static int outputChannelTest()
{
DWORD minPeriodTemplate;
DWORD maxPeriodTemplate;
DWORD tick1;
int array_number;
unsigned int ii;
int f;
UCHAR siChanNumber = INPUTCHANNELNUMBER;
UCHAR siMode;
UCHAR siParity;
UCHAR siFreq;
UCHAR soErr_en;
UCHAR soParity;
UCHAR soFreq;
UCHAR soArrayDim;
UCHAR soDelay;
UCHAR soArrayNumber;
UCHAR ArrayDimVariantsInd;
UCHAR ArrayNumberVariantsInd;
ULONG param [256];
ioctl ( hECE0206, ECE02061_SET_LONG_MODE);
//
for( ii = 0; ii<256; ii++)
{
param[ii] = 0x70000000 + (ii<<16) + (((~ii)<<8)&0xff00) + ii;
}
BUF256x32_write( param);
siParity = 1;
soParity = 1;
soErr_en = 0;
printf(" SINGLE OUTPUT:\n");
soArrayNumber = 1;
soDelay = 0;
for( siMode = 1; siMode <=1; siMode--)
{
printf(" %s\n",siMode ? "Self-checking mode" : "Operating mode (with stub)");
for( soFreq = 0; soFreq <=2; soFreq++)
{
siFreq = soFreq ? 0 : 1;
frequency_printf(siFreq, soFreq);
if (soFreq)
{
minPeriodTemplate = (720/soFreq)-10;
maxPeriodTemplate = (720/soFreq)+10;
}
else
{
minPeriodTemplate = 2800;
maxPeriodTemplate = 2960;
}
//
UCHAR ArrayDimVariants[4] = {1,128,255,0};
for( ArrayDimVariantsInd = 0; ArrayDimVariantsInd <4; ArrayDimVariantsInd++)
{
soArrayDim = ArrayDimVariants[ArrayDimVariantsInd];
unsigned int soArrayDim_int = soArrayDim ? soArrayDim : 256;
printf(" SO Array Dimension = %3d\n",soArrayDim_int);
CHANNEL_PUSK;
intervalMs(1500);
if(inputParamCodeCheck( siChanNumber
, soArrayDim_int
, param))
{
SI_stop(siChanNumber);
return 1;
}
if(test_period( siChanNumber
,soArrayDim_int
,minPeriodTemplate
,maxPeriodTemplate))
{
SI_stop(siChanNumber);
return 1;
}
SI_stop(siChanNumber);
}//soArrayDim
}//soFreq
}// siMode = 1/0
UCHAR ArrayNumberVariants[2] = {2,5};
for( ArrayNumberVariantsInd = 0; ArrayNumberVariantsInd <2; ArrayNumberVariantsInd++)
{
soArrayNumber = ArrayNumberVariants[ArrayNumberVariantsInd];
printf(" MULTIPLE OUTPUT: SO Array Number = %3d\n",soArrayNumber);
for( siMode = 1; siMode <=1; siMode--)
{
printf(" %s\n",siMode ? "Self-checking mode" : "Operating mode (with stub)");
for( soFreq = 0; soFreq <=2; soFreq++)
{
siFreq = soFreq ? 0 : 1;
frequency_printf(siFreq, soFreq);
soArrayDim = 1;
soDelay = 0;
printf(" SO Array Dimension = 1\n");
CHANNEL_PUSK;
startTime = clock();
startTime1 = startTime;
while (((startTime1 - startTime)*1000/CLOCKS_PER_SEC)<1000)
{
startTime1 = clock();
printf("%d \r",(startTime1 - startTime)*1000/CLOCKS_PER_SEC);
};
INPUTPARAM inputParam[256];
read_array_CC(siChanNumber, inputParam );
array_number = 0;
for( ii = 0; ii<256; ii++)
if(param[0] == (inputParam[ii].param&0x7fffffff)) array_number++;
if(array_number != soArrayNumber)
{
printf(" ERROR: input array number = %d\n",array_number);
#ifdef myDEBUG
for( f=0;f<256;f++)
{
printf("paramN:%3d inputParam: %08x timer:%08x error:%02x\n"
,f
,inputParam[f].param
,inputParam[f].timer
,inputParam[f].error);
}
#endif
SI_stop(siChanNumber);
return 1;
}
SI_stop(siChanNumber);
soArrayDim = 0;
printf(" SO Array Dimension = 256\n");
soDelay = 0;
array_number = 0;
INPUTPARAM bufOutput57;
CHANNEL_PUSK;
startTime = clock();
do //
{
read_parameter_CC(siChanNumber
,255
,&bufOutput57);
startTime1 = clock();
printf("%d \r",(startTime1 - startTime)*1000/CLOCKS_PER_SEC);
}while((bufOutput57.param==0)&&(((startTime1 - startTime)*1000/CLOCKS_PER_SEC)<1000));
if(bufOutput57.param==0)
{
printf(" ERROR: first input array timeout \n");
SI_stop(siChanNumber);
return 1;
}
DWORD timerTemp0 = bufOutput57.timer;
array_number++;
startTime = clock();
do
{
read_parameter_CC(siChanNumber
,255
,&bufOutput57);
if(bufOutput57.timer !=timerTemp0)
{
array_number++;
timerTemp0 = bufOutput57.timer;
}
startTime1 = clock();
printf("%d \r",(startTime1 - startTime)*1000/CLOCKS_PER_SEC);
}while (((startTime1 - startTime)*1000/CLOCKS_PER_SEC)<1000*(unsigned long int)soArrayNumber);//
/* printf("\n2. param: %08x timer: %08x error: %02x\n"
,bufOutput57.param
,bufOutput57.timer
,bufOutput57.error);
*/
if(array_number!=soArrayNumber)
{
printf(" ERROR: array_number = %d \n",array_number);
SI_stop(siChanNumber);
return 1;
}
SI_stop(siChanNumber);
}//soFreq
}// siMode = 1/0
}
return 0;
}
// perform main logic of program
int main(int /*argc*/, char ** /*argv*/)
{
// create knowledge base and a control loop
engine::KnowledgeBase knowledge;
controllers::BaseController loop(knowledge);
platform =
new platforms::CounterPlatform(knowledge);
algorithm =
new algorithms::CounterAlgorithm(knowledge);
// set our priority to the default high priority
madara::utility::set_thread_priority();
#ifndef _MADARA_NO_KARL_
knowledge.define_function("to_legible_hertz", to_legible_hertz);
#endif
// initialize variables and function stubs
loop.init_vars(0, 4);
algorithm->disable_counters();
// initialize the platform and algorithm
loop.init_platform(platform);
loop.init_algorithm(algorithm);
double period = 0.0;
double hertz = 0.0;
double duration = 10.0;
std::cerr << "*****************************************************\n";
std::cerr <<
"* Running single non-MADARA counter in algorithm->analyze()\n";
std::cerr << "*****************************************************\n";
// run blasting experiments
test_hz(knowledge, loop);
test_period(knowledge, loop);
// run specific periods and hertz
for (period = 0.1, hertz = 10.0; hertz <= 1000000.0; period /= 10, hertz *= 10)
{
test_hz(knowledge, loop, hertz, duration);
test_period(knowledge, loop, period, duration);
}
std::cerr << "*****************************************************\n";
std::cerr <<
"* Running MADARA counters in algorithm: analyze, plan, execute\n";
std::cerr << "*****************************************************\n";
algorithm->enable_counters();
// run blasting experiments
test_hz(knowledge, loop);
test_period(knowledge, loop);
// run specific periods and hertz
for (period = 0.1, hertz = 10.0; hertz <= 1000000.0; period /= 10, hertz *= 10)
{
test_hz(knowledge, loop, hertz, duration);
test_period(knowledge, loop, period, duration);
}
if (gams_fails > 0)
{
std::cerr << "OVERALL: FAIL. " << gams_fails << " tests failed.\n";
}
else
{
std::cerr << "OVERALL: SUCCESS.\n";
}
return gams_fails;
}
/**** Local functions definitions. ****/
static ErrorNumber test_with_simulator( void )
{
TA_UDBase *uDBase;
TA_History *history;
TA_AddDataSourceParam param;
TA_RetCode retCode;
ErrorNumber retValue;
TA_HistoryAllocParam histParam;
/* Initialize the library. */
retValue = allocLib( &uDBase );
if( retValue != TA_TEST_PASS )
return retValue;
/* Add a datasource using pre-defined data.
* This data is embedded in the library and does
* not required any external data provider.
* The test functions may assume that this data will
* be unmodified forever by TA-LIB.
*/
memset( ¶m, 0, sizeof( TA_AddDataSourceParam ) );
param.id = TA_SIMULATOR;
retCode = TA_AddDataSource( uDBase, ¶m );
if( retCode != TA_SUCCESS )
{
printf( "TA_AddDataSource failed [%d]\n", retCode );
freeLib( uDBase );
return TA_REGTEST_ADDDATASOURCE_FAILED;
}
/* Regression testing of the functionality provided
* by ta_period.c
*/
retValue = test_period( uDBase );
if( retValue != TA_TEST_PASS )
{
freeLib( uDBase );
return retValue;
}
/* Allocate the reference historical data. */
memset( &histParam, 0, sizeof( TA_HistoryAllocParam ) );
histParam.category = "TA_SIM_REF";
histParam.symbol = "DAILY_REF_0";
histParam.field = TA_ALL;
histParam.period = TA_DAILY;
retCode = TA_HistoryAlloc( uDBase, &histParam, &history );
if( retCode != TA_SUCCESS )
{
printf( "TA_HistoryAlloc failed [%d]\n", retCode );
freeLib( uDBase );
return TA_REGTEST_HISTORYALLOC_FAILED;
}
/* Perform testing of each of the TA Functions. */
retValue = testTAFunction_ALL( history );
if( retValue != TA_TEST_PASS )
{
TA_HistoryFree( history );
freeLib( uDBase );
return retValue;
}
/* Clean-up and exit. */
retCode = TA_HistoryFree( history );
if( retCode != TA_SUCCESS )
{
printf( "TA_HistoryFree failed [%d]\n", retCode );
freeLib( uDBase );
return TA_REGTEST_HISTORYFREE_FAILED;
}
retValue = freeLib( uDBase );
if( retValue != TA_TEST_PASS )
return retValue;
return TA_TEST_PASS; /* All test succeed. */
}
