static void
verb_FileExit_cb (BonoboUIComponent *uic, gpointer user_data, const char *cname)
{
TestGnomeApp *app = user_data;
test_exit (app);
}
int main(int argc, const char *argv[])
{
test_init();
test_exec(always_fails,);
test_exec(static_init,);
test_exec(runtime_init,);
test_exec(first_is_tail_when_empty,);
test_exec(last_is_head_when_empty,);
test_exec(add_null_after,);
test_exec(add_after_null,);
/*test_exec(add_before_head,);
test_exec(add_after_tail,);*/
test_exec(add_after,);
test_exec(add_after_last,);
test_exec(add,);
test_exec(add_first,);
test_exec(add_last,);
test_exec(del_after_tail,);
test_exec(del_after_last,);
test_exec(del_after_null,);
test_exec(del_head,);
test_exec(del_tail,);
test_exec(del_first_when_empty,);
test_exec(del_last_when_empty,);
test_exec(del_after,);
test_exec(del,);
/*test_exec(walk_on_bounds,);*/
test_exec(walk,);
test_exec(del_last,);
test_exit();
return 0;
}
void EMON_Print_t(int numthreads)
{
unsigned int tid, pid, cid;
int node_id;
tid = PhysicalThreadID(); // between 0 and 3
pid = PhysicalThreadIndex(); // between 0 and 67
cid = pid/4;
node_id = EMON_rank_on_card( );
// printf("node id = %d\n", node_id);
// EMON set up is done only by one thread of one node
if ((pid == 0) && ( node_id == 0) )
{
double power = EMON_ReportPower();
if (power < 0) {
printf("ERROR : EMON_GetPower failed\n");
test_exit(1);
}
}
}
int main(int c, char **v)
{
test_init();
test_exit();
return 0;
}
static gint
quit_test (GtkWidget *caller, GdkEvent *event, TestGnomeApp *app)
{
test_exit (app);
return TRUE;
}
int main(int argc, char **argv)
{
int ret;
struct ev_eloop *eloop;
struct uterm_vt_master *vtm;
struct uterm_input *input;
struct uterm_vt *vt;
size_t onum;
onum = sizeof(options) / sizeof(*options);
ret = test_prepare(options, onum, argc, argv, &eloop);
if (ret)
goto err_fail;
ret = uterm_vt_master_new(&vtm, eloop);
if (ret)
goto err_exit;
ret = uterm_input_new(&input, eloop, "", "", "", "", "", 0, 0,
log_llog, NULL);
if (ret)
goto err_vtm;
ret = uterm_vt_allocate(vtm, &vt, UTERM_VT_FAKE | UTERM_VT_REAL,
"seat0", input, vtpath, NULL, NULL);
if (ret)
goto err_input;
if (switchvt) {
ret = uterm_vt_activate(vt);
if (ret == -EINPROGRESS)
log_debug("VT switch in progress");
else if (ret)
log_warn("cannot switch to VT: %d", ret);
}
ev_eloop_run(eloop, -1);
log_debug("Terminating");
/* switch back to previous VT but wait for eloop to process SIGUSR0 */
if (switchvt) {
ret = uterm_vt_deactivate(vt);
if (ret == -EINPROGRESS)
ev_eloop_run(eloop, 50);
}
uterm_vt_unref(vt);
err_input:
uterm_input_unref(input);
err_vtm:
uterm_vt_master_unref(vtm);
err_exit:
test_exit(options, onum, eloop);
err_fail:
if (ret != -ECANCELED)
test_fail(ret);
return abs(ret);
}
int main( int argc, char *argv[])
{
int failures = 0;
failures += DO_TEST( t_zcl_type_name);
return test_exit( failures);
}
int main( int argc, char *argv[])
{
int failures = 0;
failures += DO_TEST( t_memcheck);
return test_exit( failures);
}
int main( int argc, char *argv[])
{
int failures = 0;
failures += DO_TEST( t_null_buffer);
failures += DO_TEST( t_no_clusters);
failures += DO_TEST( t_input_only);
failures += DO_TEST( t_output_only);
failures += DO_TEST( t_both);
return test_exit( failures);
}
int
test_debug(void)
{
rte_dump_stack();
rte_dump_registers();
if (test_panic() < 0)
return -1;
if (test_exit() < 0)
return -1;
if (test_usage() < 0)
return -1;
return 0;
}
int main(int argc, char **argv) {
srandom(time(NULL));
test_initialize(argc, argv);
gf_initialize();
suite("reed solomon error correction");
for (int n = 2; n <= 8; n++)
for (int m = 1; m <= 8; m++)
rs_test_run(n, m);
test_exit();
}
/*=================================================================
* Public API functions
*=================================================================*/
void CU_set_error(CU_ErrorCode error)
{
if ((error != CUE_SUCCESS) && (g_error_action == CUEA_ABORT)) {
#ifndef CUNIT_DO_NOT_DEFINE_UNLESS_BUILDING_TESTS
fprintf(stderr, _("\nAborting due to error #%d: %s\n"),
(int)error,
get_error_desc(error));
exit((int)error);
#else
test_exit(error);
#endif
}
g_error_number = error;
}
int main(void)
{
struct test_state state;
if (test_init(&state))
return 1;
while (1) {
static unsigned char buffer[BUF_LEN];
int bytes;
libusb_bulk_transfer(state.handle, EP_BULK_IN, buffer, BUF_LEN,
&bytes, 500);
}
test_exit(&state);
}
int main(int argc, char **argv) {
srandom(time(NULL));
test_initialize(argc, argv);
gf_initialize();
test_add_commutes();
test_add_associates();
test_mult_commutes();
test_mult_associates();
test_mult_zeroes();
test_distributive_law();
test_division_inverse();
test_exit();
}
int
main(int argc, char *argv[])
{
test_init(9);
test_cvtf("+inf", -INFINITY);
test_cvtf("-inf", INFINITY);
test_cvtf("+nan", NAN);
test_cvtf("-nan", -NAN);
test_cvtf("+0", 0);
test_cvtf("PI", M_PI);
test_cvtf_exp("smallest normal", 1.0, -1022);
test_cvtf_exp("denormal1", 0.5, -1022);
test_cvtf_exp("denormal2", 0.25, -1022);
test_exit();
}
int main(int argc, char **argv)
{
int ret;
struct uterm_monitor *mon;
size_t onum;
onum = sizeof(options) / sizeof(*options);
ret = test_prepare(options, onum, argc, argv, &eloop);
if (ret)
goto err_fail;
if (!setlocale(LC_ALL, "")) {
log_err("Cannot set locale: %m");
ret = -EFAULT;
goto err_exit;
}
ret = uterm_monitor_new(&mon, eloop, monitor_event, NULL);
if (ret)
goto err_exit;
ret = ev_eloop_register_signal_cb(eloop, SIGQUIT, sig_quit, NULL);
if (ret)
goto err_mon;
system("stty -echo");
uterm_monitor_scan(mon);
ev_eloop_run(eloop, -1);
system("stty echo");
ev_eloop_unregister_signal_cb(eloop, SIGQUIT, sig_quit, NULL);
err_mon:
uterm_monitor_unref(mon);
err_exit:
test_exit(options, onum, eloop);
err_fail:
if (ret != -ECANCELED)
test_fail(ret);
return abs(ret);
}
int main(int argc, char **argv)
{
int ret;
struct ev_eloop *eloop;
struct kmscon_vt *vt;
ret = test_prepare(argc, argv, &eloop);
if (ret)
goto err_fail;
ret = kmscon_vt_new(&vt, NULL, NULL);
if (ret)
goto err_exit;
ret = kmscon_vt_open(vt, KMSCON_VT_NEW, eloop);
if (ret)
goto err_vt;
ret = kmscon_vt_enter(vt);
if (ret)
log_warn("Cannot switch to VT");
ev_eloop_run(eloop, -1);
log_debug("Terminating\n");
/* switch back to previous VT but wait for eloop to process SIGUSR0 */
ret = kmscon_vt_leave(vt);
if (ret == -EINPROGRESS)
ev_eloop_run(eloop, 50);
err_vt:
kmscon_vt_unref(vt);
err_exit:
test_exit(eloop);
err_fail:
test_fail(ret);
return abs(ret);
}
void EMON_Init_t(int numthreads)
{
unsigned int tid, pid, cid,node_id;
tid = PhysicalThreadID(); // between 0 and 3
pid = PhysicalThreadIndex(); // between 0 and 67
cid = pid/4;
node_id = EMON_rank_on_card();
// printf("node id = %d\n", node_id);
// EMON set up is done only by one thread of one node
if (pid == 0)// && (node_id == 0) )
{
int rc = EMON_SetupPowerMeasurement();
if (rc) {
printf("ERROR : EMON_SetupPowerMeasurement failed with rc=%d\n", rc);
test_exit(rc);
}
}
L2_Barrier(&id_barrier, numthreads);
}
int main(int argc, char **argv) {
if (argc > 1) {
if (!strcmp(argv[1], "v")) {
Verbose = 1;
}
else if (!strcmp(argv[1], "test-stdout")) {
test_stdout();
return EXIT_SUCCESS;
}
if (!strcmp(argv[1], "test-atexit")) {
test_atexit();
return EXIT_SUCCESS;
}
}
test_mem();
test_str();
test_sprintf();
test_math();
test_proc();
test_stdio();
test_file();
test_exit();
return EXIT_FAILURE;
}
int main(int argc, char **argv)
{
struct uterm_video *video;
int ret;
unsigned int mode;
const char *node;
ret = test_prepare(argc, argv, &eloop);
if (ret)
goto err_fail;
if (conf_global.use_fbdev) {
mode = UTERM_VIDEO_FBDEV;
node = "/dev/fb0";
} else {
mode = UTERM_VIDEO_DRM;
node = "/dev/dri/card0";
}
log_notice("Creating video object using %s...", node);
ret = uterm_video_new(&video, eloop, mode, node);
if (ret) {
if (mode == UTERM_VIDEO_DRM) {
log_notice("cannot create drm device; trying dumb drm mode");
ret = uterm_video_new(&video, eloop,
UTERM_VIDEO_DUMB, node);
if (ret)
goto err_exit;
} else {
goto err_exit;
}
}
log_notice("Wakeing up video object...");
ret = uterm_video_wake_up(video);
if (ret < 0)
goto err_unref;
if (argc < 2) {
ret = list_outputs(video);
if (ret) {
log_err("Cannot list outputs: %d", ret);
goto err_unref;
}
} else {
ret = uterm_video_use(video);
if (ret)
ret = blit_outputs(video);
else
ret = set_outputs(video);
if (ret) {
log_err("Cannot set outputs: %d", ret);
goto err_unref;
}
}
err_unref:
uterm_video_unref(video);
err_exit:
test_exit(eloop);
err_fail:
test_fail(ret);
return abs(ret);
}
void
test_exec(void *arg, uint64_t pc)
{
printf("Execute at 0x%llx\n", pc);
test_exit(arg, 0);
}
int test_main ( void ) {
if (PhysicalThreadIndex() > 0) // run a single core test.
test_exit(0);
int rc=0;
printf("Torus Remote Get Atomic Test\n");
// Perform initialization of the network and mu
Personality_t *pers;
pers = fwext_getPersonality();
uint64_t p1 = pers->Kernel_Config.NodeConfig & PERS_ENABLE_Mambo;
if (p1) is_mambo = 1;
// ND and MU init is done in firmware, but we disable it in svchost and
// call it directly here because it performs much better.
// #if 0
fw_nd_set_verbose(0); // if 1, prints all dcr commands, don't use on cycle sim
// on cycle sim, can have DcrMonitory trace DCR commands
rc = fw_nd_reset_release(pers);
if(rc)
{
TRACE(("fw_nd_reset_release failed with rc=%d\n",rc));
test_exit (rc);
}
fw_mu_set_verbose(0); // if 1, prints all dcr commands, don't use on cycle sim
// on cycle sim, can have DcrMonitory trace DCR commands
rc = fw_mu_reset_release(pers);
if(rc)
{
printf("fw_mu_reset_release failed with rc=%d\n",rc);
test_exit (rc);
}
// #endif // if 0
uint64_t max_value = ~0;
fw_mu_set_sys_range(0, /* range_id */
0, /* min_value */
max_value);
fw_mu_set_usr_range(0, /* range_id */
0, /* min_value */
max_value);
/* fw_mu_set_imfifo_rget (1, 1); */
/* fw_mu_set_imfifo_system (1, 0); */
TRACE(("Network and MU Initialization is complete\n"));
#else
int main(int argc, char **argv)
{
int rc;
#endif
uint i = 0;
// Destination for Remote Get packet
MUHWI_Destination_t dest;
MUSPI_SetUpDestination ( &dest, 0, 0, 0, 0, 0 );
MUSPI_InjFifoSubGroup_t fifo_subgroup;
uint64 message_size_in_bytes_remote_get = MESSAGE_SIZE_REMOTE_GET;
uint64 message_size_in_bytes_direct_put = MESSAGE_SIZE_DIRECT_PUT;
TRACE(("main(): Injection Memory FIFO (0,0,0), Send Remote Get Message with Atomic Increment\n"));
//#ifdef PRINT_DEBUG_MESSAGES
printf("Start!\n");
//#endif
// ------------------------------------------------------
// allocates area for message_sent_remote_get[] buffer (RemoteGet)
// ------------------------------------------------------
uint64 *message_sent_remote_get = (uint64 *)malloc(message_size_in_bytes_remote_get);
uint64 *message_sent_direct_put = (uint64 *)malloc(message_size_in_bytes_direct_put);
TRACE(("message_sent_remote_get (address) = %p\n", message_sent_remote_get));
TRACE(("message_size_in_bytes_remote_get = %lld\n", message_size_in_bytes_remote_get));
TRACE(("message_sent_direct_put (address) = %p\n", message_sent_direct_put));
TRACE(("message_size_in_bytes_direct_put = %lld\n", message_size_in_bytes_direct_put));
// Initializes the message_sent_remote_get[] buffer
for (i=0; i<message_size_in_bytes_remote_get/8; i++)
message_sent_remote_get[i] = 0x00ull; // 8-bytes
Kernel_MemoryRegion_t mregionSentRemoteGet;
rc = Kernel_CreateMemoryRegion ( &mregionSentRemoteGet,
message_sent_remote_get,
message_size_in_bytes_remote_get );
if ( rc != 0)
{
printf("Kernel_CreateMemoryRegion failed for message_sent_remote_get with rc=%d\n",rc);
#ifdef __FWEXT__
test_exit(1);
#else
exit(1);
#endif
}
// Initializes the message_sent[] buffer
*message_sent_direct_put = (uint64)ATOMIC_COUNTER_INITIAL_VALUE; // 8-bytes
uint64_t expected_counter_value = ATOMIC_COUNTER_INITIAL_VALUE + RECEIVE_BUFFER_INITIAL_VALUE;
Kernel_MemoryRegion_t mregionSentDirectPut;
rc = Kernel_CreateMemoryRegion ( &mregionSentDirectPut,
message_sent_direct_put,
message_size_in_bytes_direct_put );
if ( rc != 0)
{
printf("Kernel_CreateMemoryRegion failed for message_sent_direct_put with rc=%d\n",rc);
#ifdef __FWEXT__
test_exit(1);
#else
exit(1);
#endif
}
// Get an atomic address for the message_sent buffer.
uint64_t message_sent_atomic_address = MUSPI_GetAtomicAddress (
(uint64_t)message_sent_direct_put -
(uint64_t)mregionSentDirectPut.BaseVa +
(uint64_t)mregionSentDirectPut.BasePa,
MUHWI_ATOMIC_OPCODE_LOAD_INCREMENT );
TRACE(("message_sent_direct_put (atomic address) = 0x%llx\n",
(long long unsigned int)message_sent_atomic_address));
/////////////////////////////////////////////////
typedef struct recvArea
{
volatile uint64 counter;
unsigned char recvBuffer[MESSAGE_SIZE_DIRECT_PUT];
} recvArea_t;
// Allocate space for the reception counter and the receive buffer
recvArea_t *recvAreaPtr = (recvArea_t*)malloc ( sizeof(recvArea_t) );
if ( !recvAreaPtr )
{
printf("Allocating recvArea failed\n");
#ifdef __FWEXT__
test_exit(1);
#else
exit(1);
#endif
}
volatile uint64 *counterAddress = (volatile uint64*)&(recvAreaPtr->counter);
unsigned char *recvBufferAddress = (unsigned char *)&(recvAreaPtr->recvBuffer[0]);
*((uint64*)recvBufferAddress) = RECEIVE_BUFFER_INITIAL_VALUE;
// Get a memory region for the recvArea.
Kernel_MemoryRegion_t recvAreaMemRegion;
rc = Kernel_CreateMemoryRegion ( &recvAreaMemRegion,
recvAreaPtr,
sizeof(recvArea_t) );
if ( rc != 0)
{
printf("Kernel_CreateMemoryRegion failed for recvAreaMemRegion with rc=%d\n",rc);
#ifdef __FWEXT__
test_exit(1);
#else
exit(1);
#endif
}
// Calculate the offsets of the counter and receive buffer from the base address.
uint64_t recvAreaBasePA = (uint64_t)recvAreaMemRegion.BasePa;
uint64_t counterOffset = (uint64_t)counterAddress - (uint64_t)recvAreaMemRegion.BaseVa;
uint64_t recvBufferOffset = (uint64_t)recvBufferAddress - (uint64_t)recvAreaMemRegion.BaseVa;
TRACE(("counterAddress=%p, recvBufferAddress=%p, recvAreaBasePA=0x%llx, counterOffset=0x%llx, recvBufferOffset=0x%llx\n",counterAddress, recvBufferAddress,
(long long unsigned int)recvAreaBasePA,
(long long unsigned int)counterOffset,
(long long unsigned int)recvBufferOffset));
//////////////////////////////////////////////////////////////
// Initialize base address table and atomic counter info
//////////////////////////////////////////////////////////////
/* Set up the base address table */
uint32_t batids[1] = {0};
MUSPI_BaseAddressTableSubGroup_t bat;
rc = Kernel_AllocateBaseAddressTable ( 0,
&bat,
1,
batids,
0 /* "User" use */ );
if (rc != 0)
{
printf("Kernel_AllocateBaseAddressTable failed with rc=%d\n",rc);
#ifdef __FWEXT__
test_exit(1);
#else
exit(1);
#endif
}
rc = MUSPI_SetBaseAddress ( &bat,
0,
(uint64_t)recvAreaMemRegion.BasePa );
if (rc != 0)
{
printf("MUSPI_SetBaseAddress failed with rc=%d\n",rc);
#ifdef __FWEXT__
test_exit(1);
#else
exit(1);
#endif
}
TRACE(("Set BaseAddressTable entry slot 0 to 0x%llx\n",
(long long unsigned int)recvAreaMemRegion.BasePa));
uint64_t muAtomicCounterOffset = MUSPI_GetAtomicOffsetFromBaseAddress (
&bat,
0,
recvAreaBasePA + counterOffset,
MUHWI_ATOMIC_OPCODE_STORE_ADD );
uint64_t muAtomicRecvBufferOffset = MUSPI_GetAtomicOffsetFromBaseAddress (
&bat,
0,
recvAreaBasePA + recvBufferOffset,
MUHWI_ATOMIC_OPCODE_STORE_ADD );
TRACE(("main(): recvCounterVa=%p, recvAreaBasePA=0x%llx, muAtomicCounterOffset=0x%llx, muAtomicRecvBufferOffset=0x%llx\n",
&(recvAreaPtr->counter),
(long long unsigned int)recvAreaBasePA,
(long long unsigned int)muAtomicCounterOffset,
(long long unsigned int)muAtomicRecvBufferOffset));
//////////////////////////////////////////////////////////////
// Create a DirectPut Descriptor and copy it into the
// message payload
//////////////////////////////////////////////////////////////
TRACE(("main(): Configures direct put descriptor\n"));
MUSPI_Pt2PtDirectPutDescriptorInfo_t mu_iDirectPutDescriptorInfo;
mu_iDirectPutDescriptorInfo.Base.Pre_Fetch_Only = MUHWI_DESCRIPTOR_PRE_FETCH_ONLY_NO;
mu_iDirectPutDescriptorInfo.Base.Payload_Address = message_sent_atomic_address;
mu_iDirectPutDescriptorInfo.Base.Message_Length = message_size_in_bytes_direct_put;
mu_iDirectPutDescriptorInfo.Base.Torus_FIFO_Map = MUHWI_DESCRIPTOR_TORUS_FIFO_MAP_AP;
mu_iDirectPutDescriptorInfo.Base.Dest = dest;
mu_iDirectPutDescriptorInfo.Pt2Pt.Hints_ABCD = MUHWI_PACKET_HINT_AP;
mu_iDirectPutDescriptorInfo.Pt2Pt.Misc1 = MUHWI_PACKET_HINT_E_NONE |
MUHWI_PACKET_DO_NOT_ROUTE_TO_IO_NODE |
MUHWI_PACKET_USE_DETERMINISTIC_ROUTING |
MUHWI_PACKET_DO_NOT_DEPOSIT;
mu_iDirectPutDescriptorInfo.Pt2Pt.Misc2 = MUHWI_PACKET_VIRTUAL_CHANNEL_DETERMINISTIC;
mu_iDirectPutDescriptorInfo.Pt2Pt.Skip = 0;
mu_iDirectPutDescriptorInfo.DirectPut.Rec_Payload_Base_Address_Id = 0;
mu_iDirectPutDescriptorInfo.DirectPut.Rec_Payload_Offset = muAtomicRecvBufferOffset;
mu_iDirectPutDescriptorInfo.DirectPut.Rec_Counter_Base_Address_Id = 0;
mu_iDirectPutDescriptorInfo.DirectPut.Rec_Counter_Offset = muAtomicCounterOffset;
mu_iDirectPutDescriptorInfo.DirectPut.Pacing = MUHWI_PACKET_DIRECT_PUT_IS_NOT_PACED;
rc = MUSPI_CreatePt2PtDirectPutDescriptor( &mu_iDirectPutDescriptor,
&mu_iDirectPutDescriptorInfo
);
if (rc != 0)
{
printf("MUSPI_CreatePt2PtDirectPutDescriptor failed with rc=%d\n",rc);
#ifdef __FWEXT__
test_exit(1);
#else
exit(1);
#endif
}
//MUSPI_DescriptorDumpHex("Direct Put Descriptor",
// &mu_iDirectPutDescriptor);
// Copy Descriptor into RemoteGet message payload
memcpy((char *)((void *)message_sent_remote_get), (char *)((void *)(&mu_iDirectPutDescriptor)), message_size_in_bytes_remote_get);
/////////////////////////////////////////////////////////////
// RemoteGet message
// Create a remote get descriptor
/////////////////////////////////////////////////////////////
TRACE(("main(): Configures remote get descriptor\n"));
MUSPI_Pt2PtRemoteGetDescriptorInfo_t mu_iRemoteGetDescriptorInfo;
mu_iRemoteGetDescriptorInfo.Base.Pre_Fetch_Only = MUHWI_DESCRIPTOR_PRE_FETCH_ONLY_NO;
mu_iRemoteGetDescriptorInfo.Base.Payload_Address = (uint64_t)message_sent_remote_get - (uint64_t)mregionSentRemoteGet.BaseVa + (uint64_t)mregionSentRemoteGet.BasePa;
mu_iRemoteGetDescriptorInfo.Base.Message_Length = message_size_in_bytes_remote_get;
mu_iRemoteGetDescriptorInfo.Base.Torus_FIFO_Map = MUHWI_DESCRIPTOR_TORUS_FIFO_MAP_AP;
mu_iRemoteGetDescriptorInfo.Base.Dest = dest;
mu_iRemoteGetDescriptorInfo.Pt2Pt.Hints_ABCD = MUHWI_PACKET_HINT_AP;
mu_iRemoteGetDescriptorInfo.Pt2Pt.Misc1 = MUHWI_PACKET_HINT_E_NONE |
MUHWI_PACKET_DO_NOT_ROUTE_TO_IO_NODE |
MUHWI_PACKET_USE_DETERMINISTIC_ROUTING |
MUHWI_PACKET_DO_NOT_DEPOSIT;
mu_iRemoteGetDescriptorInfo.Pt2Pt.Misc2 = MUHWI_PACKET_VIRTUAL_CHANNEL_DETERMINISTIC;
mu_iRemoteGetDescriptorInfo.Pt2Pt.Skip = 0;
mu_iRemoteGetDescriptorInfo.RemoteGet.Type = MUHWI_PACKET_TYPE_GET;
mu_iRemoteGetDescriptorInfo.RemoteGet.Rget_Inj_FIFO_Id = 1; // Fifo 1 is for remote get use
// Prepares Injection Memory FIFO Descriptor (RemoteGet)
rc = MUSPI_CreatePt2PtRemoteGetDescriptor( &mu_iRemoteGetDescriptor,
&mu_iRemoteGetDescriptorInfo
);
if (rc != 0)
{
printf("MUSPI_CreatePt2PtRemoteGetDescriptor failed with rc=%d\n",rc);
#ifdef __FWEXT__
test_exit(1);
#else
exit(1);
#endif
}
// MUSPI_DescriptorDumpHex("Remote Get Descriptor",
// &mu_iRemoteGetDescriptor);
/////////////////////////////////////////////////////////////////
// Configures Injection Memory FIFO Registers
// - fifo 0 that the core injects descriptors into
// - fifo 1 that the MU injects remote get payload into
/////////////////////////////////////////////////////////////////
TRACE(("main(): Configures Injection Memory FIFO Registers\n"));
void *injMemoryFifoPtr, *memoryForInjMemoryFifoPtr;
rc = malloc_memalign ( &memoryForInjMemoryFifoPtr,
&injMemoryFifoPtr,
64,
INJ_MEMORY_FIFO_SIZE+1 );
if (rc)
{
printf("inj_memory_fifo malloc failed with rc=%d\n",rc);
#ifdef __FWEXT__
test_exit(1);
#else
exit(1);
#endif
}
void *rgetMemoryFifoPtr, *memoryForRgetMemoryFifoPtr;
rc = malloc_memalign ( &memoryForRgetMemoryFifoPtr,
&rgetMemoryFifoPtr,
64,
INJ_MEMORY_FIFO_SIZE+1 );
if (rc)
{
printf("rget_memory_fifo malloc failed with rc=%d\n",rc);
#ifdef __FWEXT__
test_exit(1);
#else
exit(1);
#endif
}
uint32_t fifoid[2] = { 0, 1 };
Kernel_InjFifoAttributes_t injFifoAttrs[2];
injFifoAttrs[0].RemoteGet = 0;
injFifoAttrs[0].System = 0;
injFifoAttrs[1].RemoteGet = 1;
injFifoAttrs[1].System = 0;
rc = Kernel_AllocateInjFifos (0, &fifo_subgroup, 2,
fifoid, injFifoAttrs);
if ( rc != 0)
{
printf("Kernel_AllocateInjFifos failed with rc=%d\n",rc);
#ifdef __FWEXT__
test_exit(1);
#else
exit(1);
#endif
}
Kernel_MemoryRegion_t mregionInj;
rc = Kernel_CreateMemoryRegion ( &mregionInj,
injMemoryFifoPtr,
INJ_MEMORY_FIFO_SIZE + 1 );
if ( rc != 0)
{
printf("Kernel_CreateMemoryRegion failed for injMemoryFifoPtr with rc=%d\n",rc);
#ifdef __FWEXT__
test_exit(1);
#else
exit(1);
#endif
}
Kernel_MemoryRegion_t mregionRget;
rc = Kernel_CreateMemoryRegion ( &mregionRget,
rgetMemoryFifoPtr,
INJ_MEMORY_FIFO_SIZE + 1 );
if ( rc != 0)
{
printf("Kernel_CreateMemoryRegion failed for rgetMemoryFifoPtr with rc=%d\n",rc);
#ifdef __FWEXT__
test_exit(1);
#else
exit(1);
#endif
}
rc = Kernel_InjFifoInit (&fifo_subgroup, fifoid[0], &mregionInj,
(uint64_t)injMemoryFifoPtr -
(uint64_t)mregionInj.BaseVa,
INJ_MEMORY_FIFO_SIZE);
if (rc != 0)
{
printf("Kernel_InjFifoInit Inj failed with rc=%d, errno=%d\n",rc,errno);
#ifdef __FWEXT__
test_exit(1);
#else
exit(1);
#endif
}
rc = Kernel_InjFifoInit (&fifo_subgroup, fifoid[1], &mregionRget,
(uint64_t)rgetMemoryFifoPtr -
(uint64_t)mregionRget.BaseVa,
INJ_MEMORY_FIFO_SIZE);
if (rc != 0)
{
printf("Kernel_InjFifoInit Rget failed with rc=%d, errno=%d\n",rc,errno);
#ifdef __FWEXT__
test_exit(1);
#else
exit(1);
#endif
}
rc = Kernel_InjFifoActivate (&fifo_subgroup, 2, fifoid, KERNEL_INJ_FIFO_ACTIVATE);
if (rc != 0)
{
printf("Kernel_InjFifoActivate Inj failed with rc=%d, errno=%d\n",rc,errno);
#ifdef __FWEXT__
test_exit(1);
#else
exit(1);
#endif
}
// ---------------------------------------------
// Reception Side
// ---------------------------------------------
/* *data_counter_base_address = REC_PAYLOAD_BASE_ADDRESS; */
/* printf("data_counter_base_address = %p\n", data_counter_base_address); */
// Loop, sending the remote get, waiting for the reception counter to hit zero,
// and verifying the received counter's value.
// for (i=0; i<num_iterations; i++) /** disable loop **/
{
// Let's initialize the Counter for corresponding Counter Id
// Note: counter is initialized with the message size
// updates counter with number of bytes sent
*counterAddress = MESSAGE_SIZE_DIRECT_PUT;
// -----------------------------------------------------------
// Processor Advances Tail pointer - Descriptor is 64-bytes
// MU should Inject (RemoteGet) message into the Torus
// -----------------------------------------------------------
// Let's Inject the (RemoteGet) Descriptor into the Injection Memory FIFO
#if 1
printf("main(): Inject Descriptor into Injection Memory FIFO\n");
#endif
rc = MUSPI_InjFifoInject (MUSPI_IdToInjFifo(fifoid[0], &fifo_subgroup),
(void *)(&mu_iRemoteGetDescriptor) );
if (rc < 0) // Should have injected 1 descriptor
{
printf("MUSPI_InjFifoInject failed with rc=%d\n",rc);
#ifdef __FWEXT__
test_exit(1);
#else
exit(1);
#endif
}
#ifndef __FWEXT__
printf("main(): Successful injection of remote get descriptor\n");
#endif
// //////////////////////////////////////////////////
// Reception side, check counter value
// //////////////////////////////////////////////////
uint64 volatile counter_value;
// wait for the counter to reach ZERO
while (1) {
counter_value = *counterAddress;
if (counter_value == 0)
{
//
#if 1
printf("counter is now ZERO !!!!\n");
#endif
break;
}
}
_bgq_msync(); // Ensure data is available to all cores.
// Let's print the Received Message contents
//put_offset = (uint64)mu_pktHdrDirectPut.Put_Offset_LSB;
#ifndef __FWEXT__
printf("recvBufferAddress = %p\n", recvBufferAddress);
printf("---Prints Received Message contents\n");
Print_Message((unsigned char *)recvBufferAddress, message_size_in_bytes_direct_put);
printf("---Where Received Message is being stored: recvBufferAddress = %p\n", recvBufferAddress);
printf("---Checks Received Message contents(size = %lld)\n", message_size_in_bytes_direct_put);
#endif
uint64_t receivedCounterValue = *((uint64_t*)recvBufferAddress);
if ( receivedCounterValue == expected_counter_value )
{
printf("---Received Counter Value = %llu\n",
(long long unsigned int)receivedCounterValue);
}
else
{
printf("ERROR: Received Counter Value = %llu, expected %llu\n",
(long long unsigned int)receivedCounterValue,
(long long unsigned int)expected_counter_value);
#ifdef __FWEXT__
test_exit(1);
#else
exit(1);
#endif
}
if ( *message_sent_direct_put == ATOMIC_COUNTER_INITIAL_VALUE+1 )
{
printf("---Sent Counter Value = %llu\n",
(long long unsigned int)*message_sent_direct_put);
}
else
{
printf("ERROR: Sent Counter Value = %llu, expected %llu\n",
(long long unsigned int)*message_sent_direct_put,
(long long unsigned int)(ATOMIC_COUNTER_INITIAL_VALUE+1));
#ifdef __FWEXT__
test_exit(1);
#else
exit(1);
#endif
}
}
//printf("All counter values passed\n");
#ifdef __FWEXT__
if ( is_mambo == 0 ) // Termination checks don't work in mambo. ErrInt DCRs are not zero.
{
rc = fw_nd_term_check(pers);
if (rc)
{
printf("ERROR: fw_nd_term_check failed with rc=%d\n",rc);
test_exit(1);
}
rc = fw_mu_term_check(pers);
if (rc)
{
printf("ERROR: fw_mu_term_check failed with rc=%d\n",rc);
test_exit(1);
}
}
#endif
printf("Done!\n");
#ifdef __FWEXT__
test_exit (0);
#endif
return 0;
}
int main(int argc, char **argv)
{
struct uterm_video *video;
int ret;
const char *node;
const struct uterm_video_module *mode;
size_t onum;
onum = sizeof(options) / sizeof(*options);
ret = test_prepare(options, onum, argc, argv, &eloop);
if (ret)
goto err_fail;
if (output_conf.fbdev) {
mode = UTERM_VIDEO_FBDEV;
node = "/dev/fb0";
} else {
mode = UTERM_VIDEO_DRM3D;
node = "/dev/dri/card0";
}
if (output_conf.dev)
node = output_conf.dev;
log_notice("Creating video object using %s...", node);
ret = uterm_video_new(&video, eloop, node, mode);
if (ret) {
if (mode == UTERM_VIDEO_DRM3D) {
log_notice("cannot create drm device; trying drm2d mode");
ret = uterm_video_new(&video, eloop, node,
UTERM_VIDEO_DRM2D);
if (ret)
goto err_exit;
} else {
goto err_exit;
}
}
log_notice("Wakeing up video object...");
ret = uterm_video_wake_up(video);
if (ret < 0)
goto err_unref;
if (!output_conf.test) {
ret = list_outputs(video);
if (ret) {
log_err("Cannot list outputs: %d", ret);
goto err_unref;
}
} else {
ret = blit_outputs(video);
if (ret) {
log_err("Cannot set outputs: %d", ret);
goto err_unref;
}
}
err_unref:
uterm_video_unref(video);
err_exit:
test_exit(options, onum, eloop);
err_fail:
if (ret != -ECANCELED)
test_fail(ret);
return abs(ret);
}
void *testcase(struct test *tc)
{
int count;
libxl_domain_config dc;
uint32_t domid = -2;
struct event ev;
init_domain_config(&dc, "test_domain_suspend",
"resources/vmlinuz-4.0.4-301.fc22.x86_64",
"resources/initrd.xen-4.0.4-301.fc22.x86_64",
"resources/Fedora-Cloud-Base-22-20150521.x86_64.qcow2",
"resources/cloudinit.iso");
do_domain_create(tc, &dc, &domid);
wait_for(tc, EV_LIBXL_CALLBACK, &ev);
assert(ev.u.callback_event.rc == 0);
assert(domid != (uint32_t) -2);
printf("domid: %d\n", domid);
libxl_domain_unpause(tc->ctx, domid);
printf("domain %d unpaused\n", domid);
printf("waiting for domain to boot\n");
wait_for_n(tc, EV_EVENTLOOP, 10, &ev);
/* Most of the work of suspending a domain is done by helper
processes. The helper processes generate hundreds of FD events,
so the test tries to cancel after batches of 100 FD events, as well
as after every non-FD event. */
for (count = 1; count < 100; count++) {
int rc;
FILE *suspend_file;
int suspend_fd;
printf("\n****** Will cancel after %d events ******\n", count);
suspend_file = tmpfile();
if (!suspend_file) {
perror("tmpfile");
break;
}
suspend_fd = fileno(suspend_file);
do_domain_suspend(tc, domid, suspend_fd);
if (wait_until_n(tc, EV_LIBXL_CALLBACK, count, &ev, 50)) {
/* The API call returned before we could cancel it.
It should have returned successfully.
*/
fclose(suspend_file);
printf("libxl_domain_suspend returned %d\n",
ev.u.callback_event.rc);
assert(ev.u.callback_event.rc == 0);
/* No operation in progress - cancelling should return an error */
rc = libxl_ao_cancel(tc->ctx, &tc->ao_how);
printf("libxl_ao_cancel returned %d\n", rc);
assert(rc == ERROR_NOTFOUND);
break;
}
/* The wait_until_n() call did not receive a calback event,
so we will try to cancel the asynchronous operation */
printf("Cancelling asynchronous operation\n");
rc = libxl_ao_cancel(tc->ctx, &tc->ao_how);
/* Calling cancel on a cancellable operation should not return an
error, unless the operation happened to complete in the meantime.
*/
printf("libxl_ao_cancel returned %d\n", rc);
assert(rc == ERROR_NOTFOUND || rc == 0);
/* The API call's return code should indicate that it was cancelled */
wait_for(tc, EV_LIBXL_CALLBACK, &ev);
fclose(suspend_file);
printf("libxl_domain_suspend returned %d\n",
ev.u.callback_event.rc);
assert(ev.u.callback_event.rc == ERROR_CANCELLED
|| ev.u.callback_event.rc == 0);
/* Suspend was cancelled - the domain should still be running */
assert(!libxl_domain_info(tc->ctx, NULL, domid));
}
libxl_domain_destroy(tc->ctx, domid, 0);
libxl_domain_config_dispose(&dc);
test_exit();
return NULL;
}
int
main (int __sane_unused__ argc, char **argv)
{
int detected, opened, i;
SANE_Int dn[MAX_DEVICES];
#ifdef HAVE_LIBUSB_LEGACY
printf ("\n%s built with old libusb\n\n", argv[0]);
#endif
#ifdef HAVE_LIBUSB
printf ("\n%s built with libusb-1.0\n\n", argv[0]);
#endif
#ifdef HAVE_USBCALLS
printf ("\n%s built with usbcalls\n\n", argv[0]);
#endif
#if !defined(HAVE_LIBUSB_LEGACY) && !defined(HAVE_LIBUSB) && !defined(HAVE_USBCALLS)
printf ("\n%s relying on deprecated scanner kernel module\n", argv[0]);
#endif
/* start sanei_usb */
assert (test_init (1));
/* test timeout function */
assert (test_timeout ());
/* count available devices */
detected = 0;
for (i = 0; i < device_number; i++)
{
if (devices[i].missing == 0 && devices[i].devname != NULL)
{
detected++;
}
}
printf ("%d devices found.\n", detected);
/* rescan devices : detected count shouldn't change */
assert (test_scan_devices (detected, 0));
/* test corner cases with mock device */
assert (test_store_device ());
/* get vendor/product id for all available devices devname */
assert (test_vendor_by_devname ());
/* get vendor/product id for all available devices id */
assert (test_vendor_by_id ());
/* open all available devices */
assert (test_open_all (dn, detected));
opened = get_opened();
/* rescan devices : detected and opened count shouldn't change */
assert (test_scan_devices (detected, opened));
/* try to open an inexisting device */
assert (test_open_invalid ());
/* increase sanei _sub use count */
assert (test_init (2));
/* there should be still as many detected devices */
assert (count_detected (detected));
/* there should be still as many opened devices */
assert (count_opened (opened));
assert (test_exit (1));
/* there should be still as many opened devices */
assert (count_opened (opened));
/* count devices again , sanei_usb_exit() shouldn't have
* change the count */
assert (count_detected (detected));
/* claim all available devices */
assert (test_claim_all (dn, opened));
/* then release them all */
assert (test_release_all (dn, opened));
/* close all opened devices */
assert (test_close_all (dn, opened));
/* check there is no opened device */
assert (count_opened (0));
/* finally free resources */
assert (test_exit (0));
/* check there is no more devices */
assert (count_detected (0));
/* test attach matching device with a mock */
assert (test_attach ());
/* try to call sanei_usb_exit() when it not initialized */
assert (test_exit (0));
/* scan devices when sanei usb is not initialized */
assert (test_scan_devices (0, 0));
/* we re start use of sanei usb so we check we have left it
* it he correct state after "closing" it. */
printf ("\n============================================================\n");
printf ("restart use of sanei usb after having freed all resources...\n\n");
assert (test_init (1));
/* we should have the same initial count of detected devices */
assert (count_detected (detected));
/* finally free resources */
assert (test_exit (0));
/* all the tests are OK ! */
return 0;
}
int
main (int argc, char** argv)
{
char* servername = NULL;
char* filename = NULL;
GSList* task_list = NULL;
int option;
int num_ites;
int i;
extern char *optarg;
/*default number of phase is 1*/
num_ites = 1;
while ((option = getopt(argc, argv, "N:h")) != -1){
switch(option){
case 'N':
if (sscanf(optarg, "%d", &num_ites) <= 0) {
usage(argv[0]);
exit(1);
}
break;
case 'h':
default:
usage(argv[0]);
exit(1);
}
}
gi.clientID = 0;
for (i = optind ; i < argc; i++)
{
if (filename == NULL){
filename = argv[i];
} else {
servername = argv[i];
gi.clientID = 1;
}
}
if (filename == NULL){
usage(argv[0]);
exit(1);
}
gi.testpass = 0;
gi.testwarn = 0;
gi.testfail = 0;
strlcpy(gi.filename, filename, sizeof(gi.filename));
init_comm(servername);
for (i = 0; i < num_ites; i++){
output("Iteration %d: \n", i);
task_list = generate_task_list();
runtests(task_list);
remove_task_list(task_list);
}
test_exit();
return 0;
}
int send_ioctl(struct cmd_context *ctx, void *cmd)
{
/* If we get this far then parsing succeeded */
test_exit(0);
}
