAK_SYMBOLS ? "all" :
(OMPI_FORTRAN_CAPS ? "caps" :
(OMPI_FORTRAN_PLAIN ? "lower case" :
(OMPI_FORTRAN_SINGLE_UNDERSCORE ? "single underscore" : "double underscore")))));
} else {
fortran_mpifh = strdup("no");
}
if (OMPI_FORTRAN_HAVE_IGNORE_TKR) {
/* OMPI_FORTRAN_IGNORE_TKR_PREDECL is already in quotes; it
didn't work consistently to put it in _STRINGIFY because
sometimes the compiler would actually interpret the pragma
in there before stringify-ing it. */
(void)asprintf(&fortran_have_ignore_tkr, "yes (%s)",
OMPI_FORTRAN_IGNORE_TKR_PREDECL);
} else {
fortran_have_ignore_tkr = strdup("no");
}
if (OPAL_HAVE_SOLARIS_THREADS || OPAL_HAVE_POSIX_THREADS) { /* should just test OPAL_HAVE_THREADS */
#if OMPI_RTE_ORTE
(void)asprintf(&threads, "%s (MPI_THREAD_MULTIPLE: %s, OPAL support: %s, OMPI progress: %s, ORTE progress: yes, Event lib: yes)",
OPAL_HAVE_SOLARIS_THREADS ? "solaris" :
(OPAL_HAVE_POSIX_THREADS ? "posix" : "type unknown"), /* "type unknown" can presumably never happen */
OMPI_ENABLE_THREAD_MULTIPLE ? "yes" : "no",
OPAL_ENABLE_MULTI_THREADS ? "yes" : "no",
OMPI_ENABLE_PROGRESS_THREADS ? "yes" : "no");
#else
(void)asprintf(&threads, "%s (MPI_THREAD_MULTIPLE: %s, OPAL support: %s, OMPI progress: %s, Event lib: yes)",
OPAL_HAVE_SOLARIS_THREADS ? "solaris" :
(OPAL_HAVE_POSIX_THREADS ? "posix" : "type unknown"), /* "type unknown" can presumably never happen */
OMPI_ENABLE_THREAD_MULTIPLE ? "yes" : "no",
OPAL_ENABLE_MULTI_THREADS ? "yes" : "no",
OMPI_ENABLE_PROGRESS_THREADS ? "yes" : "no");
#endif
} else {
threads = strdup("no");
}
(void)asprintf(&ft_support, "%s (checkpoint thread: %s)",
OPAL_ENABLE_FT ? "yes" : "no", OPAL_ENABLE_FT_THREAD ? "yes" : "no");
(void)asprintf(&crdebug_support, "%s",
OPAL_ENABLE_CRDEBUG ? "yes" : "no");
/* output values */
opal_info_out("Configured by", "config:user", OPAL_CONFIGURE_USER);
opal_info_out("Configured on", "config:timestamp", OPAL_CONFIGURE_DATE);
opal_info_out("Configure host", "config:host", OPAL_CONFIGURE_HOST);
opal_info_out("Built by", "build:user", OMPI_BUILD_USER);
opal_info_out("Built on", "build:timestamp", OMPI_BUILD_DATE);
opal_info_out("Built host", "build:host", OMPI_BUILD_HOST);
opal_info_out("C bindings", "bindings:c", "yes");
opal_info_out("C++ bindings", "bindings:cxx", cxx);
opal_info_out("Fort mpif.h", "bindings:mpif.h", fortran_mpifh);
free(fortran_mpifh);
opal_info_out("Fort use mpi", "bindings:use_mpi",
fortran_usempi);
opal_info_out("Fort use mpi size", "bindings:use_mpi:size",
ompi_info_deprecated_value);
opal_info_out("Fort use mpi_f08", "bindings:use_mpi_f08",
fortran_usempif08);
opal_info_out("Fort mpi_f08 compliance", "bindings:use_mpi_f08:compliance",
fortran_usempif08_compliance);
if (NULL != fortran_usempif08_compliance) {
free(fortran_usempif08_compliance);
}
opal_info_out("Fort mpi_f08 subarrays", "bindings:use_mpi_f08:subarrays-supported",
fortran_build_f08_subarrays);
opal_info_out("Java bindings", "bindings:java", java);
opal_info_out("Wrapper compiler rpath", "compiler:all:rpath",
WRAPPER_RPATH_SUPPORT);
opal_info_out("C compiler", "compiler:c:command", OPAL_CC);
opal_info_out("C compiler absolute", "compiler:c:absolute",
OPAL_CC_ABSOLUTE);
opal_info_out("C compiler family name", "compiler:c:familyname",
_STRINGIFY(OPAL_BUILD_PLATFORM_COMPILER_FAMILYNAME));
opal_info_out("C compiler version", "compiler:c:version",
_STRINGIFY(OPAL_BUILD_PLATFORM_COMPILER_VERSION_STR));
if (want_all) {
opal_info_out_int("C char size", "compiler:c:sizeof:char", sizeof(char));
/* JMS: should be fixed in MPI-2.2 to differentiate between C
_Bool and C++ bool. For the moment, the code base assumes
that they are the same. Because of opal_config_bottom.h,
we can sizeof(bool) here, so we might as well -- even
though this technically isn't right. This should be fixed
when we update to MPI-2.2. See below for note about C++
bool alignment. */
opal_info_out_int("C bool size", "compiler:c:sizeof:bool", sizeof(bool));
opal_info_out_int("C short size", "compiler:c:sizeof:short", sizeof(short));
opal_info_out_int("C int size", "compiler:c:sizeof:int", sizeof(int));
opal_info_out_int("C long size", "compiler:c:sizeof:long", sizeof(long));
opal_info_out_int("C float size", "compiler:c:sizeof:float", sizeof(float));
opal_info_out_int("C double size", "compiler:c:sizeof:double", sizeof(double));
opal_info_out_int("C pointer size", "compiler:c:sizeof:pointer", sizeof(void *));
opal_info_out_int("C char align", "compiler:c:align:char", OPAL_ALIGNMENT_CHAR);
#if OMPI_BUILD_CXX_BINDINGS
/* JMS: See above for note about C++ bool size. We don't have
the bool alignment the way configure currently runs -- need
to clean this up when we update for MPI-2.2. */
opal_info_out_int("C bool align", "compiler:c:align:bool", OPAL_ALIGNMENT_CXX_BOOL);
#else
opal_info_out("C bool align", "compiler:c:align:bool", "skipped");
#endif
opal_info_out_int("C int align", "compiler:c:align:int", OPAL_ALIGNMENT_INT);
opal_info_out_int("C float align", "compiler:c:align:float", OPAL_ALIGNMENT_FLOAT);
opal_info_out_int("C double align", "compiler:c:align:double", OPAL_ALIGNMENT_DOUBLE);
}
opal_info_out("C++ compiler", "compiler:cxx:command", OMPI_CXX);
opal_info_out("C++ compiler absolute", "compiler:cxx:absolute", OMPI_CXX_ABSOLUTE);
opal_info_out("Fort compiler", "compiler:fortran:command", OMPI_FC);
opal_info_out("Fort compiler abs", "compiler:fortran:absolute",
OMPI_FC_ABSOLUTE);
opal_info_out("Fort ignore TKR", "compiler:fortran:ignore_tkr",
fortran_have_ignore_tkr);
free(fortran_have_ignore_tkr);
opal_info_out("Fort 08 assumed shape",
"compiler:fortran:f08_assumed_rank",
fortran_have_f08_assumed_rank);
opal_info_out("Fort optional args",
"compiler:fortran:optional_arguments",
fortran_have_optional_args);
opal_info_out("Fort BIND(C)",
"compiler:fortran:bind_c",
fortran_have_bind_c);
opal_info_out("Fort PRIVATE",
"compiler:fortran:private",
fortran_have_private);
opal_info_out("Fort ABSTRACT",
"compiler:fortran:abstract",
fortran_have_abstract);
opal_info_out("Fort ASYNCHRONOUS",
"compiler:fortran:asynchronous",
fortran_have_asynchronous);
opal_info_out("Fort PROCEDURE",
"compiler:fortran:procedure",
fortran_have_procedure);
opal_info_out("Fort f08 using wrappers",
"compiler:fortran:08_wrappers",
fortran_08_using_wrappers_for_choice_buffer_functions);
if (want_all) {
/* Will always have the size of Fortran integer */
opal_info_out_int("Fort integer size", "compiler:fortran:sizeof:integer",
OMPI_SIZEOF_FORTRAN_INTEGER);
opal_info_out_int("Fort logical size", "compiler:fortran:sizeof:logical",
OMPI_SIZEOF_FORTRAN_LOGICAL);
opal_info_out_int("Fort logical value true", "compiler:fortran:value:true",
OMPI_FORTRAN_VALUE_TRUE);
/* May or may not have the other Fortran sizes */
if (OMPI_BUILD_FORTRAN_MPIFH_BINDINGS ||
OMPI_BUILD_FORTRAN_USEMPI_BINDINGS ||
OMPI_BUILD_FORTRAN_USEMPIF08_BINDINGS) {
opal_info_out("Fort have integer1", "compiler:fortran:have:integer1",
OMPI_HAVE_FORTRAN_INTEGER1 ? "yes" : "no");
opal_info_out("Fort have integer2", "compiler:fortran:have:integer2",
OMPI_HAVE_FORTRAN_INTEGER2 ? "yes" : "no");
opal_info_out("Fort have integer4", "compiler:fortran:have:integer4",
OMPI_HAVE_FORTRAN_INTEGER4 ? "yes" : "no");
opal_info_out("Fort have integer8", "compiler:fortran:have:integer8",
OMPI_HAVE_FORTRAN_INTEGER8 ? "yes" : "no");
opal_info_out("Fort have integer16", "compiler:fortran:have:integer16",
OMPI_HAVE_FORTRAN_INTEGER16 ? "yes" : "no");
opal_info_out("Fort have real4", "compiler:fortran:have:real4",
OMPI_HAVE_FORTRAN_REAL4 ? "yes" : "no");
opal_info_out("Fort have real8", "compiler:fortran:have:real8",
OMPI_HAVE_FORTRAN_REAL8 ? "yes" : "no");
opal_info_out("Fort have real16", "compiler:fortran:have:real16",
OMPI_HAVE_FORTRAN_REAL16 && OMPI_REAL16_MATCHES_C ? "yes" : "no");
opal_info_out("Fort have complex8", "compiler:fortran:have:complex8",
OMPI_HAVE_FORTRAN_COMPLEX8 ? "yes" : "no");
opal_info_out("Fort have complex16", "compiler:fortran:have:complex16",
OMPI_HAVE_FORTRAN_COMPLEX16 ? "yes" : "no");
opal_info_out("Fort have complex32", "compiler:fortran:have:complex32",
OMPI_HAVE_FORTRAN_COMPLEX32 && OMPI_REAL16_MATCHES_C ? "yes" : "no");
opal_info_out_int("Fort integer1 size", "compiler:fortran:sizeof:integer1",
OMPI_HAVE_FORTRAN_INTEGER1 ? OMPI_SIZEOF_FORTRAN_INTEGER1 : -1);
opal_info_out_int("Fort integer2 size", "compiler:fortran:sizeof:integer2",
OMPI_HAVE_FORTRAN_INTEGER2 ? OMPI_SIZEOF_FORTRAN_INTEGER2 : -1);
opal_info_out_int("Fort integer4 size", "compiler:fortran:sizeof:integer4",
OMPI_HAVE_FORTRAN_INTEGER4 ? OMPI_SIZEOF_FORTRAN_INTEGER4 : -1);
opal_info_out_int("Fort integer8 size", "compiler:fortran:sizeof:integer8",
OMPI_HAVE_FORTRAN_INTEGER8 ? OMPI_SIZEOF_FORTRAN_INTEGER8 : -1);
opal_info_out_int("Fort integer16 size", "compiler:fortran:sizeof:integer16",
OMPI_HAVE_FORTRAN_INTEGER16 ? OMPI_SIZEOF_FORTRAN_INTEGER16 : -1);
opal_info_out_int("Fort real size", "compiler:fortran:sizeof:real",
OMPI_SIZEOF_FORTRAN_REAL);
opal_info_out_int("Fort real4 size", "compiler:fortran:sizeof:real4",
OMPI_HAVE_FORTRAN_REAL4 ? OMPI_SIZEOF_FORTRAN_REAL4 : -1);
opal_info_out_int("Fort real8 size", "compiler:fortran:sizeof:real8",
OMPI_HAVE_FORTRAN_REAL8 ? OMPI_SIZEOF_FORTRAN_REAL8 : -1);
opal_info_out_int("Fort real16 size", "compiler:fortran:sizeof:real17",
OMPI_HAVE_FORTRAN_REAL16 ? OMPI_SIZEOF_FORTRAN_REAL16 : -1);
opal_info_out_int("Fort dbl prec size",
"compiler:fortran:sizeof:double_precision",
OMPI_SIZEOF_FORTRAN_DOUBLE_PRECISION);
opal_info_out_int("Fort cplx size", "compiler:fortran:sizeof:complex",
OMPI_SIZEOF_FORTRAN_COMPLEX);
opal_info_out_int("Fort dbl cplx size",
"compiler:fortran:sizeof:double_complex",
OMPI_HAVE_FORTRAN_DOUBLE_COMPLEX ? OMPI_SIZEOF_FORTRAN_DOUBLE_COMPLEX : -1);
opal_info_out_int("Fort cplx8 size", "compiler:fortran:sizeof:complex8",
OMPI_HAVE_FORTRAN_COMPLEX8 ? OMPI_SIZEOF_FORTRAN_COMPLEX8 : -1);
opal_info_out_int("Fort cplx16 size", "compiler:fortran:sizeof:complex16",
OMPI_HAVE_FORTRAN_COMPLEX16 ? OMPI_SIZEOF_FORTRAN_COMPLEX16 : -1);
opal_info_out_int("Fort cplx32 size", "compiler:fortran:sizeof:complex32",
OMPI_HAVE_FORTRAN_COMPLEX32 ? OMPI_SIZEOF_FORTRAN_COMPLEX32 : -1);
opal_info_out_int("Fort integer align", "compiler:fortran:align:integer",
OMPI_ALIGNMENT_FORTRAN_INTEGER);
opal_info_out_int("Fort integer1 align", "compiler:fortran:align:integer1",
OMPI_HAVE_FORTRAN_INTEGER1 ? OMPI_ALIGNMENT_FORTRAN_INTEGER1 : -1);
opal_info_out_int("Fort integer2 align", "compiler:fortran:align:integer2",
OMPI_HAVE_FORTRAN_INTEGER2 ? OMPI_ALIGNMENT_FORTRAN_INTEGER2 : -1);
opal_info_out_int("Fort integer4 align", "compiler:fortran:align:integer4",
OMPI_HAVE_FORTRAN_INTEGER4 ? OMPI_ALIGNMENT_FORTRAN_INTEGER4 : -1);
opal_info_out_int("Fort integer8 align", "compiler:fortran:align:integer8",
OMPI_HAVE_FORTRAN_INTEGER8 ? OMPI_ALIGNMENT_FORTRAN_INTEGER8 : -1);
opal_info_out_int("Fort integer16 align", "compiler:fortran:align:integer16",
OMPI_HAVE_FORTRAN_INTEGER16 ? OMPI_ALIGNMENT_FORTRAN_INTEGER16 : -1);
opal_info_out_int("Fort real align", "compiler:fortran:align:real",
OMPI_ALIGNMENT_FORTRAN_REAL);
opal_info_out_int("Fort real4 align", "compiler:fortran:align:real4",
OMPI_HAVE_FORTRAN_REAL4 ? OMPI_ALIGNMENT_FORTRAN_REAL4 : -1);
opal_info_out_int("Fort real8 align", "compiler:fortran:align:real8",
OMPI_HAVE_FORTRAN_REAL8 ? OMPI_ALIGNMENT_FORTRAN_REAL8 : -1);
opal_info_out_int("Fort real16 align", "compiler:fortran:align:real16",
OMPI_HAVE_FORTRAN_REAL16 ? OMPI_ALIGNMENT_FORTRAN_REAL16 : -1);
opal_info_out_int("Fort dbl prec align",
"compiler:fortran:align:double_precision",
OMPI_ALIGNMENT_FORTRAN_DOUBLE_PRECISION);
opal_info_out_int("Fort cplx align", "compiler:fortran:align:complex",
OMPI_ALIGNMENT_FORTRAN_COMPLEX);
opal_info_out_int("Fort dbl cplx align",
"compiler:fortran:align:double_complex",
OMPI_HAVE_FORTRAN_DOUBLE_COMPLEX ? OMPI_ALIGNMENT_FORTRAN_DOUBLE_COMPLEX : -1);
opal_info_out_int("Fort cplx8 align", "compiler:fortran:align:complex8",
OMPI_HAVE_FORTRAN_COMPLEX8 ? OMPI_ALIGNMENT_FORTRAN_COMPLEX8 : -1);
opal_info_out_int("Fort cplx16 align", "compiler:fortran:align:complex16",
OMPI_HAVE_FORTRAN_COMPLEX16 ? OMPI_ALIGNMENT_FORTRAN_COMPLEX16 : -1);
opal_info_out_int("Fort cplx32 align", "compiler:fortran:align:complex32",
OMPI_HAVE_FORTRAN_COMPLEX32 ? OMPI_ALIGNMENT_FORTRAN_COMPLEX32 : -1);
} else {
opal_info_out("Fort real size", "compiler:fortran:sizeof:real", "skipped");
opal_info_out("Fort dbl prec size",
"compiler:fortran:sizeof:double_precision", "skipped");
opal_info_out("Fort cplx size", "compiler:fortran:sizeof:complex", "skipped");
opal_info_out("Fort dbl cplx size",
"compiler:fortran:sizeof:double_complex", "skipped");
opal_info_out("Fort integer align", "compiler:fortran:align:integer", "skipped");
opal_info_out("Fort real align", "compiler:fortran:align:real", "skipped");
opal_info_out("Fort dbl prec align",
"compiler:fortran:align:double_precision","skipped");
opal_info_out("Fort cplx align", "compiler:fortran:align:complex", "skipped");
opal_info_out("Fort dbl cplx align",
"compiler:fortran:align:double_complex", "skipped");
}
}
opal_info_out("C profiling", "option:profiling:c", cprofiling);
opal_info_out("C++ profiling", "option:profiling:cxx", cxxprofiling);
opal_info_out("Fort mpif.h profiling", "option:profiling:mpif.h",
fortran_mpifh_profiling);
opal_info_out("Fort use mpi profiling", "option:profiling:use_mpi",
fortran_usempi_profiling);
opal_info_out("Fort use mpi_f08 prof",
"option:profiling:use_mpi_f08",
fortran_usempif08_profiling);
opal_info_out("C++ exceptions", "option:cxx_exceptions", cxxexceptions);
opal_info_out("Thread support", "option:threads", threads);
free(threads);
opal_info_out("Sparse Groups", "option:sparse:groups", sparse_groups);
if (want_all) {
/* Don't display the build CPPFLAGS or CXXCPPFLAGS because they're
* just -I$(top_srcdir)/include, etc. Hence, they're a) boring,
* and c) specific for ompi_info.
*/
opal_info_out("Build CFLAGS", "option:build:cflags", OMPI_BUILD_CFLAGS);
opal_info_out("Build CXXFLAGS", "option:build:cxxflags", OMPI_BUILD_CXXFLAGS);
opal_info_out("Build FCFLAGS", "option:build:fcflags", OMPI_BUILD_FCFLAGS);
opal_info_out("Build LDFLAGS", "option:build:ldflags", OMPI_BUILD_LDFLAGS);
opal_info_out("Build LIBS", "option:build:libs", OMPI_BUILD_LIBS);
opal_info_out("Wrapper extra CFLAGS", "option:wrapper:extra_cflags",
WRAPPER_EXTRA_CFLAGS);
opal_info_out("Wrapper extra CXXFLAGS", "option:wrapper:extra_cxxflags",
WRAPPER_EXTRA_CXXFLAGS);
opal_info_out("Wrapper extra FCFLAGS", "option:wrapper:extra_fcflags",
WRAPPER_EXTRA_FCFLAGS);
opal_info_out("Wrapper extra LDFLAGS", "option:wrapper:extra_ldflags",
WRAPPER_EXTRA_LDFLAGS);
opal_info_out("Wrapper extra LIBS", "option:wrapper:extra_libs",
WRAPPER_EXTRA_LIBS);
}
opal_info_out("Internal debug support", "option:debug", debug);
opal_info_out("MPI interface warnings", "option:mpi-interface-warning", mpi_interface_warning);
opal_info_out("MPI parameter check", "option:mpi-param-check", paramcheck);
opal_info_out("Memory profiling support", "option:mem-profile", memprofile);
opal_info_out("Memory debugging support", "option:mem-debug", memdebug);
opal_info_out("libltdl support", "option:dlopen", want_libltdl);
opal_info_out("Heterogeneous support", "options:heterogeneous", heterogeneous);
#if OMPI_RTE_ORTE
opal_info_out("mpirun default --prefix", "mpirun:prefix_by_default",
mpirun_prefix_by_default);
#endif
opal_info_out("MPI I/O support", "options:mpi-io", have_mpi_io);
opal_info_out("MPI_WTIME support", "options:mpi-wtime", wtime_support);
opal_info_out("Symbol vis. support", "options:visibility", symbol_visibility);
opal_info_out("Host topology support", "options:host-topology",
topology_support);
opal_info_out("MPI extensions", "options:mpi_ext", OMPI_MPIEXT_COMPONENTS);
opal_info_out("FT Checkpoint support", "options:ft_support", ft_support);
free(ft_support);
opal_info_out("C/R Enabled Debugging", "options:crdebug_support", crdebug_support);
free(crdebug_support);
opal_info_out("VampirTrace support", "options:vt", vt_support);
opal_info_out_int("MPI_MAX_PROCESSOR_NAME", "options:mpi-max-processor-name",
MPI_MAX_PROCESSOR_NAME);
opal_info_out_int("MPI_MAX_ERROR_STRING", "options:mpi-max-error-string",
MPI_MAX_ERROR_STRING);
opal_info_out_int("MPI_MAX_OBJECT_NAME", "options:mpi-max-object-name",
MPI_MAX_OBJECT_NAME);
opal_info_out_int("MPI_MAX_INFO_KEY", "options:mpi-max-info-key",
MPI_MAX_INFO_KEY);
opal_info_out_int("MPI_MAX_INFO_VAL", "options:mpi-max-info-val",
MPI_MAX_INFO_VAL);
opal_info_out_int("MPI_MAX_PORT_NAME", "options:mpi-max-port-name",
MPI_MAX_PORT_NAME);
#if OMPI_PROVIDE_MPI_FILE_INTERFACE
opal_info_out_int("MPI_MAX_DATAREP_STRING", "options:mpi-max-datarep-string",
MPI_MAX_DATAREP_STRING);
#else
opal_info_out("MPI_MAX_DATAREP_STRING", "options:mpi-max-datarep-string",
"IO interface not provided");
#endif
}
Показать git blame Копировать постоянную ссылку