static void initSharedMemory(){
if (isSharedMemoryInited) return;
///// Critical section
// Try to lock
//while( __sync_fetch_and_add(&sharedMemoryInitSpinlock,1)!=0);
//if (isSharedMemoryInited) return;
initStats();
// Shared memory variables
struct FunctionStatistic *** shm = getFunctionStatisticsStorage();
// Storing s_stats into shared memory
*shm = s_stats;
// Set flag - shared memory is already inited
isSharedMemoryInited = 1;
printf("Shared memory for FunctionStorage inited successfuly: shm = %p ,s_stats = %p\n", *shm, s_stats );
// Unlock
//sharedMemoryInitSpinlock = 0;
///// Critical section ends
}
int main(int argc, char **argv)
{
srand(time(NULL));
printIntro();
initStats();
processArgs(argc, argv);
// Start the packet processor
pthread_t packet_processor;
pthread_create(&packet_processor, NULL, process_incoming, NULL);
// Start the syn flood thread
pthread_t syn_sender;
pthread_create(&syn_sender, NULL, send_syns, NULL);
pthread_t status_update;
pthread_create(&status_update, NULL, print_status, NULL);
// Wait for the threads to return, which is never.
pthread_join(syn_sender, NULL);
pthread_join(packet_processor, NULL);
pthread_join(status_update, NULL);
return 0;
}
void VisualMatrix::init()
{
initSprite();
initEffect();
initMatrix();
initStats();
initState();
}
void Matrix::init()
{
initRules();
initField();
initStats();
initTetrominoes();
initState();
initTimer();
}
feCharacter::feCharacter(char id, std::string n, bool g, char l, feClass j) {
uniqID = id;
name = n;
gender = g;
loyalty = l;
job = j;
/* initialize stats */
initStats();
}
RTPReceptionStats::RTPReceptionStats(unsigned int SSRC):m_SSRC(0),m_numPacketsReceivedSinceLastReset(0),
m_totalNumPacketsReceived(0),m_totalBytesReceived_hi(0),m_totalBytesReceived_lo(0),
m_haveSeenInitialSequenceNumber(0),m_baseExtSeqNumReceived(0),m_lastResetExtSeqNumReceived(0),
m_highestExtSeqNumReceived(0),m_lastTransit(0),m_previousPacketRTPTimestamp(0),
m_jitter(0),m_lastReceivedSR_NTPmsw(0),m_lastReceivedSR_NTPlsw(0),
m_minInterPacketGapUS(0),m_maxInterPacketGapUS(0),m_hasBeenSynchronized(0)
{
gethostname(m_CNAME,100);
m_CNAME_length=strlen(m_CNAME);
initStats(SSRC);
}
void updateStats(void)
{
int i, value, diff, old_x, new_x;
W_Color color;
SLIDER *s;
initStats();
for (i = 0; i < NUM_SLIDERS; i++)
{
s = &sliders[i];
value = *(s->var);
if (value < s->min)
value = s->min;
else if (value > s->max)
value = s->max;
if (value == s->lastVal)
continue;
diff = value - s->lastVal;
if (diff < 0)
{
old_x = s->lastVal * SL_WID / s->diff;
new_x = value * SL_WID / s->diff;
box(1, BX_OFF() + new_x, BY_OFF(i), old_x - new_x, SL_HEI, backColor);
if (s->lastVal >= s->low_red && value < s->low_red)
box(1, BX_OFF(), BY_OFF(i), new_x, SL_HEI, warningColor);
else if (s->lastVal > s->high_red && value <= s->high_red)
box(1, BX_OFF(), BY_OFF(i), new_x, SL_HEI, myColor);
}
else
{
if (value < s->low_red)
color = warningColor;
else if (value > s->high_red)
{
color = warningColor;
if (s->lastVal <= s->high_red)
s->lastVal = 0;
}
else
{
color = myColor;
if (s->lastVal < s->low_red)
s->lastVal = 0;
}
old_x = s->lastVal * SL_WID / s->diff;
new_x = value * SL_WID / s->diff;
box(1, BX_OFF() + old_x, BY_OFF(i), new_x - old_x, SL_HEI, color);
}
s->lastVal = value;
}
}
LLViewerRegion::LLViewerRegion( U64 regionHandle
, const LLHost &host
, const U32 surface_grid_width
, const U32 patch_grid_width
, const F32 region_width_meters
)
: m_regionHandle(regionHandle)
, m_host(host)
, mWidth(region_width_meters)
{
mOriginGlobal = from_region_handle(regionHandle);
initStats();
}
/* =================== Arx Interface Functions ================ */
extern "C" AcRx::AppRetCode acrxEntryPoint(AcRx::AppMsgCode msg, void* pAppId) {
switch(msg) {
case AcRx::kInitAppMsg:
// Tell system that we are MDI-aware.
acrxDynamicLinker->registerAppMDIAware(pAppId);
initStats();
break;
case AcRx::kUnloadAppMsg:
termStats();
default:
break;
}
return AcRx::kRetOK;
}
void redrawStats(void)
{
int i;
W_ClearWindow(statwin);
initStats();
for (i = 0; i < NUM_SLIDERS; i++)
{
sliders[i].lastVal = 0;
}
for (i = 0; i < NUM_SLIDERS; i++)
{
W_WriteText(statwin, TX_OFF(sliders[i].label_length), TY_OFF(i),
textColor, sliders[i].label, sliders[i].label_length,
W_RegularFont);
box(0, BX_OFF() - 1, BY_OFF(i) - 1, SL_WID + 2, SL_HEI + 2, borderColor);
sliders[i].lastVal = 0;
}
}
void faGapSizes(char *fileName)
/* faGapSizes - report on gap size counts/statistics. */
{
struct dnaSeq *seqList = NULL;
struct dnaSeq *seq = NULL;
int nCount=0;
int i=0;
getNiceSizes(niceSizeList, &niceSizes, &niceSizeCount);
initStats(niceSizeCount);
seqList = faReadAllDna(fileName);
nCount = 0;
for (seq=seqList; seq != NULL; seq=seq->next)
{
for (i=0; i < seq->size; i++)
{
if (seq->dna[i] == 'n' || seq->dna[i] == 'N')
{
nCount++;
}
else if (nCount > 0)
{
recordGap(nCount);
nCount = 0;
}
}
if (nCount > 0)
{
recordGap(nCount);
nCount = 0;
}
}
reportStats();
}
hax::Skeleton::Skeleton(){
initStats();
}
hax::Necromancer::Necromancer(std::string name) : Undead(name){
initStats();
}
hax::Skeleton::Skeleton(std::string name) : Undead(name){
initStats();
}
hax::Necromancer::Necromancer(){
initStats();
}
LLViewerRegion::LLViewerRegion(const U64 &handle,
const LLHost &host,
const U32 grids_per_region_edge,
const U32 grids_per_patch_edge,
const F32 region_width_meters)
: mCenterGlobal(),
mHandle(handle),
mHost( host ),
mTimeDilation(1.0f),
mName(""),
mZoning(""),
mOwnerID(),
mIsEstateManager(FALSE),
mCompositionp(NULL),
mRegionFlags( REGION_FLAGS_DEFAULT ),
mSimAccess( SIM_ACCESS_MIN ),
mBillableFactor(1.0),
mMaxTasks(DEFAULT_MAX_REGION_WIDE_PRIM_COUNT),
mClassID(0),
mCPURatio(0),
mColoName("unknown"),
mProductSKU("unknown"),
mProductName("unknown"),
mHttpUrl(""),
mCacheLoaded(FALSE),
mCacheDirty(FALSE),
mCacheID(),
mEventPoll(NULL),
mReleaseNotesRequested(FALSE),
// I'd prefer to set the LLCapabilityListener name to match the region
// name -- it's disappointing that's not available at construction time.
// We could instead store an LLCapabilityListener*, making
// setRegionNameAndZone() replace the instance. Would that pose
// consistency problems? Can we even request a capability before calling
// setRegionNameAndZone()?
// For testability -- the new Michael Feathers paradigm --
// LLCapabilityListener binds all the globals it expects to need at
// construction time.
mCapabilityListener(host.getString(), gMessageSystem, *this,
gAgent.getID(), gAgent.getSessionID())
{
mWidth = region_width_meters;
mOriginGlobal = from_region_handle(handle);
updateRenderMatrix();
mLandp = new LLSurface('l', NULL);
if (!gNoRender)
{
// Create the composition layer for the surface
mCompositionp = new LLVLComposition(mLandp, grids_per_region_edge, region_width_meters/grids_per_region_edge);
mCompositionp->setSurface(mLandp);
// Create the surfaces
mLandp->setRegion(this);
mLandp->create(grids_per_region_edge,
grids_per_patch_edge,
mOriginGlobal,
mWidth);
}
if (!gNoRender)
{
mParcelOverlay = new LLViewerParcelOverlay(this, region_width_meters);
}
else
{
mParcelOverlay = NULL;
}
setOriginGlobal(from_region_handle(handle));
calculateCenterGlobal();
// Create the object lists
initStats();
//create object partitions
//MUST MATCH declaration of eObjectPartitions
mObjectPartition.push_back(new LLHUDPartition()); //PARTITION_HUD
mObjectPartition.push_back(new LLTerrainPartition()); //PARTITION_TERRAIN
mObjectPartition.push_back(new LLWaterPartition()); //PARTITION_WATER
mObjectPartition.push_back(new LLTreePartition()); //PARTITION_TREE
mObjectPartition.push_back(new LLParticlePartition()); //PARTITION_PARTICLE
mObjectPartition.push_back(new LLCloudPartition()); //PARTITION_CLOUD
mObjectPartition.push_back(new LLGrassPartition()); //PARTITION_GRASS
mObjectPartition.push_back(new LLVolumePartition()); //PARTITION_VOLUME
mObjectPartition.push_back(new LLBridgePartition()); //PARTITION_BRIDGE
mObjectPartition.push_back(new LLHUDParticlePartition());//PARTITION_HUD_PARTICLE
mObjectPartition.push_back(NULL); //PARTITION_NONE
}
PyObject * allstats(PyObject *self, PyObject *args, PyObject *kw) {
static char *kwlist[] = {"input", "min", "max", "mean", "std", NULL};
PyObject *input, *inputarray;
PyObject *switch_min, *switch_max, *switch_mean, *switch_std;
PyObject *outputdict, *value;
int input_typenum;
stats result;
/* Parse input args.
* "input": a numpy array or a python object that converts to an array.
* Optionally: "min", "max", "mean", "std" truth values, which default to False
*/
switch_min = switch_max = switch_mean = switch_std = Py_None;
if (!PyArg_ParseTupleAndKeywords(args, kw, "O|OOOO", kwlist, &input, &switch_min, &switch_max, &switch_mean, &switch_std))
return NULL;
/*
* Create proper PyArrayObject from input python object.
* This does the bare minimum to create a numpy array. If the input
* python object is already a numpy array, then no copy will be made.
* It will not ensure contiguous, aligned, etc, so operations on the
* array object should account for that.
*/
inputarray = PyArray_FromAny(input, NULL, 0, 0, 0, NULL);
if (inputarray == NULL) {
Py_XDECREF(inputarray);
return NULL;
}
/*
* Initialize the result and switch stats on/off depending on args
*/
initStats(&result);
if (PyObject_IsTrue(switch_min))
result.switch_min = 1;
if (PyObject_IsTrue(switch_max))
result.switch_max = 1;
if (PyObject_IsTrue(switch_mean))
result.switch_mean = 1;
if (PyObject_IsTrue(switch_std))
result.switch_std = 1;
/*
* Delegate to type specific function.
*/
input_typenum = PyArray_TYPE(inputarray);
switch (input_typenum) {
case NPY_BYTE:
allstats_byte(inputarray, &result);
break;
case NPY_UBYTE:
allstats_ubyte(inputarray, &result);
break;
case NPY_SHORT:
allstats_short(inputarray, &result);
break;
case NPY_USHORT:
allstats_ushort(inputarray, &result);
break;
case NPY_INT:
allstats_int(inputarray, &result);
break;
case NPY_UINT:
allstats_uint(inputarray, &result);
break;
case NPY_LONG:
allstats_long(inputarray, &result);
break;
case NPY_ULONG:
allstats_ulong(inputarray, &result);
break;
case NPY_LONGLONG:
allstats_longlong(inputarray, &result);
break;
case NPY_ULONGLONG:
allstats_ulonglong(inputarray, &result);
break;
case NPY_FLOAT:
allstats_float(inputarray, &result);
break;
case NPY_DOUBLE:
allstats_double(inputarray, &result);
break;
case NPY_LONGDOUBLE:
allstats_longdouble(inputarray, &result);
break;
case NPY_CFLOAT:
case NPY_CDOUBLE:
case NPY_CLONGDOUBLE:
default:
PyErr_Format(PyExc_TypeError, "no allstats support for typenum %d", input_typenum);
Py_XDECREF(inputarray);
return NULL;
}
Py_XDECREF(inputarray);
/* Create return value: a python dict containing the stats. */
outputdict = PyDict_New();
if (result.switch_min) {
value = PyFloat_FromDouble(result.min);
PyMapping_SetItemString(outputdict, "min", value);
Py_XDECREF(value);
}
if (result.switch_max) {
value = PyFloat_FromDouble(result.max);
PyMapping_SetItemString(outputdict, "max", value);
Py_XDECREF(value);
}
if (result.switch_mean) {
value = PyFloat_FromDouble(result.mean);
PyMapping_SetItemString(outputdict, "mean", value);
Py_XDECREF(value);
}
/* Need final calculation of standard deviation from variance */
if (result.switch_std) {
result.std = sqrt(result.variance_n);
value = PyFloat_FromDouble(result.std);
PyMapping_SetItemString(outputdict, "std", value);
Py_XDECREF(value);
}
return outputdict;
}
LLViewerRegion::LLViewerRegion(const U64 &handle,
const LLHost &host,
const U32 grids_per_region_edge,
const U32 grids_per_patch_edge,
const F32 region_width_meters)
: mImpl(new LLViewerRegionImpl(this, host)),
mHandle(handle),
mTimeDilation(1.0f),
mName(""),
mZoning(""),
mIsEstateManager(FALSE),
mRegionFlags( REGION_FLAGS_DEFAULT ),
mSimAccess( SIM_ACCESS_MIN ),
mBillableFactor(1.0),
mMaxTasks(DEFAULT_MAX_REGION_WIDE_PRIM_COUNT),
mClassID(0),
mCPURatio(0),
mColoName("unknown"),
mProductSKU("unknown"),
mProductName("unknown"),
mHttpUrl(""),
mCacheLoaded(FALSE),
mCacheDirty(FALSE),
mReleaseNotesRequested(FALSE),
mCapabilitiesReceived(false)
{
mWidth = region_width_meters;
mImpl->mOriginGlobal = from_region_handle(handle);
updateRenderMatrix();
mImpl->mLandp = new LLSurface('l', NULL);
// Create the composition layer for the surface
mImpl->mCompositionp =
new LLVLComposition(mImpl->mLandp,
grids_per_region_edge,
region_width_meters / grids_per_region_edge);
mImpl->mCompositionp->setSurface(mImpl->mLandp);
// Create the surfaces
mImpl->mLandp->setRegion(this);
mImpl->mLandp->create(grids_per_region_edge,
grids_per_patch_edge,
mImpl->mOriginGlobal,
mWidth);
mParcelOverlay = new LLViewerParcelOverlay(this, region_width_meters);
setOriginGlobal(from_region_handle(handle));
calculateCenterGlobal();
// Create the object lists
initStats();
//create object partitions
//MUST MATCH declaration of eObjectPartitions
mImpl->mObjectPartition.push_back(new LLHUDPartition()); //PARTITION_HUD
mImpl->mObjectPartition.push_back(new LLTerrainPartition()); //PARTITION_TERRAIN
mImpl->mObjectPartition.push_back(new LLVoidWaterPartition()); //PARTITION_VOIDWATER
mImpl->mObjectPartition.push_back(new LLWaterPartition()); //PARTITION_WATER
mImpl->mObjectPartition.push_back(new LLTreePartition()); //PARTITION_TREE
mImpl->mObjectPartition.push_back(new LLParticlePartition()); //PARTITION_PARTICLE
mImpl->mObjectPartition.push_back(new LLCloudPartition()); //PARTITION_CLOUD
mImpl->mObjectPartition.push_back(new LLGrassPartition()); //PARTITION_GRASS
mImpl->mObjectPartition.push_back(new LLVolumePartition()); //PARTITION_VOLUME
mImpl->mObjectPartition.push_back(new LLBridgePartition()); //PARTITION_BRIDGE
mImpl->mObjectPartition.push_back(new LLHUDParticlePartition());//PARTITION_HUD_PARTICLE
mImpl->mObjectPartition.push_back(NULL); //PARTITION_NONE
}
