void
EasyIocp::InitThreadPool()
{
//初始化线程池
int num = GetProcessorsNum();
InitializeThreadpoolEnvironment(&tpCBE_);
worksNum_ = num;
ptpWorks_ = (PTP_WORK*)SysMalloc(sizeof(PTP_WORK) * worksNum_);
workArgs_ = (EasyIocpStruct::WORK_ARG*)SysMalloc(sizeof(EasyIocpStruct::WORK_ARG) * worksNum_);
if(!ptpWorks_ || !workArgs_) {
print("EasyIocp::Construct: SysMalloc failed.");
}
assert(ptpWorks_ != NULL);
assert(workArgs_ != NULL);
for(int i = 0; i < worksNum_; ++i) {
workArgs_[i].id = i;
workArgs_[i].iocpModel = this;
ptpWorks_[i] = CreateThreadpoolWork(TPCallBack, (PVOID)&workArgs_[i], &tpCBE_);
SubmitThreadpoolWork(ptpWorks_[i]);
}
print("EasyIocp::InitThreadPool: init thread pool successfully. num: %d.", worksNum_);
}
zOPER_EXPORT zLONG OPERATION
WRKS_Init( zPVOID *ppAnchor )
{
T_WRKSANCHOR *pAnchor;
pAnchor = SysMalloc( sizeof( T_WRKSANCHOR ) );
if ( pAnchor == NULL )
return( -1 );
pAnchor->pFirstBlock = SysMalloc( sizeof( T_MEMBLOCK ) );
if ( pAnchor->pFirstBlock == NULL )
{
SysFree( pAnchor );
return( -1 );
}
pAnchor->pFirstBlock->pData = SysMalloc( WRKS_INIT_SIZE );
if ( pAnchor->pFirstBlock->pData == NULL )
{
SysFree( pAnchor->pFirstBlock );
SysFree( pAnchor );
return( -1 );
}
pAnchor->pFirstBlock->lData = WRKS_INIT_SIZE;
pAnchor->pFirstBlock->lDataUsed = 0;
*ppAnchor = pAnchor;
return( 0 );
}
zOPER_EXPORT zLONG OPERATION
WRKS_Get( zPVOID pAnchor, zLONG lNeeded, zPVOID *ppData )
{
T_MEMBLOCK *pBlock = ((T_WRKSANCHOR *) pAnchor)->pFirstBlock;
T_MEMBLOCK *pLastBlock = NULL;
zLONG lAlloc;
zPCHAR pData;
// go through chain of blocks
while ( pBlock )
{
zLONG lFree = pBlock->lData - pBlock->lDataUsed;
if ( lFree >= lNeeded )
{
// ok, we found a slot big enough
*ppData = (pBlock->pData + pBlock->lDataUsed);
pBlock->lDataUsed += lNeeded;
return( 0 );
}
pLastBlock = pBlock;
pBlock = pBlock->pNext;
}
// we did not find a fitting slot, allocate a new block
lAlloc = WRKS_INIT_SIZE;
if ( lNeeded * 2 > lAlloc )
lAlloc = lNeeded * 2;
if ( (pBlock = SysMalloc( sizeof( T_MEMBLOCK ) )) == NULL )
{
// Error allocating memory
*ppData = NULL;
return( -1 );
}
if ( (pData = SysMalloc( lAlloc )) == NULL )
{
// Error allocating memory
SysFree( pBlock );
*ppData = NULL;
return( -1 );
}
// add to chain
pLastBlock->pNext = pBlock;
pBlock->pData = pData;
pBlock->lData = lAlloc;
pBlock->lDataUsed = lNeeded;
*ppData = pData;
return( 1 );
}
ptr_t list_node_alloc_new(data_t *Master2Mem, data_t *Master2SysAlloc, data_t data, ptr_t nextNodePtr){
ptr_t newNodePtr;
struct list_node_t newNode;
newNodePtr = SysMalloc(REQ_NODE_SIZE, Master2SysAlloc);
newNode.data = data;
newNode.next = nextNodePtr - newNodePtr;
list_node_write(Master2Mem, newNodePtr, newNode);
return newNodePtr;
}
/* HashTable */
int *CreateHashTable(int NUM_OF_ENTRY){
int *hdTable = SysMalloc(NUM_OF_ENTRY*sizeof(int));
int *hdList = NULL;
int i;
for(i = 0; i < NUM_OF_ENTRY; i++){
WriteHashTable(hdTable, i, hdList);
}
return hdTable;
}
/* Allocate New Node */
int *tree_node_alloc_new(data_t data){
int *newNodePtr;
newNodePtr = SysMalloc(NODE_REQ_SIZE);
next_t offset = NULL_PTR - (int)newNodePtr;
struct node_t newNode;
newNode.data = data;
newNode.left = offset;
newNode.right = offset;
newNode.height = 0; // should it be 0 or 1?
tree_node_write(newNodePtr, newNode);
return newNodePtr;
}
int app(data_m *DataIn, data_m *saMaster){
#pragma HLS INTERFACE s_axilite port=DataIn bundle=BUS_A
#pragma HLS INTERFACE s_axilite port=return bundle=BUS_A
#pragma HLS INTERFACE m_axi depth=1 port=saMaster offset=off
int InputRequest;
int pointer1, pointer2;
int EventN;
int ReturnValue;
InputRequest = *DataIn + 1;
pointer1 = SysMalloc(InputRequest, saMaster);
SysFree(pointer1,saMaster);
pointer2 = SysMalloc(InputRequest, saMaster);
ReturnValue = pointer1 + pointer2;
return ReturnValue;
}
/* Allocate New Node */
int *list_node_alloc_new(int data, int *hdPtr){
int *newNodePtr;
newNodePtr = SysMalloc(sizeof(struct node_t));
next_t offset;
if(hdPtr == NULL){
offset = NULL_PTR -(int)newNodePtr;
}else{
offset = hdPtr - newNodePtr;
}
struct node_t newNode;
newNode.data = data;
newNode.next = offset;
list_node_write(newNodePtr, newNode);
return newNodePtr;
}
static int init_args()
{
int i;
SubspaceName = AppGetTextOption(App,"-b --basis",NULL);
SubName = AppGetTextOption(App,"-s --subspace-action",NULL);
QuotName = AppGetTextOption(App,"-q --quotient-action",NULL);
OpName = AppGetTextOption(App,"-o --script",NULL);
MaxDim = AppGetIntOption(App,"-d --dimension-limit",-1,1,100000000);
MaxTries = AppGetIntOption(App,"-x --max-tries",-1,1,1000);
TryOneVector = AppGetOption(App,"-1 --single-shot");
TryLinearCombinations = AppGetOption(App,"-m --seed-generate");
FindCyclicVector = AppGetOption(App,"-e --find-cyclic-vector");
FindClosure = AppGetOption(App,"-c --combine");
Standard = AppGetOption(App,"-t --standard-basis");
opt_G = AppGetOption(App,"-G --gap");
ngen = AppGetIntOption(App,"-g",-1,1,MAXGEN);
SeedVecNo = AppGetIntOption(App,"-n",0,1,10000000);
if (MaxDim != -1 && (FindClosure || FindCyclicVector))
{
MTX_ERROR("'-d' cannot be used together with '-c' or '-e'");
return -1;
}
if ( FindClosure
&& (FindCyclicVector || TryOneVector || TryLinearCombinations)
)
if (FindCyclicVector && FindClosure)
{
MTX_ERROR("'-c' cannot be combined with any of '-e', '-1', '-m'");
return -1;
}
if (TryLinearCombinations && TryOneVector)
{
MTX_ERROR("Options '-n' and '-1' cannot be used together");
return -1;
}
if (TryLinearCombinations && SeedVecNo > 0)
{
MTX_ERROR("Options '-m' and '-n' cannot be used together");
return -1;
}
if (opt_G)
MtxMessageLevel = -100;
/* Process arguments (generator and seed names).
--------------------------------------------- */
if (ngen == -1)
{
ngen = 2;
if (AppGetArguments(App,3,3) < 0)
return -1;
GenName[0] = App->ArgV[0];
GenName[1] = App->ArgV[1];
SeedName = App->ArgV[2];
}
else
{
char buf[200];
if (AppGetArguments(App,2,2) < 0)
return -1;
SeedName = App->ArgV[1];
for (i = 0; i < ngen; ++i)
{
char *c;
sprintf(buf,"%s.%d",App->ArgV[0],i+1);
GenName[i] = c = SysMalloc(strlen(buf)+1);
strcpy(c,buf);
}
}
return 0;
}