int
main(int argc, const char **argv)
{
set_debug_flags(NULL, D_ALWAYS);
set_mySubSystem( "TEST_LOG_READER_STATE", SUBSYSTEM_TYPE_TOOL );
// initialize to read from config file
myDistro->Init( argc, argv );
config();
// Set up the dprintf stuff...
dprintf_config("TEST_LOG_READER_STATE");
Options opts;
if ( CheckArgs( argc, argv, opts ) < 0 ) {
fprintf( stderr, "CheckArgs() failed\n" );
exit( 1 );
}
ReadUserLog::FileState state;
if ( opts.needStateFile() && ( ReadState( opts, state ) < 0 ) ) {
fprintf( stderr, "ReadState() failed\n" );
exit( 1 );
}
ReadUserLog::FileState state2;
if ( opts.needStateFile2() && ( ReadState( opts, state2 ) < 0 ) ) {
fprintf( stderr, "ReadState() failed\n" );
exit( 1 );
}
int status = 0;
switch( opts.getCommand() )
{
case CMD_NONE:
status = -1;
break;
case CMD_LIST:
opts.dumpFieldList( );
break;
case CMD_DUMP:
status = DumpState( opts, state );
break;
case CMD_DIFF:
status = DiffState( opts, state, state2 );
break;
case CMD_ACCESS:
status = CheckStateAccess( opts, state );
break;
case CMD_VERIFY:
status = VerifyState( opts, state );
break;
}
if ( status == 0 ) {
exit( 0 );
} else {
exit( 2 );
}
}
void scan_options (int argc, char** argv, char **default_dictionary,
char **user_dictionary) {
// Scan the arguments and set flags.
opterr = false;
for (;;) {
int option = getopt (argc, argv, "nxyd:@:");
if (option == EOF) break;
switch (option) {
char optopt_string[16]; // used in default:
case 'd': *user_dictionary = optarg;
break;
case 'n': *default_dictionary = NULL;
break;
case 'x': x = true;
break;
case 'y': yy_flex_debug = true;
break;
case '@': set_debug_flags (optarg);
if (strpbrk (optarg, "@y")) yy_flex_debug = true;
break;
default : sprintf (optopt_string, "-%c", optopt);
print_error (optopt_string, "invalid option");
break;
}
}
}
static void
parse_args (int argc, char *argv[], int *const pass_environment_p,
char **const config_file_p)
{
int argch;
/*Set defaults */
*pass_environment_p = 0;
#ifdef CONFIG_FILE
*config_file_p = CONFIG_FILE;
#else
*config_file_p = NULL;
#endif
while (EOF != (argch = getopt (argc, argv, "ef:x:")))
{
switch (argch)
{
case 'f':
*config_file_p = optarg;
break;
case 'e':
pass_environment = 1;
break;
case 'x':
if (!set_debug_flags (optarg))
usage ();
break;
default:
usage ();
}
}
}
int
main(int argc, char **argv)
{
// Set up the dprintf stuff...
Termlog = true;
dprintf_config("test_write_term", get_param_functions());
set_debug_flags(NULL, D_ALWAYS);
int result = 0;
Arguments args;
Status tmpStatus = CheckArgs(argc, argv, args);
if ( tmpStatus == STATUS_OK ) {
result = WriteTermEvent(args);
} else if ( tmpStatus == STATUS_ERROR ) {
result = 1;
}
if ( args.writeExec && (tmpStatus == STATUS_OK) && (result == 0) ) {
result = WriteExecEvent(args);
}
if ( result != 0 ) {
fprintf(stderr, "test_write_term FAILED\n");
}
return result;
}
/**
* @brief Pre-initialization of SDF agent engine (pthread safe)
*
* 0. argument parsing, <br>
* 1. read and initialize properties <br>
* 2. calls agent_engine_pre_init_internal <br>
*
* @return status, SDF_TRUE on success
*/
SDF_boolean_t agent_engine_pre_init(struct sdf_agent_state *state, int argc, char *argv[])
{
SDF_boolean_t success = SDF_TRUE;
const char *sdf_mode_string;
const char *sdf_replication_string;
if (success) {
success = plat_opts_parse_sdf_agent(&state->config, argc, argv) ?
SDF_FALSE : SDF_TRUE;
plat_log_msg(20849, LOG_CAT,
success ? LOG_LEV : PLAT_LOG_LEVEL_DEBUG,
"plat_opts_parse_sdf_agent SUCCESS = %u", success);
}
if (success) {
success = agent_config_set_properties(&state->config);
plat_log_msg(20850, LOG_CAT,
success ? LOG_LEV : PLAT_LOG_LEVEL_DEBUG,
"set properties SUCCESS = %u", success);
}
if (success && !state->config.log_less) {
set_debug_flags();
}
/* Determine if we are in "new" mode, so that we don't
* start up unnecessary subsystems.
*/
sdf_mode_string = getProperty_String("SDF_MODE", "new");
if (strcmp(sdf_mode_string, "new") == 0) {
SDFNew_Mode = SDF_TRUE;
} else {
SDFNew_Mode = SDF_FALSE;
}
/* Determine if replication is turned on.
*/
sdf_replication_string = getProperty_String("SDF_REPLICATION", "Off");
if (strcmp(sdf_replication_string, "On") == 0) {
SDFEnable_Replication = SDF_TRUE;
} else {
sdf_replication_string = getProperty_String("SDF_SIMPLE_REPLICATION", "Off");
if (strcmp(sdf_replication_string, "On") == 0) {
SDFEnable_Replication = SDF_TRUE;
} else {
SDFEnable_Replication = SDF_FALSE;
}
}
if (success) {
success = agent_engine_pre_init_internal(state, argc, argv);
}
return (success);
}
int
main(int argc, char** argv)
{
int retval = 0;
Termlog = 1;
dprintf_config("TOOL", get_param_functions());
set_debug_flags(0, D_ALWAYS);
config();
retval = sysapi_test_dump_all(argc, argv);
printf("Failed tests = %d\n",retval);
return (retval);
}
void scan_options (int argc, char **argv) {
opterr = false;
for (;;) {
int option = getopt (argc, argv, "@:");
if (option == EOF) break;
switch (option) {
case '@': set_debug_flags (optarg);
break;
default : printf ("%s: -%c: invalid option\n",
program_name, optopt);
break;
}
}
}
static void
parse_args(int argc, char *argv[]) {
int argch;
while (-1 != (argch = getopt(argc, argv, "nx:"))) {
switch (argch) {
default:
usage();
break;
case 'x':
if (!set_debug_flags(optarg))
usage();
break;
case 'n':
NoFork = 1;
break;
}
}
}
// Main method for testing the Perm functions
int
main(int argc, char* argv[]) {
char *filename, *domain, *username;
perm* foo = new perm();
DebugFP = stdout;
set_debug_flags( "D_ALL", 0 );
//char p_ntdomain[80];
//char buf[100];
if (argc < 4) {
cout << "Usage:\nperm filename domain username" << endl;
return (1);
}
filename = argv[1];
domain = argv[2];
username = argv[3];
foo->init(username, domain);
cout << "Checking write access for " << filename << endl;
int result = foo->write_access(filename);
if ( result == 1) {
cout << "You can write to " << filename << endl;
}
else if (result == 0) {
cout << "You are not allowed to write to " << filename << endl;
}
else if (result == -1) {
cout << "An error has occured\n";
}
else {
cout << "Ok you're screwed" << endl;
}
delete foo;
return(0);
}
int
Options::handleOpt( SimpleArg &arg, int &argno )
{
if ( arg.Match('n', "numeric") ) {
m_numeric = true;
} else if ( arg.Match('d', "debug") ) {
if ( arg.hasOpt() ) {
set_debug_flags( const_cast<char *>(arg.getOpt()), 0 );
argno = arg.ConsumeOpt( );
} else {
fprintf(stderr, "Value needed for '%s'\n", arg.Arg() );
printf("%s", m_usage);
return -1;
}
} else if ( arg.Match('v') ) {
m_verbose++;
} else if ( arg.Match("verbosity") ) {
if ( !arg.getOpt( m_verbose ) ) {
fprintf(stderr, "Value needed for '%s'\n", arg.Arg() );
printf("%s", m_usage);
return -1;
}
} else if ( arg.Match("version") ) {
printf("test_log_reader_state: %s, %s\n", VERSION, __DATE__);
return 1;
}
else {
fprintf(stderr, "Unrecognized argument: '%s'\n", arg.Arg() );
printf("%s", m_usage);
return -1;
}
return 0;
}
Status
CheckArgs(int argc, char **argv)
{
Status status = STATUS_OK;
const char * usage = "Usage: test_check_events [options]\n"
" -debug <level>: debug level (e.g., D_FULLDEBUG)\n"
" -usage: print this message and exit\n"
" -version: print the version number and compile date\n";
for ( int index = 1; index < argc; ++index ) {
if ( !strcmp(argv[index], "-debug") ) {
if ( ++index >= argc ) {
fprintf(stderr, "Value needed for -debug argument\n");
printf("%s", usage);
status = STATUS_ERROR;
} else {
set_debug_flags( argv[index], 0 );
}
} else if ( !strcmp(argv[index], "-usage") ) {
printf("%s", usage);
status = STATUS_CANCEL;
} else if ( !strcmp(argv[index], "-version") ) {
printf("test_check_events: %s, %s\n", VERSION, __DATE__);
status = STATUS_CANCEL;
} else {
fprintf(stderr, "Unrecognized argument: <%s>\n", argv[index]);
printf("%s", usage);
status = STATUS_ERROR;
}
}
return status;
}
int
main( int argc, char ** const argv )
{
#ifndef WIN32
/* Add the signals we want unblocked into sigSet */
sigset_t sigSet;
struct sigaction act;
sigemptyset( &sigSet );
sigaddset(&sigSet,SIGTERM);
sigaddset(&sigSet,SIGQUIT);
sigaddset(&sigSet,SIGPIPE);
/* Set signal handlers */
sigemptyset(&act.sa_mask); /* do not block anything in handler */
act.sa_flags = 0;
/* Signals which should cause us to exit with status = signum */
act.sa_handler = quit_on_signal;
sigaction(SIGTERM,&act,0);
sigaction(SIGQUIT,&act,0);
sigaction(SIGPIPE,&act,0);
/* Unblock signals in our set */
sigprocmask( SIG_UNBLOCK, &sigSet, NULL );
#endif
set_mySubSystem("AMAZON_GAHP", SUBSYSTEM_TYPE_GAHP);
int min_workers = MIN_NUMBER_WORKERS;
int max_workers = -1;
const char * dprintfName = "EC2_GAHP";
int c = 0;
while ( (c = my_getopt(argc, argv, "l:f:d:w:m:" )) != -1 ) {
switch(c) {
case 'l':
if( my_optarg && *my_optarg ) {
dprintfName = my_optarg;
}
break;
case 'f':
break;
case 'd':
// Debug Level
if( my_optarg && *my_optarg ) {
set_debug_flags(my_optarg, 0);
}
break;
case 'w':
// Minimum number of worker pools
min_workers = atoi(my_optarg);
if( min_workers < MIN_NUMBER_WORKERS ) {
min_workers = MIN_NUMBER_WORKERS;
}
break;
case 'm':
// Maximum number of worker pools
max_workers = atoi(my_optarg);
if( max_workers <= 0 ) {
max_workers = -1;
}
break;
default:
usage();
}
}
config();
dprintf_config( dprintfName );
const char * debug_string = getenv( "DebugLevel" );
if( debug_string && * debug_string ) {
set_debug_flags( debug_string, 0 );
}
dprintf(D_FULLDEBUG, "Welcome to the EC2 GAHP\n");
const char *buff;
//Try to read env for amazon_http_proxy
buff = getenv(AMAZON_HTTP_PROXY);
if( buff && *buff ) {
set_amazon_proxy_server(buff);
dprintf(D_ALWAYS, "Using http proxy = %s\n", buff);
}
// Register all amazon commands
if( registerAllAmazonCommands() == false ) {
dprintf(D_ALWAYS, "Can't register Amazon Commands\n");
exit(1);
}
// Create IOProcess class
ioprocess = new IOProcess;
ASSERT(ioprocess);
if( ioprocess->startUp(REQUEST_INBOX, min_workers, max_workers) == false ) {
dprintf(D_ALWAYS, "Failed to start IO Process\n");
delete ioprocess;
exit(1);
}
// Print out the GAHP version to the screen
// now we're ready to roll
printf ("%s\n", version);
fflush(stdout);
dprintf( D_ALWAYS, "EC2 GAHP initialized\n" );
/* Our main thread should grab the mutex first. We will then
* release it and let other threads run when we would otherwise
* block.
*/
amazon_gahp_grab_big_mutex();
for(;;) {
ioprocess->stdinPipeHandler();
}
return 0;
}
int main(int argc, char **argv)
{
int result = 0;
if ( argc <= 1 || (argc >= 2 && !strcmp("-usage", argv[1])) ) {
printf("Usage: condor_check_userlogs <log file 1> "
"[log file 2] ... [log file n]\n");
exit(0);
}
// Set up dprintf.
dprintf_set_tool_debug("condor_check_userlogs", 0);
set_debug_flags(NULL, D_ALWAYS);
StringList logFiles;
for ( int argnum = 1; argnum < argc; ++argnum ) {
logFiles.append(argv[argnum]);
}
logFiles.rewind();
ReadMultipleUserLogs ru;
char *filename;
while ( (filename = logFiles.next()) ) {
MyString filestring( filename );
CondorError errstack;
if ( !ru.monitorLogFile( filestring, false, errstack ) ) {
fprintf( stderr, "Error monitoring log file %s: %s\n", filename,
errstack.getFullText().c_str() );
result = 1;
}
}
bool logsMissing = false;
CheckEvents ce;
int totalSubmitted = 0;
int netSubmitted = 0;
bool done = false;
while( !done ) {
ULogEvent* e = NULL;
MyString errorMsg;
ULogEventOutcome outcome = ru.readEvent( e );
switch (outcome) {
case ULOG_RD_ERROR:
case ULOG_UNK_ERROR:
logsMissing = true;
case ULOG_NO_EVENT:
printf( "Log outcome: %s\n", ULogEventOutcomeNames[outcome] );
done = true;
break;
case ULOG_OK:
printf( "Log event: %s (%d.%d.%d)",
ULogEventNumberNames[e->eventNumber],
e->cluster, e->proc, e->subproc );
if ( ce.CheckAnEvent(e, errorMsg) != CheckEvents::EVENT_OKAY ) {
fprintf(stderr, "%s\n", errorMsg.Value());
result = 1;
}
if( e->eventNumber == ULOG_SUBMIT ) {
SubmitEvent* ee = (SubmitEvent*) e;
printf( " (\"%s\")", ee->submitEventLogNotes );
++totalSubmitted;
++netSubmitted;
printf( "\n Total submitted: %d; net submitted: %d\n",
totalSubmitted, netSubmitted );
}
if( e->eventNumber == ULOG_JOB_HELD ) {
JobHeldEvent* ee = (JobHeldEvent*) e;
printf( " (code=%d subcode=%d)", ee->getReasonCode(),
ee->getReasonSubCode());
}
if( e->eventNumber == ULOG_JOB_TERMINATED ) {
--netSubmitted;
printf( "\n Total submitted: %d; net submitted: %d\n",
totalSubmitted, netSubmitted );
}
if( e->eventNumber == ULOG_JOB_ABORTED ) {
--netSubmitted;
printf( "\n Total submitted: %d; net submitted: %d\n",
totalSubmitted, netSubmitted );
}
if( e->eventNumber == ULOG_EXECUTABLE_ERROR ) {
--netSubmitted;
printf( "\n Total submitted: %d; net submitted: %d\n",
totalSubmitted, netSubmitted );
}
printf( "\n" );
break;
default:
fprintf(stderr, "Unexpected read event outcome!\n");
result = 1;
break;
}
}
logFiles.rewind();
while ( (filename = logFiles.next()) ) {
MyString filestring( filename );
CondorError errstack;
if ( !ru.unmonitorLogFile( filestring, errstack ) ) {
fprintf( stderr, "Error unmonitoring log file %s: %s\n", filename,
errstack.getFullText().c_str() );
result = 1;
}
}
MyString errorMsg;
CheckEvents::check_event_result_t checkAllResult =
ce.CheckAllJobs(errorMsg);
if ( checkAllResult != CheckEvents::EVENT_OKAY ) {
fprintf(stderr, "%s\n", errorMsg.Value());
fprintf(stderr, "CheckAllJobs() result: %s\n",
CheckEvents::ResultToString(checkAllResult));
result = 1;
}
if ( result == 0 ) {
if ( !logsMissing ) {
printf("Log(s) are okay\n");
} else {
printf("Log(s) may be okay\n");
printf( "Some logs cannot be read\n");
}
} else {
printf("Log(s) have error(s)\n");
}
return result;
}
/* the main entry function, this will do all the magic */
extern "C" int
sysapi_test_dump_all(int argc, char** argv)
{
int foo;
int return_val = 0;
int tests = TEST_NONE;
int failed_tests = 0;
int passed_tests = 0;
int i;
int print_help = 0;
#if defined(LINUX)
const char *linux_cpuinfo_file = NULL;
int linux_cpuinfo_debug = 0;
const char *linux_uname = NULL;
int linux_num = -1;
int linux_processors = -1;
int linux_hthreads = -1;
int linux_hthreads_core = -1;
int linux_cpus = -1;
#endif
int ncpus_trials = NCPUS_TRIALS;
int skip = 0;
const char *free_fs_dir = "/tmp";
if (argc <= 1)
tests = TEST_ALL;
for (i=1; i<argc; i++) {
if ( skip ) {
skip--;
continue;
}
if (strcmp(argv[i], "--arch") == 0)
tests |= ARCH;
else if (strcmp(argv[i], "--kern_memmod") == 0)
tests |= KERN_MEMMOD;
else if (strcmp(argv[i], "--kern_vers") == 0)
tests |= KERN_VERS;
else if (strcmp(argv[i], "--ckptpltfrm") == 0)
tests |= CKPTPLTFRM;
else if (strcmp(argv[i], "--dump") == 0)
tests |= DUMP;
else if (strcmp(argv[i], "--free_fs_blocks") == 0) {
tests |= FREE_FS_BLOCKS;
if ( ( i+1 < argc ) &&
( (*argv[i+1] == '/') || (*argv[i+1] == '.') ) ) {
skip = 1;
free_fs_dir = argv[i+1];
}
}
else if (strcmp(argv[i], "--idle_time") == 0)
tests |= IDLE_TIME;
else if (strcmp(argv[i], "--kflops") == 0)
tests |= KFLOPS;
else if (strcmp(argv[i], "--last_x_event") == 0)
tests |= LAST_X_EVENT;
else if (strcmp(argv[i], "--load_avg") == 0)
tests |= LOAD_AVG;
else if (strcmp(argv[i], "--mips") == 0)
tests |= MIPS;
else if (strcmp(argv[i], "--ncpus") == 0) {
tests |= NCPUS;
}
else if (strcmp(argv[i], "--phys_mem") == 0)
tests |= PHYS_MEM;
else if (strcmp(argv[i], "--virt_mem") == 0)
tests |= VIRT_MEM;
else if ( (strcmp(argv[i], "--debug") == 0) && (i+1 < argc) ) {
set_debug_flags( argv[i+1], 0 );
skip = 1;
}
# if defined(LINUX)
else if (strcmp(argv[i], "--proc_cpuinfo") == 0) {
tests |= NCPUS;
linux_cpuinfo_file = "/proc/cpuinfo";
linux_cpuinfo_debug = 1; // Turn on debugging
linux_num = 0;
}
else if ( (strcmp(argv[i], "--cpuinfo_file") == 0) && (i+2 < argc) ) {
tests |= NCPUS;
linux_cpuinfo_file = argv[i+1];
linux_cpuinfo_debug = 1; // Turn on debugging
if ( isdigit( *argv[i+2] ) ) {
linux_num = atoi( argv[i+2] );
} else {
linux_uname = argv[i+2];
}
skip = 2;
}
# endif
else if (strcmp(argv[i], "-h") == 0 || strcmp(argv[i], "--help") == 0)
print_help = 1;
else {
printf("%s is not an understood option. ", argv[i]);
print_help = 1;
}
if (print_help != 0) {
printf("Please use zero or more or:\n");
printf("--debug <D_xxx>\n");
printf("--arch\n");
printf("--kern_vers\n");
printf("--kern_memmod\n");
printf("--ckptpltfrm\n");
printf("--dump\n");
printf("--free_fs_blocks [dir]\n");
printf("--idle_time\n");
printf("--kflops\n");
printf("--last_x_event\n");
printf("--load_avg\n");
printf("--mips\n");
printf("--ncpus\n");
printf("--phys_mem\n");
printf("--virt_mem\n");
# if defined(LINUX)
printf("--proc_cpuinfo\n");
printf("--cpuinfo_file <file> <uname match string>|<cpuinfo #>\n");
# endif
return 0;
}
}
if ((tests & KERN_MEMMOD) == KERN_MEMMOD) {
dprintf(D_ALWAYS, "SysAPI: BEGIN SysAPI DUMP!\n");
dprintf(D_ALWAYS, "SysAPI: Kernel memory model: %s\n",
sysapi_kernel_memory_model());
dprintf(D_ALWAYS, "SysAPI: END SysAPI DUMP!\n\n");
}
if ((tests & KERN_VERS) == KERN_VERS) {
dprintf(D_ALWAYS, "SysAPI: BEGIN SysAPI DUMP!\n");
dprintf(D_ALWAYS, "SysAPI: Kernel version: %s\n",
sysapi_kernel_version());
dprintf(D_ALWAYS, "SysAPI: END SysAPI DUMP!\n\n");
}
if ((tests & CKPTPLTFRM) == CKPTPLTFRM) {
dprintf(D_ALWAYS, "SysAPI: BEGIN SysAPI DUMP!\n");
sysapi_ckptpltfrm();
sysapi_test_dump_internal_vars();
sysapi_reconfig();
sysapi_test_dump_internal_vars();
dprintf(D_ALWAYS, "SysAPI: Checkpoint platform: %s\n",
sysapi_ckptpltfrm());
dprintf(D_ALWAYS, "SysAPI: END SysAPI DUMP!\n\n");
}
if ((tests & DUMP) == DUMP) {
dprintf(D_ALWAYS, "SysAPI: BEGIN SysAPI DUMP!\n");
sysapi_test_dump_internal_vars();
sysapi_reconfig();
sysapi_test_dump_internal_vars();
//sysapi_test_dump_functions();
dprintf(D_ALWAYS, "SysAPI: END SysAPI DUMP!\n\n");
}
if ((tests & ARCH) == ARCH) {
dprintf(D_ALWAYS, "SysAPI: BEGIN ARCH_TEST:\n");
foo = 0;
foo = arch_test(500);
dprintf(D_ALWAYS, "SysAPI: END ARCH_TEST:\n");
return_val |= foo;
if (foo == 0) {
dprintf(D_ALWAYS, "SysAPI: Passed ARCH_TEST.\n\n");
passed_tests++;
} else {
dprintf(D_ALWAYS, "SysAPI: Failed ARCH_TEST.\n\n");
failed_tests++;
}
}
if ((tests & FREE_FS_BLOCKS) == FREE_FS_BLOCKS) {
dprintf(D_ALWAYS, "SysAPI: BEGIN FREE_FS_BLOCKS_TEST:\n");
foo = 0;
foo = free_fs_blocks_test(free_fs_dir,
FREEBLOCKS_TRIALS,
FREEBLOCKS_TOLERANCE,
FREEBLOCKS_MAX_WARN_OK );
dprintf(D_ALWAYS, "SysAPI: END FREE_FS_BLOCKS_TEST:\n");
return_val |= foo;
if (foo == 0) {
dprintf(D_ALWAYS, "SysAPI: Passed FREE_FS_BLOCKS_TEST.\n\n");
passed_tests++;
} else {
dprintf(D_ALWAYS, "SysAPI: Failed FREE_FS_BLOCKS_TEST.\n\n");
failed_tests++;
}
}
if ((tests & IDLE_TIME) == IDLE_TIME) {
dprintf(D_ALWAYS, "SysAPI: BEGIN IDLE_TIME_TEST:\n");
foo = 0;
foo = idle_time_test(IDLETIME_TRIALS,
IDLETIME_INTERVAL,
IDLETIME_TOLERANCE,
IDLETIME_MAX_WARN_OK );
dprintf(D_ALWAYS, "SysAPI: END IDLE_TIME_TEST:\n");
return_val |= foo;
if (foo == 0) {
dprintf(D_ALWAYS, "SysAPI: Passed IDLE_TIME_TEST.\n\n");
passed_tests++;
} else {
dprintf(D_ALWAYS, "SysAPI: Failed IDLE_TIME_TEST.\n\n");
failed_tests++;
}
}
if ((tests & KFLOPS) == KFLOPS) {
dprintf(D_ALWAYS, "SysAPI: BEGIN KFLOPS_TEST:\n");
foo = 0;
foo = kflops_test(KFLOPS_TRIALS,
KFLOPS_MAX_SD_VAR,
KFLOPS_MAX_WARN_OK
);
dprintf(D_ALWAYS, "SysAPI: END KFLOPS_TEST:\n");
return_val |= foo;
if (foo == 0) {
dprintf(D_ALWAYS, "SysAPI: Passed KFLOPS_TEST.\n\n");
passed_tests++;
} else {
dprintf(D_ALWAYS, "SysAPI: Failed KFLOPS_TEST.\n\n");
failed_tests++;
}
}
if ((tests & LAST_X_EVENT) == LAST_X_EVENT) {
dprintf(D_ALWAYS, "SysAPI: SKIPPING LASE_X_EVENT_TEST: internally used variable only.\n\n");
}
if ((tests & LOAD_AVG) == LOAD_AVG) {
dprintf(D_ALWAYS, "SysAPI: BEGIN LOAD_AVG_TEST:\n");
foo = 0;
foo = load_avg_test(LOADAVG_TRIALS,
LOADAVG_INTERVAL,
LOADAVG_CHILDREN,
LOADAVG_MAX_WARN_OK);
dprintf(D_ALWAYS, "SysAPI: END LOAD_AVG_TEST:\n");
return_val |= foo;
if (foo == 0) {
dprintf(D_ALWAYS, "SysAPI: Passed LOAD_AVG_TEST.\n\n");
passed_tests++;
} else {
dprintf(D_ALWAYS, "SysAPI: Failed LOAD_AVG_TEST.\n\n");
failed_tests++;
}
}
if ((tests & MIPS) == MIPS) {
dprintf(D_ALWAYS, "SysAPI: BEGIN MIPS_TEST:\n");
foo = 0;
foo = mips_test(MIPS_TRIALS,
MIPS_MAX_SD_VAR,
MIPS_MAX_WARN_OK );
dprintf(D_ALWAYS, "SysAPI: END MIPS_TEST:\n");
return_val |= foo;
if (foo == 0) {
dprintf(D_ALWAYS, "SysAPI: Passed MIPS_TEST.\n\n");
passed_tests++;
} else {
dprintf(D_ALWAYS, "SysAPI: Failed MIPS_TEST.\n\n");
failed_tests++;
}
}
/* Special test: /proc/cpuinfo on a file */
#if defined(LINUX)
if ((tests & NCPUS) == NCPUS && linux_cpuinfo_file ) {
bool is_proc_cpuinfo = false;
/* set_debug_flags(NULL, D_FULLDEBUG); */
if ( strcmp( linux_cpuinfo_file, "/proc/cpuinfo" ) == 0 ) {
is_proc_cpuinfo = true;
dprintf( D_ALWAYS, "Using the real /proc/cpuinfo\n" );
}
FILE *fp = safe_fopen_wrapper_follow( linux_cpuinfo_file, "r", 0644 );
if ( !fp ) {
dprintf(D_ALWAYS, "SysAPI: Can't open cpuinfo file '%s'.\n\n",
linux_cpuinfo_file);
return(++failed_tests);
}
else {
/* Skip 'til we find the "right" uname */
char buf[256];
char uname[256];
int found = 0;
int linenum = 1;
int cpuinfo_num = 0; /* # of this cpuinfo block */
if ( is_proc_cpuinfo ) {
found = true;
strcpy( uname, "" );
}
else {
while( fgets( buf, sizeof(buf), fp) ) {
linenum++;
buf[sizeof(buf)-1] = '\0';
if ( !strncmp( buf, "UNAME:", 6 ) && ( strlen(buf) > 6 ) ){
cpuinfo_num++;
if ( ( ( linux_num >= 0 ) &&
( linux_num == cpuinfo_num ) ) ||
( linux_uname &&
strstr( buf, linux_uname ) ) ) {
strncpy( uname, buf+6, sizeof(uname) );
found = linenum;
}
}
else if ( found ) {
if ( !strncmp( buf, "START", 5 ) && found ) {
break;
}
sscanf( buf, "PROCESSORS: %d", &linux_processors );
sscanf( buf, "HTHREADS: %d", &linux_hthreads );
sscanf( buf, "HTHREADS_CORE: %d",
&linux_hthreads_core );
}
}
}
// Store the current file position & file name
_SysapiProcCpuinfo.file = linux_cpuinfo_file;
_SysapiProcCpuinfo.debug = linux_cpuinfo_debug;
_SysapiProcCpuinfo.offset = ftell( fp );
fclose( fp );
fp = NULL;
// Calculate total "non-primary" hyper threads
if ( ! is_proc_cpuinfo ) {
if ( ( linux_hthreads < 0 ) &&
( linux_hthreads_core > 0 ) &&
( linux_processors > 0 ) ) {
linux_hthreads = ( linux_processors -
( linux_processors /
linux_hthreads_core ) );
}
}
// Calculate the total # of CPUs
if ( linux_processors ) {
if ( param_boolean_int("COUNT_HYPERTHREAD_CPUS", 1) ) {
linux_cpus = linux_processors;
}
else {
linux_cpus = linux_processors - linux_hthreads;
}
}
if ( !found ) {
if ( linux_num >= 0 ) {
dprintf(D_ALWAYS,
"SysAPI: Can't find uname # %d in %s.\n\n",
linux_num, linux_cpuinfo_file );
}
else {
dprintf(D_ALWAYS,
"SysAPI: Can't find uname '%s' in %s.\n\n",
linux_uname, linux_cpuinfo_file );
}
return(++failed_tests);
}
if ( strlen( uname ) ) {
dprintf(D_ALWAYS,
"SysAPI: Using uname string on line %d:\n%s\n",
found, uname );
}
ncpus_trials = 1;
}
}
#endif
if ((tests & NCPUS) == NCPUS) {
dprintf(D_ALWAYS, "SysAPI: BEGIN NUMBER_CPUS_TEST:\n");
foo = 0;
foo = ncpus_test(ncpus_trials,
NCPUS_MAX_WARN_OK);
dprintf(D_ALWAYS, "SysAPI: END NUMBER_CPUS_TEST:\n");
return_val |= foo;
if (foo == 0) {
dprintf(D_ALWAYS, "SysAPI: Passed NUMBER_CPUS_TEST.\n\n");
passed_tests++;
} else {
dprintf(D_ALWAYS, "SysAPI: Failed NUMBER_CPUS_TEST.\n\n");
failed_tests++;
}
# if defined(LINUX)
if ( ( linux_processors >= 0 ) &&
( _SysapiProcCpuinfo.found_processors != linux_processors ) ) {
dprintf(D_ALWAYS,
"SysAPI/Linux: # Processors (%d) != expected (%d)\n",
_SysapiProcCpuinfo.found_processors,
linux_processors );
}
if ( ( linux_hthreads >= 0 ) &&
( _SysapiProcCpuinfo.found_hthreads != linux_hthreads ) ) {
dprintf(D_ALWAYS,
"SysAPI/Linux: # HyperThreads (%d) != expected (%d)\n",
_SysapiProcCpuinfo.found_hthreads,
linux_hthreads );
}
if ( ( linux_cpus > 0 ) &&
( _SysapiProcCpuinfo.found_ncpus != linux_cpus ) ) {
dprintf(D_ALWAYS,
"SysAPI/Linux: # CPUs (%d) != expected (%d)\n",
_SysapiProcCpuinfo.found_ncpus,
linux_cpus );
}
int level = D_FULLDEBUG;
if (linux_cpuinfo_debug) {
level = D_ALWAYS;
}
dprintf( level,
"SysAPI: Detected %d Processors, %d HyperThreads"
" => %d CPUS\n",
_SysapiProcCpuinfo.found_processors,
_SysapiProcCpuinfo.found_hthreads,
_SysapiProcCpuinfo.found_ncpus );
# endif
}
if ((tests & PHYS_MEM) == PHYS_MEM) {
dprintf(D_ALWAYS, "SysAPI: BEGIN PHYSICAL_MEMORY_TEST:\n");
foo = 0;
foo = phys_memory_test(PHYSMEM_TRIALS, PHYSMEM_MAX_WARN_OK);
dprintf(D_ALWAYS, "SysAPI: END PHYSICAL_MEMORY_TEST:\n");
return_val |= foo;
if (foo == 0) {
dprintf(D_ALWAYS, "SysAPI: Passed PHYSICAL_MEMORY_TEST.\n\n");
passed_tests++;
} else {
dprintf(D_ALWAYS, "SysAPI: Failed PHYSICAL_MEMORY_TEST.\n\n");
failed_tests++;
}
}
if ((tests & VIRT_MEM) == VIRT_MEM) {
dprintf(D_ALWAYS, "SysAPI: BEGIN VIRTUAL_MEMORY_TEST:\n");
foo = 0;
foo = virt_memory_test(VIRTMEM_TESTBLOCK_SIZE,
VIRTMEM_MAX_SD_VAR,
VIRTMEM_MAX_FAIL_OK);
dprintf(D_ALWAYS, "SysAPI: END VIRTUAL_MEMORY_TEST:\n");
return_val |= foo;
if (foo == 0) {
dprintf(D_ALWAYS, "SysAPI: Passed VIRTUAL_MEMORY_TEST.\n\n");
passed_tests++;
} else {
dprintf(D_ALWAYS, "SysAPI: Failed VIRTUAL_MEMORY_TEST.\n\n");
failed_tests++;
}
}
printf("Passed tests = %d\n",passed_tests);
return(failed_tests);
}
int
main(int argc, const char **argv)
{
set_debug_flags(NULL, D_ALWAYS);
// initialize to read from config file
myDistro->Init( argc, argv );
config();
// Set up the dprintf stuff...
Termlog = true;
dprintf_config("TEST_NETWORK_ADAPTER", get_param_functions());
const char *tmp;
int status = 0;
Options opts;
if ( CheckArgs(argc, argv, opts) ) {
exit( 1 );
}
NetworkAdapterBase *net = NULL;
if ( opts.m_if_name ) {
printf( "Creating network adapter object for name %s\n",
opts.m_if_name );
net = NetworkAdapterBase::createNetworkAdapter( opts.m_if_name );
}
else {
MyString sinful;
sinful.formatstr( "<%s:1234>", opts.m_address );
printf( "Creating network adapter object for %s\n", sinful.Value() );
net = NetworkAdapterBase::createNetworkAdapter( sinful.Value() );
}
if ( !net ) {
printf( "Error creating adapter\n" );
exit(1);
}
// Initialize it
if ( !net->getInitStatus() ) {
printf( "Initialization of adaptor with address %s failed\n",
opts.m_address );
delete net;
exit(1);
}
// And, check for it's existence
if ( !net->exists() ) {
printf( "Adaptor with address %s not found\n",
opts.m_address );
delete net;
exit(1);
}
// Now, extract information from it
tmp = net->hardwareAddress();
if ( !tmp || !strlen(tmp) ) tmp = "<NONE>";
printf( "hardware address: %s\n", tmp );
tmp = net->subnetMask();
if ( !tmp || !strlen(tmp) ) tmp = "<NONE>";
printf( "subnet: %s\n", tmp );
printf( "wakable: %s\n", net->isWakeable() ? "YES" : "NO" );
MyString tmpstr;
net->wakeSupportedString( tmpstr );
printf( "wake support flags: %s\n", tmpstr.Value() );
net->wakeEnabledString( tmpstr );
printf( "wake enable flags: %s\n", tmpstr.Value() );
HibernatorBase *hibernator = new RealHibernator( );
if ( opts.m_method ) {
printf( "Setting method to %s\n", opts.m_method );
hibernator->setMethod( opts.m_method );
}
HibernationManager hman( hibernator );
if ( !hman.initialize( ) ) {
fprintf( stderr, "Initialization of hibernation manager failed\n" );
status = 1;
}
hman.addInterface( *net );
ClassAd ad;
hman.publish( ad );
ad.fPrint( stdout );
const char *method = hman.getHibernationMethod();
printf( "Hibernation method used: %s\n", method );
printf( "Can hibernate: %s\n", BoolString(hman.canHibernate()) );
printf( "Can wake: %s\n", BoolString(hman.canWake()) );
if ( hman.canHibernate() && opts.m_state != HibernatorBase::NONE ) {
printf( "Setting state %s\n", hman.sleepStateToString(opts.m_state) );
if ( ! hman.switchToState( opts.m_state ) ) {
printf( "Failed to switch states\n" );
status = 1;
}
}
if ( status != 0 && opts.m_verbosity >= 1 ) {
fprintf(stderr, "test_hibernation FAILED\n");
}
delete net;
return status;
}
int
main( int argc, char* argv[] )
{
int i;
param_functions *p_funcs = NULL;
set_mySubSystem( "DAEMON-TOOL", SUBSYSTEM_TYPE_TOOL );
MyName = argv[0];
myDistro->Init( argc, argv );
FILE *input_fp = stdin;
for( i=1; i<argc; i++ ) {
if( match_prefix( argv[i], "-daemontype" ) ) {
if( argv[i + 1] ) {
get_mySubSystem()->setName( argv[++i] );
get_mySubSystem()->setTypeFromName( );
} else {
usage();
}
} else if( match_prefix( argv[i], "-debug" ) ) {
// dprintf to console
Termlog = 1;
p_funcs = get_param_functions();
dprintf_config( "DAEMON-TOOL", p_funcs );
set_debug_flags(NULL, D_FULLDEBUG|D_SECURITY);
} else if( match_prefix( argv[i], "-" ) ) {
usage();
} else {
usage();
}
}
// If we didn't get told what subsystem we should use, set it
// to "TOOL".
if( !get_mySubSystem()->isNameValid() ) {
get_mySubSystem()->setName( "DAEMON-TOOL" );
}
config( 0, true );
IpVerify ipverify;
MyString line;
while( line.readLine(input_fp) ) {
line.chomp();
if( line.IsEmpty() || line[0] == '#' ) {
printf("%s\n",line.Value());
continue;
}
StringList fields(line.Value()," ");
fields.rewind();
char const *perm_str = fields.next();
char const *fqu = fields.next();
char const *ip = fields.next();
char const *expected = fields.next();
MyString sin_str = generate_sinful(ip, 0);
condor_sockaddr addr;
if( !addr.from_sinful(sin_str) ) {
fprintf(stderr,"Invalid ip address: %s\n",ip);
exit(1);
}
DCpermission perm = StringToDCpermission(perm_str);
if( perm == LAST_PERM ) {
fprintf(stderr,"Invalid permission level: %s\n",perm_str);
exit(1);
}
if( strcmp(fqu,"*") == 0 ) {
fqu = "";
}
char const *result;
MyString reason;
if( ipverify.Verify(perm,addr,fqu,&reason,&reason) != USER_AUTH_SUCCESS ) {
result = "DENIED";
}
else {
result = "ALLOWED";
}
if( expected && strcasecmp(expected,result) != 0 ) {
printf("Got wrong result '%s' for '%s': reason: %s!\n",
result,line.Value(),reason.Value());
printf("Aborting.\n");
exit(1);
}
if( expected ) {
printf("%s\n",line.Value());
}
else {
printf("%s %s\n",line.Value(),result);
}
}
}
//---------------------------------------------------------------------------
int main(int argc, char *argv[])
{
param_functions *p_funcs = NULL;
printf("\n");
// Set up the dprintf stuff to write to stderr, so that Condor
// libraries which use it will write to the right place...
Termlog = true;
p_funcs = get_param_functions();
dprintf_config("condor_submit_dag", p_funcs);
set_debug_flags(NULL, D_ALWAYS | D_NOHEADER);
config();
// Initialize our Distribution object -- condor vs. hawkeye, etc.
myDistro->Init( argc, argv );
// Load command-line arguments into the deepOpts and shallowOpts
// structures.
SubmitDagDeepOptions deepOpts;
SubmitDagShallowOptions shallowOpts;
parseCommandLine(deepOpts, shallowOpts, argc, argv);
int tmpResult;
// Recursively run ourself on nested DAGs. We need to do this
// depth-first so all of the lower-level .condor.sub files already
// exist when we check for log files.
if ( deepOpts.recurse ) {
tmpResult = doRecursion( deepOpts, shallowOpts );
if ( tmpResult != 0) {
fprintf( stderr, "Recursive submit(s) failed; exiting without "
"attempting top-level submit\n" );
return tmpResult;
}
}
// Further work to get the shallowOpts structure set up properly.
tmpResult = setUpOptions( deepOpts, shallowOpts );
if ( tmpResult != 0 ) return tmpResult;
// Check whether the output files already exist; if so, we may
// abort depending on the -f flag and whether we're running
// a rescue DAG.
ensureOutputFilesExist( deepOpts, shallowOpts );
// Make sure that all node jobs have log files, the files
// aren't on NFS, etc.
// Note that this MUST come after recursion, otherwise we'd
// pass down the "preserved" values from the current .condor.sub
// file.
if ( deepOpts.updateSubmit ) {
tmpResult = getOldSubmitFlags( shallowOpts );
if ( tmpResult != 0 ) return tmpResult;
}
// Write the actual submit file for DAGMan.
writeSubmitFile( deepOpts, shallowOpts );
return submitDag( shallowOpts );
}
static void
parse_args(int argc, char *argv[]) {
int argch;
if (!(pw = getpwuid(getuid()))) {
errx(ERROR_EXIT,
"your UID isn't in the passwd file. bailingo out");
}
if (strlen(pw->pw_name) >= sizeof User) {
errx(ERROR_EXIT, "username too long");
}
(void)strlcpy(User, pw->pw_name, sizeof(User));
(void)strlcpy(RealUser, User, sizeof(RealUser));
Filename[0] = '\0';
Option = opt_unknown;
while (-1 != (argch = getopt(argc, argv, getoptargs))) {
switch (argch) {
#if DEBUGGING
case 'x':
if (!set_debug_flags(optarg))
usage("bad debug option");
break;
#endif
case 'u':
if (MY_UID(pw) != ROOT_UID) {
errx(ERROR_EXIT,
"must be privileged to use -u");
}
if (!(pw = getpwnam(optarg))) {
errx(ERROR_EXIT, "user `%s' unknown", optarg);
}
if (strlen(optarg) >= sizeof User)
usage("username too long");
(void) strlcpy(User, optarg, sizeof(User));
break;
case 'l':
if (Option != opt_unknown)
usage("only one operation permitted");
Option = opt_list;
break;
case 'r':
if (Option != opt_unknown)
usage("only one operation permitted");
Option = opt_delete;
break;
case 'e':
if (Option != opt_unknown)
usage("only one operation permitted");
Option = opt_edit;
break;
default:
usage("unrecognized option");
}
}
endpwent();
if (Option != opt_unknown) {
if (argv[optind] != NULL)
usage("no arguments permitted after this option");
} else {
if (argv[optind] != NULL) {
Option = opt_replace;
if (strlen(argv[optind]) >= sizeof Filename)
usage("filename too long");
(void)strlcpy(Filename, argv[optind], sizeof(Filename));
} else
usage("file name must be specified for replace");
}
if (Option == opt_replace) {
/* we have to open the file here because we're going to
* chdir(2) into /var/cron before we get around to
* reading the file.
*/
if (!strcmp(Filename, "-"))
NewCrontab = stdin;
else {
/* relinquish the setuid status of the binary during
* the open, lest nonroot users read files they should
* not be able to read. we can't use access() here
* since there's a race condition. thanks go out to
* Arnt Gulbrandsen <*****@*****.**> for spotting
* the race.
*/
if (relinguish_priv() < OK) {
err(ERROR_EXIT, "swapping uids");
}
if (!(NewCrontab = fopen(Filename, "r"))) {
err(ERROR_EXIT, "cannot open `%s'", Filename);
}
if (regain_priv() < OK) {
err(ERROR_EXIT, "swapping uids back");
}
}
}
Debug(DMISC, ("user=%s, file=%s, option=%s\n",
User, Filename, Options[(int)Option]));
}
//---------------------------------------------------------------------------
int main(int argc, char *argv[])
{
printf("\n");
// Set up the dprintf stuff to write to stderr, so that Condor
// libraries which use it will write to the right place...
dprintf_set_tool_debug("TOOL", 0);
set_debug_flags(NULL, D_ALWAYS | D_NOHEADER);
config();
// Initialize our Distribution object -- condor vs. hawkeye, etc.
myDistro->Init( argc, argv );
// Load command-line arguments into the deepOpts and shallowOpts
// structures.
SubmitDagDeepOptions deepOpts;
SubmitDagShallowOptions shallowOpts;
// We're setting strScheddDaemonAdFile and strScheddAddressFile
// here so that the classad updating feature (see gittrac #1782)
// works properly. The problem is that the schedd daemon ad and
// address files are normally defined relative to the $LOG value.
// Because we specify a different log directory on the condor_dagman
// command line, if we don't set the values here, condor_dagman
// won't be able to find those files when it tries to communicate
/// with the schedd. wenger 2013-03-11
shallowOpts.strScheddDaemonAdFile = param( "SCHEDD_DAEMON_AD_FILE" );
shallowOpts.strScheddAddressFile = param( "SCHEDD_ADDRESS_FILE" );
parseCommandLine(deepOpts, shallowOpts, argc, argv);
int tmpResult;
// Recursively run ourself on nested DAGs. We need to do this
// depth-first so all of the lower-level .condor.sub files already
// exist when we check for log files.
if ( deepOpts.recurse ) {
if ( param_boolean( "DAGMAN_USE_OLD_DAG_READER", false ) ) {
fprintf( stderr, "Warning: DAGMAN_USE_OLD_DAG_READER "
"is no longer supported\n" );
}
tmpResult = doRecursionNew( deepOpts, shallowOpts );
if ( tmpResult != 0) {
fprintf( stderr, "Recursive submit(s) failed; exiting without "
"attempting top-level submit\n" );
return tmpResult;
}
}
// Further work to get the shallowOpts structure set up properly.
tmpResult = setUpOptions( deepOpts, shallowOpts );
if ( tmpResult != 0 ) return tmpResult;
// Check whether the output files already exist; if so, we may
// abort depending on the -f flag and whether we're running
// a rescue DAG.
ensureOutputFilesExist( deepOpts, shallowOpts );
// Make sure that all node jobs have log files, the files
// aren't on NFS, etc.
// Note that this MUST come after recursion, otherwise we'd
// pass down the "preserved" values from the current .condor.sub
// file.
if ( deepOpts.updateSubmit ) {
tmpResult = getOldSubmitFlags( shallowOpts );
if ( tmpResult != 0 ) return tmpResult;
}
// Write the actual submit file for DAGMan.
writeSubmitFile( deepOpts, shallowOpts );
return submitDag( shallowOpts );
}
bool
CheckArgs(int argc, const char **argv, Options &opts)
{
const char * usage =
"Usage: test_hibernation [options] <IP address|IF name> [state]\n"
" -d|--debug <level>: debug level (e.g., D_FULLDEBUG)\n"
" --usage|--help|-h: print this message and exit\n"
" -m|--method: specify Linux hibernation method to use\n"
" -v: Increase verbosity level by 1\n"
" --verbosity <number>: set verbosity level (default is 1)\n"
" --version: print the version number and compile date\n";
opts.m_if_name = NULL;
opts.m_address = "127.0.0.1";
opts.m_method = NULL;
opts.m_state = HibernatorBase::NONE;
opts.m_verbosity = 1;
int fixed = 0;
for ( int index = 1; index < argc; ) {
SimpleArg arg( argv, argc, index );
if ( arg.Error() ) {
printf("%s", usage);
return true;
}
if ( arg.Match( 'd', "debug") ) {
if ( arg.hasOpt() ) {
set_debug_flags( arg.getOpt(), 0 );
} else {
fprintf(stderr, "Value needed for %s\n", arg.Arg() );
printf("%s", usage);
return true;
}
}
else if ( ( arg.Match("usage") ) ||
( arg.Match('h') ) ||
( arg.Match("help") ) ) {
printf("%s", usage);
return true;
}
else if ( arg.Match('v') ) {
opts.m_verbosity++;
}
else if ( arg.Match("verbosity") ) {
if ( ! arg.getOpt(opts.m_verbosity) ) {
fprintf(stderr, "Value needed for %s\n", arg.Arg() );
printf("%s", usage);
return true;
}
}
else if ( arg.Match("version") ) {
printf("test_hibernation: %s, %s\n", VERSION, __DATE__);
return true;
}
else if ( arg.Match('m', "method") ) {
if ( !arg.getOpt(opts.m_method) ) {
fprintf(stderr, "Value needed for %s\n", arg.Arg() );
printf("%s", usage);
return true;
}
}
else if ( !arg.ArgIsOpt() && (fixed == 0) && arg.isOptInt() ) {
fixed++;
opts.m_address = arg.getOpt();
}
else if ( !arg.ArgIsOpt() && (fixed == 0) ) {
opts.m_if_name = arg.getOpt();
fixed++;
}
else if ( !arg.ArgIsOpt() && (fixed == 1) ) {
fixed++;
const char *s = arg.getOpt();
opts.m_state = HibernatorBase::stringToSleepState( s );
if ( opts.m_state == HibernatorBase::NONE ) {
fprintf( stderr, "Unknown state '%s'\n", s );
return true;
}
}
else {
fprintf(stderr, "Unrecognized argument: <%s>\n", arg.Arg() );
printf("%s", usage);
return true;
}
index = arg.Index();
}
return false;
}
static void
parse_args (int argc, char *argv[], char **const config_file_p)
{
int argch;
#ifdef CONFIG_FILE
*config_file_p = CONFIG_FILE;
#else
*config_file_p = NULL;
#endif
if (!(pw = getpwuid (getuid ())))
{
fprintf (stderr, "%s: your UID isn't in the passwd file.\n",
ProgramName);
fprintf (stderr, "bailing out.\n");
exit (ERROR_EXIT);
}
strncpy (User, pw->pw_name, MAX_UNAME-1);
strncpy (RealUser, User, MAX_UNAME);
Filename[0] = '\0';
Option = opt_unknown;
while (EOF != (argch = getopt (argc, argv, "u:lerx:")))
{
switch (argch)
{
case 'x':
if (!set_debug_flags (optarg))
usage ("bad debug option");
break;
case 'u':
if (getuid () != ROOT_UID)
{
fprintf (stderr, "must be privileged to use -u\n");
exit (ERROR_EXIT);
}
if (!(pw = getpwnam (optarg)))
{
fprintf (stderr, "%s: user `%s' unknown\n",
ProgramName, optarg);
exit (ERROR_EXIT);
}
(void) strncpy (User, optarg, MAX_UNAME - 1);
break;
case 'l':
if (Option != opt_unknown)
usage ("only one operation permitted");
Option = opt_list;
break;
case 'r':
if (Option != opt_unknown)
usage ("only one operation permitted");
Option = opt_delete;
break;
case 'e':
if (Option != opt_unknown)
usage ("only one operation permitted");
Option = opt_edit;
break;
default:
usage ("unrecognized option");
}
}
endpwent ();
if (Option != opt_unknown)
{
if (argv[optind] != NULL)
{
usage ("no arguments permitted after this option");
}
}
else
{
if (argv[optind] != NULL)
{
Option = opt_replace;
(void) strncpy (Filename, argv[optind], sizeof (Filename) - 1);
Filename[sizeof (Filename) - 1] = '\0';
}
else
{
usage ("file name must be specified for replace");
}
}
if (Option == opt_replace)
{
/* we have to open the file here because we're going to
* chdir(2) into /var/cron before we get around to
* reading the file.
*/
if (!strcmp (Filename, "-"))
{
NewCrontab = stdin;
}
else
{
/* relinquish the setuid status of the binary during
* the open, lest nonroot users read files they should
* not be able to read. we can't use access() here
* since there's a race condition. thanks go out to
* Arnt Gulbrandsen <*****@*****.**> for spotting
* the race.
*/
if (swap_uids () < OK)
{
perror ("swapping uids");
exit (ERROR_EXIT);
}
if (!(NewCrontab = fopen (Filename, "r")))
{
perror (Filename);
exit (ERROR_EXIT);
}
if (swap_uids () < OK)
{
perror ("swapping uids back");
exit (ERROR_EXIT);
}
}
}
Debug (DMISC, ("user=%s, file=%s, option=%s\n",
User, Filename, Options[(int) Option]));
}
int main(int argc, char **argv)
{
// Set up the dprintf stuff...
dprintf_set_tool_debug("test_check_events", 0);
set_debug_flags(NULL, D_ALWAYS);
bool result = true;
Status tmpStatus = CheckArgs(argc, argv);
if ( tmpStatus == STATUS_CANCEL ) {
return 0;
} else if ( tmpStatus == STATUS_ERROR ) {
return 1;
}
//-------------------------------------------------------------------------
printf("\n### Testing various error conditions (multiple "
"submits, etc.)\n\n");
CheckEvents ce1;
MyString errorMsg;
// Test a submit event.
SubmitEvent se1;
se1.cluster = 1234;
se1.proc = 0;
se1.subproc = 0;
CheckThisEvent(__LINE__, ce1, &se1, CheckEvents::EVENT_OKAY, result);
// Re-do the same submit event -- this should generate an error.
CheckThisEvent(__LINE__, ce1, &se1, CheckEvents::EVENT_ERROR, result);
// Test a submit event for a new job.
SubmitEvent se2;
se2.cluster = 1234;
se2.proc = 1;
se2.subproc = 0;
CheckThisEvent(__LINE__, ce1, &se2, CheckEvents::EVENT_OKAY, result);
// Test a terminate event. This should no longer fail because
// of better support for "write at least once" semantics.
JobTerminatedEvent te1;
te1.cluster = 1234;
te1.proc = 0;
te1.subproc = 0;
CheckThisEvent(__LINE__, ce1, &te1, CheckEvents::EVENT_OKAY, result);
// Test a job aborted event.
JobAbortedEvent ae2;
ae2.cluster = 1234;
ae2.proc = 1;
ae2.subproc = 0;
CheckThisEvent(__LINE__, ce1, &ae2, CheckEvents::EVENT_OKAY, result);
// Test an execute event. This should fail because we already
// got an aborted event for this job.
ExecuteEvent exec;
exec.cluster = 1234;
exec.proc = 1;
exec.subproc = 0;
CheckThisEvent(__LINE__, ce1, &exec, CheckEvents::EVENT_ERROR, result);
// Test an execute event. This should fail because we haven't
// gotten a submit event for this job.
exec.cluster = 1234;
exec.proc = 5;
exec.subproc = 0;
CheckThisEvent(__LINE__, ce1, &exec, CheckEvents::EVENT_ERROR, result);
// Test a terminate event. This should fail because we already
// got an aborted event for this job.
JobTerminatedEvent te2;
te2.cluster = 1234;
te2.proc = 1;
te2.subproc = 0;
CheckThisEvent(__LINE__, ce1, &te2, CheckEvents::EVENT_ERROR, result);
// Test a job aborted event. This should fail because we
// don't have a submit event for this job yet.
JobAbortedEvent ae3;
ae3.cluster = 1236;
ae3.proc = 0;
ae3.subproc = 0;
CheckThisEvent(__LINE__, ce1, &ae3, CheckEvents::EVENT_ERROR, result);
// Test a submit event for the job that just aborted. This
// should fail because we got the abort before the submit.
SubmitEvent se3;
se3.cluster = 1236;
se3.proc = 0;
se3.subproc = 0;
CheckThisEvent(__LINE__, ce1, &se3, CheckEvents::EVENT_ERROR, result);
printf("\nTesting CheckAllJobs()... ");
CheckEvents::check_event_result_t tmpResult = ce1.CheckAllJobs(errorMsg);
CheckResult(__LINE__, CheckEvents::EVENT_ERROR, tmpResult, errorMsg,
result);
//-------------------------------------------------------------------------
printf("\n### Testing good events\n\n");
// Make a new CheckEvents object where we only insert "correct"
// events...
CheckEvents ce2;
CheckThisEvent(__LINE__, ce2, &se1, CheckEvents::EVENT_OKAY, result);
CheckThisEvent(__LINE__, ce2, &se2, CheckEvents::EVENT_OKAY, result);
CheckThisEvent(__LINE__, ce2, &te1, CheckEvents::EVENT_OKAY, result);
// This should fail because the second job doesn't have a terminate
// or abort event.
printf("Testing CheckAllJobs()... ");
tmpResult = ce2.CheckAllJobs(errorMsg);
CheckResult(__LINE__, CheckEvents::EVENT_ERROR, tmpResult, errorMsg,
result);
ExecutableErrorEvent ee2;
ee2.cluster = 1234;
ee2.proc = 1;
ee2.subproc = 0;
CheckThisEvent(__LINE__, ce2, &ee2, CheckEvents::EVENT_OKAY, result);
CheckThisEvent(__LINE__, ce2, &ae2, CheckEvents::EVENT_OKAY, result);
PostScriptTerminatedEvent pt1;
// Note: special "no submit" ID.
pt1.cluster = -1;
pt1.proc = 0;
pt1.subproc = 0;
CheckThisEvent(__LINE__, ce2, &pt1, CheckEvents::EVENT_OKAY, result);
printf("\nTesting CheckAllJobs()... ");
tmpResult = ce2.CheckAllJobs(errorMsg);
CheckResult(__LINE__, CheckEvents::EVENT_OKAY, tmpResult, errorMsg,
result);
//-------------------------------------------------------------------------
printf("\n### Testing allowing \"extra\" abort events\n\n");
// Make a new CheckEvents object that allows extra abort events
// (apparently Condor sometimes generates a terminate and an abort
// event).
CheckEvents ce3(CheckEvents::ALLOW_TERM_ABORT);
SubmitEvent se4;
se4.cluster = 9876;
se4.proc = 5;
se4.subproc = 0;
CheckThisEvent(__LINE__, ce3, &se4, CheckEvents::EVENT_OKAY, result);
ExecuteEvent exec2;
exec2.cluster = 9876;
exec2.proc = 5;
exec2.subproc = 0;
CheckThisEvent(__LINE__, ce3, &exec2, CheckEvents::EVENT_OKAY, result);
JobTerminatedEvent te3;
te3.cluster = 9876;
te3.proc = 5;
te3.subproc = 0;
CheckThisEvent(__LINE__, ce3, &te3, CheckEvents::EVENT_OKAY, result);
JobAbortedEvent ae4;
ae4.cluster = 9876;
ae4.proc = 5;
ae4.subproc = 0;
CheckThisEvent(__LINE__, ce3, &ae4, CheckEvents::EVENT_BAD_EVENT, result);
printf("\nTesting CheckAllJobs()... ");
tmpResult = ce3.CheckAllJobs(errorMsg);
CheckResult(__LINE__, CheckEvents::EVENT_BAD_EVENT, tmpResult, errorMsg,
result);
//-------------------------------------------------------------------------
printf("\n### Testing that we catch \"extra\" abort events if we don't "
"explicitly allow them\n\n");
CheckEvents ce4;
CheckThisEvent(__LINE__, ce4, &se4, CheckEvents::EVENT_OKAY, result);
CheckThisEvent(__LINE__, ce4, &exec2, CheckEvents::EVENT_OKAY, result);
CheckThisEvent(__LINE__, ce4, &te3, CheckEvents::EVENT_OKAY, result);
CheckThisEvent(__LINE__, ce4, &ae4, CheckEvents::EVENT_ERROR, result);
printf("\nTesting CheckAllJobs()... ");
tmpResult = ce4.CheckAllJobs(errorMsg);
CheckResult(__LINE__, CheckEvents::EVENT_ERROR, tmpResult, errorMsg,
result);
//-------------------------------------------------------------------------
printf("\n### Testing allowing multiple runs\n\n");
CheckEvents ce5(CheckEvents::ALLOW_RUN_AFTER_TERM);
CheckThisEvent(__LINE__, ce5, &se4, CheckEvents::EVENT_OKAY, result);
CheckThisEvent(__LINE__, ce5, &exec2, CheckEvents::EVENT_OKAY, result);
CheckThisEvent(__LINE__, ce5, &te3, CheckEvents::EVENT_OKAY, result);
CheckThisEvent(__LINE__, ce5, &exec2, CheckEvents::EVENT_BAD_EVENT, result);
CheckThisEvent(__LINE__, ce5, &te3, CheckEvents::EVENT_BAD_EVENT, result);
printf("\nTesting CheckAllJobs()... ");
// Note that here we're no longer explicitly allowing "run after
// terminate", but this check doesn't fail because we don't know
// whether any of the terminates came before the executes.
ce5.SetAllowEvents(CheckEvents::ALLOW_DOUBLE_TERMINATE);
tmpResult = ce5.CheckAllJobs(errorMsg);
CheckResult(__LINE__, CheckEvents::EVENT_BAD_EVENT, tmpResult, errorMsg,
result);
//-------------------------------------------------------------------------
printf("\n### Testing that we catch multiple runs if we don't "
"explicitly allow them\n\n");
CheckEvents ce6;
CheckThisEvent(__LINE__, ce6, &se4, CheckEvents::EVENT_OKAY, result);
CheckThisEvent(__LINE__, ce6, &exec2, CheckEvents::EVENT_OKAY, result);
CheckThisEvent(__LINE__, ce6, &te3, CheckEvents::EVENT_OKAY, result);
CheckThisEvent(__LINE__, ce6, &exec2, CheckEvents::EVENT_ERROR, result);
CheckThisEvent(__LINE__, ce6, &te3, CheckEvents::EVENT_ERROR, result);
CheckThisEvent(__LINE__, ce6, &pt1, CheckEvents::EVENT_OKAY, result);
printf("\nTesting CheckAllJobs()... ");
tmpResult = ce6.CheckAllJobs(errorMsg);
CheckResult(__LINE__, CheckEvents::EVENT_ERROR, tmpResult, errorMsg,
result);
//-------------------------------------------------------------------------
printf("\n### Testing allowing garbage\n\n");
CheckEvents ce7(CheckEvents::ALLOW_GARBAGE);
SubmitEvent se5;
se4.cluster = 1000;
se4.proc = 0;
se4.subproc = 0;
CheckThisEvent(__LINE__, ce7, &se5, CheckEvents::EVENT_OKAY, result);
ExecuteEvent exec3;
exec3.cluster = 2000; // Note different from submit event!
exec3.proc = 0;
exec3.subproc = 0;
CheckThisEvent(__LINE__, ce7, &exec3, CheckEvents::EVENT_WARNING, result);
JobTerminatedEvent te4;
te4.cluster = 3000;
te4.proc = 0;
te4.subproc = 0;
CheckThisEvent(__LINE__, ce7, &te4, CheckEvents::EVENT_WARNING, result);
printf("\nTesting CheckAllJobs()... ");
tmpResult = ce7.CheckAllJobs(errorMsg);
CheckResult(__LINE__, CheckEvents::EVENT_BAD_EVENT, tmpResult, errorMsg,
result);
CheckThisEvent(__LINE__, ce7, &te4, CheckEvents::EVENT_ERROR, result);
printf("\nTesting CheckAllJobs()... ");
tmpResult = ce7.CheckAllJobs(errorMsg);
CheckResult(__LINE__, CheckEvents::EVENT_ERROR, tmpResult, errorMsg,
result);
//-------------------------------------------------------------------------
printf("\n### Testing allowing almost all bad events\n\n");
CheckEvents ce8(CheckEvents::ALLOW_ALMOST_ALL);
ExecuteEvent exec8;
exec8.cluster = 1234;
exec8.proc = 0;
exec8.subproc = 0;
CheckThisEvent(__LINE__, ce8, &exec8, CheckEvents::EVENT_WARNING, result);
CheckThisEvent(__LINE__, ce8, &se1, CheckEvents::EVENT_OKAY, result);
CheckThisEvent(__LINE__, ce8, &te1, CheckEvents::EVENT_OKAY, result);
CheckThisEvent(__LINE__, ce8, &se1, CheckEvents::EVENT_BAD_EVENT, result);
// ALLOW_ALMOST_ALL should *not* allow execute after terminate.
CheckThisEvent(__LINE__, ce8, &exec8, CheckEvents::EVENT_ERROR, result);
CheckThisEvent(__LINE__, ce8, &te1, CheckEvents::EVENT_BAD_EVENT, result);
printf("\nTesting CheckAllJobs()... ");
tmpResult = ce8.CheckAllJobs(errorMsg);
CheckResult(__LINE__, CheckEvents::EVENT_BAD_EVENT, tmpResult, errorMsg,
result);
//-------------------------------------------------------------------------
printf("\n### Testing allowing execute before submit\n\n");
CheckEvents ce9(CheckEvents::ALLOW_EXEC_BEFORE_SUBMIT);
ExecuteEvent exec9;
exec9.cluster = 1234;
exec9.proc = 0;
exec9.subproc = 0;
CheckThisEvent(__LINE__, ce9, &exec9, CheckEvents::EVENT_WARNING, result);
CheckThisEvent(__LINE__, ce9, &se1, CheckEvents::EVENT_OKAY, result);
CheckThisEvent(__LINE__, ce9, &te1, CheckEvents::EVENT_OKAY, result);
// This should return OKAY because at this point we don't
// remember that the execute came before the submit.
printf("\nTesting CheckAllJobs()... ");
tmpResult = ce9.CheckAllJobs(errorMsg);
CheckResult(__LINE__, CheckEvents::EVENT_OKAY, tmpResult, errorMsg,
result);
//-------------------------------------------------------------------------
printf("\n### Testing allowing double-terminate\n\n");
CheckEvents ce10(CheckEvents::ALLOW_DOUBLE_TERMINATE);
CheckThisEvent(__LINE__, ce10, &se1, CheckEvents::EVENT_OKAY, result);
ExecuteEvent exec10;
exec10.cluster = 1234;
exec10.proc = 0;
exec10.subproc = 0;
CheckThisEvent(__LINE__, ce10, &exec10, CheckEvents::EVENT_OKAY, result);
CheckThisEvent(__LINE__, ce10, &te1, CheckEvents::EVENT_OKAY, result);
CheckThisEvent(__LINE__, ce10, &te1, CheckEvents::EVENT_BAD_EVENT, result);
PostScriptTerminatedEvent pt10;
pt10.cluster = 1234;
pt10.proc = 0;
pt10.subproc = 0;
CheckThisEvent(__LINE__, ce10, &pt10, CheckEvents::EVENT_OKAY, result);
printf("\nTesting CheckAllJobs()... ");
tmpResult = ce10.CheckAllJobs(errorMsg);
CheckResult(__LINE__, CheckEvents::EVENT_BAD_EVENT, tmpResult, errorMsg,
result);
CheckThisEvent(__LINE__, ce10, &se2, CheckEvents::EVENT_OKAY, result);
exec10.proc = 1;
CheckThisEvent(__LINE__, ce10, &exec10, CheckEvents::EVENT_OKAY, result);
CheckThisEvent(__LINE__, ce10, &te2, CheckEvents::EVENT_OKAY, result);
// Terminate then execute should still be an error.
CheckThisEvent(__LINE__, ce10, &exec10, CheckEvents::EVENT_ERROR, result);
CheckThisEvent(__LINE__, ce10, &te2, CheckEvents::EVENT_BAD_EVENT, result);
// We get bad event here instead of error because we don't
// "remember" that an execute event came after a terminated event.
printf("\nTesting CheckAllJobs()... ");
tmpResult = ce10.CheckAllJobs(errorMsg);
CheckResult(__LINE__, CheckEvents::EVENT_BAD_EVENT, tmpResult, errorMsg,
result);
//-------------------------------------------------------------------------
printf("\n### Testing running POST scripts after submit failures\n\n");
CheckEvents ce11;
PostScriptTerminatedEvent pt2;
// ID of POST script terminated event is -1.0.0 if all submit
// attempts of the node job failed.
pt2.cluster = -1;
pt2.proc = 0;
pt2.subproc = 0;
CheckThisEvent(__LINE__, ce11, &pt2, CheckEvents::EVENT_OKAY, result);
// This is okay because we specifically allow duplicates with the
// special "submit attempts failed" ID.
CheckThisEvent(__LINE__, ce11, &pt2, CheckEvents::EVENT_OKAY, result);
printf("\nTesting CheckAllJobs()... ");
tmpResult = ce11.CheckAllJobs(errorMsg);
CheckResult(__LINE__, CheckEvents::EVENT_OKAY, tmpResult, errorMsg,
result);
// Make sure we flag multiple post script terminates for a *real*
// job as errors...
SubmitEvent se11;
se11.cluster = 1234;
se11.proc = 0;
se11.subproc = 0;
CheckThisEvent(__LINE__, ce11, &se11, CheckEvents::EVENT_OKAY, result);
JobTerminatedEvent te11;
te11.cluster = 1234;
te11.proc = 0;
te11.subproc = 0;
CheckThisEvent(__LINE__, ce11, &te11, CheckEvents::EVENT_OKAY, result);
pt2.cluster = 1234;
pt2.proc = 0;
pt2.subproc = 0;
CheckThisEvent(__LINE__, ce11, &pt2, CheckEvents::EVENT_OKAY, result);
CheckThisEvent(__LINE__, ce11, &pt2, CheckEvents::EVENT_ERROR, result);
printf("\nTesting CheckAllJobs()... ");
tmpResult = ce11.CheckAllJobs(errorMsg);
CheckResult(__LINE__, CheckEvents::EVENT_ERROR, tmpResult, errorMsg,
result);
//-------------------------------------------------------------------------
printf("\n### Testing terminate after post script terminate\n\n");
CheckEvents ce12;
SubmitEvent se12;
se12.cluster = 1234;
se12.proc = 1;
se12.subproc = 0;
CheckThisEvent(__LINE__, ce12, &se12, CheckEvents::EVENT_OKAY, result);
ExecuteEvent exec12;
exec12.cluster = 1234;
exec12.proc = 1;
exec12.subproc = 0;
CheckThisEvent(__LINE__, ce12, &exec12, CheckEvents::EVENT_OKAY, result);
PostScriptTerminatedEvent pt12;
pt12.cluster = 1234;
pt12.proc = 1;
pt12.subproc = 0;
CheckThisEvent(__LINE__, ce12, &pt12, CheckEvents::EVENT_ERROR, result);
JobTerminatedEvent te12;
te12.cluster = 1234;
te12.proc = 1;
te12.subproc = 0;
CheckThisEvent(__LINE__, ce12, &te12, CheckEvents::EVENT_ERROR, result);
//-------------------------------------------------------------------------
printf("\n### Testing parallel universe\n\n");
CheckEvents ce13;
SubmitEvent se13;
se13.cluster = 101176;
se13.proc = 0;
se13.subproc = 0;
CheckThisEvent(__LINE__, ce13, &se13, CheckEvents::EVENT_OKAY, result);
NodeExecuteEvent ne13;
ne13.cluster = 101176;
ne13.proc = 0;
ne13.subproc = 0;
CheckThisEvent(__LINE__, ce13, &ne13, CheckEvents::EVENT_OKAY, result);
ne13.subproc = 1;
CheckThisEvent(__LINE__, ce13, &ne13, CheckEvents::EVENT_OKAY, result);
ExecuteEvent exec13;
exec13.cluster = 101176;
exec13.proc = 0;
exec13.subproc = 0;
CheckThisEvent(__LINE__, ce13, &exec13, CheckEvents::EVENT_OKAY, result);
NodeExecuteEvent nt13;
nt13.cluster = 101176;
nt13.proc = 0;
nt13.subproc = 0;
CheckThisEvent(__LINE__, ce13, &nt13, CheckEvents::EVENT_OKAY, result);
nt13.subproc = 1;
CheckThisEvent(__LINE__, ce13, &nt13, CheckEvents::EVENT_OKAY, result);
JobTerminatedEvent te13;
te13.cluster = 101176;
te13.proc = 0;
te13.subproc = 0;
CheckThisEvent(__LINE__, ce13, &te13, CheckEvents::EVENT_OKAY, result);
printf("\nTesting CheckAllJobs()... ");
tmpResult = ce13.CheckAllJobs(errorMsg);
CheckResult(__LINE__, CheckEvents::EVENT_OKAY, tmpResult, errorMsg,
result);
//-------------------------------------------------------------------------
printf("\n### Testing allowing duplicate events\n\n");
CheckEvents ce14(CheckEvents::ALLOW_DUPLICATE_EVENTS);
SubmitEvent se14;
se14.cluster = 123;
se14.proc = 0;
se14.subproc = 0;
CheckThisEvent(__LINE__, ce14, &se14, CheckEvents::EVENT_OKAY, result);
CheckThisEvent(__LINE__, ce14, &se14, CheckEvents::EVENT_BAD_EVENT,
result);
ExecuteEvent exec14;
exec14.cluster = 123;
exec14.proc = 0;
exec14.subproc = 0;
CheckThisEvent(__LINE__, ce14, &exec14, CheckEvents::EVENT_OKAY, result);
CheckThisEvent(__LINE__, ce14, &exec14, CheckEvents::EVENT_OKAY, result);
JobTerminatedEvent te14;
te14.cluster = 123;
te14.proc = 0;
te14.subproc = 0;
CheckThisEvent(__LINE__, ce14, &te14, CheckEvents::EVENT_OKAY, result);
CheckThisEvent(__LINE__, ce14, &te14, CheckEvents::EVENT_BAD_EVENT,
result);
PostScriptTerminatedEvent pt14;
pt14.cluster = 123;
pt14.proc = 0;
pt14.subproc = 0;
CheckThisEvent(__LINE__, ce14, &pt14, CheckEvents::EVENT_OKAY, result);
CheckThisEvent(__LINE__, ce14, &pt14, CheckEvents::EVENT_BAD_EVENT,
result);
CheckThisEvent(__LINE__, ce14, &te14, CheckEvents::EVENT_BAD_EVENT,
result);
//~~~~~~~~~~~~~~~~~~~~~
se14.cluster = 124;
CheckThisEvent(__LINE__, ce14, &se14, CheckEvents::EVENT_OKAY, result);
CheckThisEvent(__LINE__, ce14, &se14, CheckEvents::EVENT_BAD_EVENT,
result);
exec14.cluster = 124;
CheckThisEvent(__LINE__, ce14, &exec14, CheckEvents::EVENT_OKAY, result);
CheckThisEvent(__LINE__, ce14, &exec14, CheckEvents::EVENT_OKAY, result);
JobAbortedEvent ae14;
ae14.cluster = 124;
ae14.proc = 0;
ae14.subproc = 0;
CheckThisEvent(__LINE__, ce14, &ae14, CheckEvents::EVENT_OKAY, result);
CheckThisEvent(__LINE__, ce14, &ae14, CheckEvents::EVENT_BAD_EVENT,
result);
printf("\nTesting CheckAllJobs()... ");
tmpResult = ce14.CheckAllJobs(errorMsg);
CheckResult(__LINE__, CheckEvents::EVENT_BAD_EVENT, tmpResult, errorMsg,
result);
//-------------------------------------------------------------------------
printf("\n### Testing allowing terminated before submit\n\n");
CheckEvents ce15(CheckEvents::ALLOW_EXEC_BEFORE_SUBMIT);
ExecuteEvent exec15;
exec15.cluster = 123;
exec15.proc = 0;
exec15.subproc = 0;
CheckThisEvent(__LINE__, ce15, &exec15, CheckEvents::EVENT_WARNING,
result);
JobTerminatedEvent te15;
te15.cluster = 123;
te15.proc = 0;
te15.subproc = 0;
CheckThisEvent(__LINE__, ce15, &te15, CheckEvents::EVENT_WARNING,
result);
SubmitEvent se15;
se15.cluster = 123;
se15.proc = 0;
se15.subproc = 0;
CheckThisEvent(__LINE__, ce15, &se15, CheckEvents::EVENT_BAD_EVENT,
result);
printf("\nTesting CheckAllJobs()... ");
tmpResult = ce15.CheckAllJobs(errorMsg);
CheckResult(__LINE__, CheckEvents::EVENT_OKAY, tmpResult, errorMsg,
result);
//-------------------------------------------------------------------------
if ( result ) {
printf("\nTest SUCCCEEDED\n");
return 0;
} else {
printf("\nTest FAILED!!!!!!!!!!!!!!!!!!!!!!!!!\n");
return 1;
}
}
