//~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
//
void
gosFX::CurveKey::ComputeRange(
Stuff::Scalar *low,
Stuff::Scalar *hi,
Stuff::Scalar dt
)
{
Check_Object(this);
Check_Pointer(low);
Check_Pointer(hi);
//
//------------------------------------------------------------------------
// We know that we will have to test the function at the beginning and end
// of the segment, so go ahead and do that now
//------------------------------------------------------------------------
//
*hi = *low = m_value;
if (dt < Stuff::SMALL)
return;
Stuff::Scalar t = ComputeValue(dt);
if (t>*hi)
*hi = t;
else if (t<*low)
*low = t;
}
T
SrBuffer<T>::ComputeValueAtGate(size_t gateIdx) const
{
float delayPerGate = _model->ComputeDelayPerGate();
float age = delayPerGate * gateIdx;
float filterWidthInSeconds = delayPerGate;
return ComputeValue(age, filterWidthInSeconds);
}
/* wrapper for compute_value C code copied from imphttab */
static PyObject * py_compute_value(PyObject *self, PyObject *args) {
/* input variables for PhtRow struct */
PyObject *py_row;
/* input variables for PhotPar struct */
PyObject *py_par;
/* local variables */
int npars;
PhtRow row;
PhotPar par;
double result;
/* temporary holder of python object to check for errors */
PyObject *temp_obj;
char temp_str[SZ_COLNAME];
/* get input arguments */
if (!PyArg_ParseTuple(args,"OO", &py_row, &py_par)) {
return NULL;
}
/* get how many parameterized variables there are */
temp_obj = PyDict_GetItemString(py_par, "npar");
if (!temp_obj) {
PyErr_SetString(PyExc_KeyError, "Key npar not found in par dict.");
return NULL;
}
#if PY_MAJOR_VERSION >= 3
npars = (int) PyLong_AsLong(temp_obj);
#else
npars = (int) PyInt_AsLong(temp_obj);
#endif
/* fill PhtRow struct (at least the parts we need) */
if (fill_pht_row(py_row, &row) != 0) {
ClosePhotRow(&row);
return NULL;
}
/* fill PhotPar struct (at least the parts we need) */
if (fill_phot_par(py_par, &par) != 0) {
ClosePhotRow(&row);
FreePhotPar(&par);
return NULL;
}
result = ComputeValue(&row, &par);
/* free memory allocated for PhtRow and PhotPar structs */
ClosePhotRow(&row);
FreePhotPar(&par);
return Py_BuildValue("f",result);
}
// ----------------------------------------------------------------------------
// CPcsKeyMap::GetNumericLimitsL
// In order to speed up the execution, caller should convert search pattern
// with a one call to CPcsKeyMap::GetMappedStringL() and then pass the tokens
// to CPcsKeyMap::GetNumericLimitsL().
// So it is expected that aString contains only certain characters.
// ----------------------------------------------------------------------------
TInt CPcsKeyMap::GetNumericLimits(QString aString,
QString& aLowerLimit,
QString& aUpperLimit) const
{
PRINT(_L("CPcsKeyMap::GetNumericLimits"));
if (aString.length() > iMaxKeysStoredInDb)
{
QString truncated = aString.left(iMaxKeysStoredInDb);
aString = truncated;
}
TInt err = ComputeValue(aString, EFalse, aLowerLimit);
if (err == KErrNone)
{
err = ComputeValue(aString, ETrue, aUpperLimit);
}
PRINT1(_L("End CPcsKeyMap::GetNumericLimits ret=%d"), err);
return err;
}
void CGUISlider::AfterUpdate( float elapsedTime )
{
m_bChanged = false;
if (m_bPushed)
{
m_bPushed = GetMouse()->IsPressed(0);
m_value = ComputeValue();
if (m_value != m_lastValue)
{
m_bChanged = true;
m_lastValue = m_value;
}
}
}
bool CElement::CheckIf(CIfData *pIfData, const CParameters *paParameters) const
{
if(pIfData->m_Find)
{
CParameters aSearchParameters;
for(CArray<CExpression>::CIterator p = pIfData->m_aSearchParameters.GetIterator(); p.Exists(); p.Next())
aSearchParameters.Add(ComputeValue(p.Get(), paParameters));
CArray<CElement *> apElements;
m_pDatabase->SearchElements(pIfData->m_ElementType, pIfData->m_ElementModelName, pIfData->m_SearchFunction, &aSearchParameters, &apElements);
bool True = apElements.Size() > 0;
#ifdef SPB_DEBUG
printf("success: condition find %d\n", True);
#endif
return True;
}
else
{
bool True = ComputeValue(pIfData->m_Expression, paParameters) != 0;
#ifdef SPB_DEBUG
printf("success: condition %d\n", True);
#endif
return True;
}
}
//-------------------------
TH1* KVRandomizor::FillHisto2D(Int_t ntimes)
//-------------------------
{
TH2* h1 = new TH2F(
Form("histo%dD", fNd),
Form("histo%dD", fNd),
(fMax[0] - fMin[0]) * 100, fMin[0], fMax[0],
(fMax[1] - fMin[1]) * 100, fMin[1], fMax[1]
);
for (Int_t ii = 0; ii < ntimes; ii += 1) {
fNtest += 1;
Double_t* pos = GetPosition();
if (TestValue(ComputeValue(pos))) {
h1->Fill(pos[0], pos[1]);
}
else {
ii -= 1;
}
delete [] pos;
}
return h1;
}
//主函数
int main()
{
int m;
float x;
polynomial p1,p2;//建立新链表
p1.head=NULL;
p1.tail=NULL;
p1.len=0;
p2.head=NULL;
p2.tail=NULL;
p2.len=0;
printf("请输入关于x的多项式1中x的最高次幂：");
scanf("%d",&m);
if(m<0)
{
printf("输入值非法！\n");
}
CreatePolyn(&p1,m);//创建多项式
printf("多项式1");
PrintPolyn(&p1);//显示多项式1
printf("请输入关于x的多项式2中x的最高次幂：");
scanf("%d",&m);
if(m<0)
{
printf("输入值非法！\n");
}
CreatePolyn(&p2,m);//创建多项式
printf("多项式2");
PrintPolyn(&p2);//显示多项式
AddPolyn(&p1,&p2);
printf("和多项式");
PrintPolyn(&p1);//输出和多项式
printf("输入x的值：");
scanf("%f",&x);
printf("多项式在x=%g时，值为%g",x,ComputeValue(&p1,x));//输出多项式求值
DestroyPolyn(&p1);//销毁多项式
return 0;
}
int CiSeries::getLoads()
{
#ifdef LOADS
short ret;
if(Globals.nAxesLoadFlag)
{
ODBSVLOAD sv[MAX_AXIS];
short num = _adapter->_nAxes;
GLogger.LogMessage("iSeries::get Loads Enter\n", HEAVYDEBUG);
try {
ret = cnc_rdsvmeter(_adapter->mFlibhndl, &num, sv); // 15,16,18,21,0,powermate
if(ret)
{
LOGONCE GLogger.Fatal(StdStringFormat("CiSeries::cnc_rdsvmeter Failed\n"));
return EW_OK;
}
if(num>0)
_adapter->SetMTCTagValue("Xload",StdStringFormat("%8.4f", ComputeValue(sv[0].svload.data, sv[0].svload.dec)));
if(num>1)
_adapter->SetMTCTagValue("Yload",StdStringFormat("%8.4f", ComputeValue(sv[1].svload.data, sv[1].svload.dec)));
if(num>2)
_adapter->SetMTCTagValue("Zload",StdStringFormat("%8.4f", ComputeValue(sv[2].svload.data, sv[2].svload.dec)));
for(int i=3; i< _adapter->_nAxes; i++)
{
if(::toupper(sv[i].svload.name) == 'A')
_adapter->SetMTCTagValue("Aload",StdStringFormat("%8.4f", ComputeValue(sv[i].svload.data, sv[i].svload.dec)));
if(::toupper(sv[i].svload.name) == 'B')
_adapter->SetMTCTagValue("Bload",StdStringFormat("%8.4f", ComputeValue(sv[i].svload.data, sv[i].svload.dec)));
if(::toupper(sv[i].svload.name) == 'C')
_adapter->SetMTCTagValue("Cload",StdStringFormat("%8.4f", ComputeValue(sv[i].svload.data, sv[i].svload.dec)));
}
}
}
catch(...)
{
}
#endif
GLogger.Info("CiSeries::get Loads leave\n");
return EW_OK;
}
int CiSeries::getPositions()
{
if (!_adapter->mConnected)
return -1;
GLogger.LogMessage("iSeries::getPositions Enter\n", HEAVYDEBUG);
//ODBPOS *PosData = static_cast<ODBPOS *>(alloca(_nAxes * sizeof(ODBPOS)));
/* type.
0 : absolute position
1 : machine position
2 : relative position
3 : distance to go
-1 : all type
*/
short data_num = MAX_AXIS;
short type = -1;
ODBPOS PosData[MAX_AXIS]; //Position Data
short ret = cnc_rdposition(_adapter->mFlibhndl, type, &data_num, &PosData[0]); // 15,16,18,21,0,powermate
if (ret == EW_OK)
{
// Fanuc ABC units are in degrees
try {
for(int i=0; i< data_num; i++)
{
GLogger.Info(StdStringFormat( "Axis %c%c%c%c Data=%d Dec=%d\n" , PosData[i].abs.name,(int)PosData[i].abs.data,(int)PosData[i].abs.dec ));
if(::toupper(PosData[i].abs.name) == 'X' && i==0)
_adapter->SetMTCTagValue("Xabs", StdStringFormat("%8.4f", ComputeValue( PosData[i].abs.data , PosData[i].abs.dec)));
if(::toupper(PosData[i].abs.name) == 'Y')
_adapter->SetMTCTagValue("Yabs", StdStringFormat("%8.4f", ComputeValue( PosData[i].abs.data , PosData[i].abs.dec)));
if(::toupper(PosData[i].abs.name) == 'Z')
_adapter->SetMTCTagValue("Zabs", StdStringFormat("%8.4f", ComputeValue( PosData[i].abs.data , PosData[i].abs.dec)));
if(::toupper(PosData[i].abs.name) == 'A')
_adapter->SetMTCTagValue("Aabs", StdStringFormat("%8.4f", ComputeValue( PosData[i].abs.data , PosData[i].abs.dec)));
if(::toupper(PosData[i].abs.name) == 'B')
_adapter->SetMTCTagValue("Babs", StdStringFormat("%8.4f", ComputeValue( PosData[i].abs.data , PosData[i].abs.dec)));
if(::toupper(PosData[i].abs.name) == 'C')
_adapter->SetMTCTagValue("Cabs", StdStringFormat("%8.4f", ComputeValue( PosData[i].abs.data , PosData[i].abs.dec)));
if(::toupper(PosData[i].abs.name) == 'U')
_adapter->SetMTCTagValue("Uabs", StdStringFormat("%8.4f", ComputeValue( PosData[i].abs.data , PosData[i].abs.dec)));
if(::toupper(PosData[i].abs.name) == 'V')
_adapter->SetMTCTagValue("Vabs", StdStringFormat("%8.4f", ComputeValue( PosData[i].abs.data , PosData[i].abs.dec)));
}
}
catch(...)
{
GLogger.LogMessage("CiSeries::getPositions Exception\n", 3);
}
//GLogger.LogMessage(StdStringFormat("CiSeries::getPositions %.3f %.3f %.3f\n",
// _adapter->mXact.getValue(), _adapter->mYact.getValue(), _adapter->mZact.getValue()) , GLogger.HEAVYDEBUG);
}
else
{
_adapter->disconnect();
return -1;
}
GLogger.LogMessage("iSeries::getPositions Done\n", HEAVYDEBUG);
return EW_OK;
}
void C3DGORangeWire::OnKillfocusYmax() { ComputeValue(IDC_YMAX); }
void C3DGORangeWire::OnKillfocusYmin() { ComputeValue(IDC_YMIN); }
//~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
//
void
gosFX::SplineCurve::ComputeRange(
Stuff::Scalar *low,
Stuff::Scalar *hi
)
{
Check_Object(this);
Check_Pointer(low);
Check_Pointer(hi);
//
//------------------------------------------------------------------------
// We know that we will have to test the function at the beginning and end
// of the segment, so go ahead and do that now
//------------------------------------------------------------------------
//
*hi = *low = m_value;
Stuff::Scalar t = ComputeValue(1.0f, 0.0f);
if (t>*hi)
*hi = t;
else if (t<*low)
*low = t;
//
//----------------------------------------------------------------------
// If the curve is not cubic, we just have to look for the local min/max
// at the solution to 2*m_b*t + m_slope == 0. If the curve is linear, we just
// return
//----------------------------------------------------------------------
//
if (!m_a)
{
if (m_b)
{
t = -0.5f * m_slope / m_b;
if (t > 0.0f && t < 1.0f)
{
t = ComputeValue(t, 0.0f);
if (t < *low)
*low = t;
else if (t > *hi)
*hi = t;
}
}
return;
}
//
//----------------------------------------------------------------------
// Now we need to deal with the cubic. Its min/max will be at either of
// the two roots of the equation 3*m_a*t*t + 2*m_b*t + m_slope == 0
//----------------------------------------------------------------------
//
Stuff::Scalar da = 3.0f*m_a;
Stuff::Scalar db = 2.0f*m_b;
Stuff::Scalar range = db*db - 4.0f*da*m_slope;
if (range < 0.0f)
return;
da = 0.5f / da;
db = -db * da;
range = Stuff::Sqrt(range) * da;
//
//------------------------------------------------------------------------
// db now holds the midpoint between the two solutions, which will be at +
// or - range from that point
//------------------------------------------------------------------------
//
t = db - range;
if (t > 0.0f && t < 1.0f)
{
t = ComputeValue(t, 0.0f);
if (t < *low)
*low = t;
else if (t > *hi)
*hi = t;
}
t = db + range;
if (t > 0.0f && t < 1.0f)
{
t = ComputeValue(t, 0.0f);
if (t < *low)
*low = t;
else if (t > *hi)
*hi = t;
}
}
void CElement::ExecInstructions(const CArray<CInstruction *> *papInstructions, const CParameters *paParameters,
bool *pReturned, int *pReturnValue)
{
*pReturned = false;
for(CArray<CInstruction *>::CIterator i = papInstructions->GetIterator(); i.Exists(); i.Next())
{
if(m_Removed)
break;
CInstruction *pBaseInstr = i.Get();
m_pDatabase->SetCurrentInstruction(pBaseInstr->m_LineCount, pBaseInstr->m_Filename);
if(pBaseInstr->m_Type == INSTRUCTION_TYPE_SET_ATTRIBUTE)
{
CSetAttributeInstruction *pInstr = (CSetAttributeInstruction *)pBaseInstr;
CAttribute *pAttribute = FindAttribute(pInstr->m_AttributeName);
if(!pAttribute)
{
printf("error: unknown attribute '%s'\n", pInstr->m_AttributeName.GetString());
m_pDatabase->PrintCallstack();
continue;
}
if(pAttribute->m_Const && pAttribute->m_Defined)
{
printf("error: attribute const '%s' is already defined\n", pAttribute->m_pName);
m_pDatabase->PrintCallstack();
}
else
{
pAttribute->m_Value = ComputeValue(pInstr->m_Value, paParameters);
pAttribute->m_Defined = true;
#ifdef SPB_DEBUG
printf("success: attribute '%s' set to %d\n", pAttribute->m_pName, pAttribute->m_Value);
#endif
}
}
else if(pBaseInstr->m_Type == INSTRUCTION_TYPE_RETURN)
{
CReturnInstruction *pInstr = (CReturnInstruction *)pBaseInstr;
*pReturned = true;
*pReturnValue = ComputeValue(pInstr->m_Value, paParameters);
#ifdef SPB_DEBUG
printf("success: returned %d\n", *pReturnValue);
#endif
return;
}
else if(pBaseInstr->m_Type == INSTRUCTION_TYPE_IF)
{
CIfInstruction *pInstr = (CIfInstruction *)pBaseInstr;
bool True = CheckIf(&pInstr->m_IfData, paParameters);
if(True)
ExecInstructions(&pInstr->m_IfData.m_Instructions.m_apList, paParameters, pReturned, pReturnValue);
else
{
for(CArray<CIfData>::CIterator i = pInstr->m_aElsifDatas.GetIterator(); i.Exists(); i.Next())
{
CIfData *pElsifData = &i.Get();
m_pDatabase->SetCurrentInstruction(pElsifData->m_LineCount, pBaseInstr->m_Filename);
True = CheckIf(pElsifData, paParameters);
if(True)
{
ExecInstructions(&pElsifData->m_Instructions.m_apList, paParameters, pReturned, pReturnValue);
break;
}
}
if(!True)
ExecInstructions(&pInstr->m_InstructionsElse.m_apList, paParameters, pReturned, pReturnValue);
}
if(*pReturned)
return;
}
else if(pBaseInstr->m_Type == INSTRUCTION_TYPE_FROM)
{
CFromInstruction *pInstr = (CFromInstruction *)pBaseInstr;
int StartVal = ComputeValue(pInstr->m_StartValue, paParameters);
int EndVal = ComputeValue(pInstr->m_EndValue, paParameters);
#ifdef SPB_DEBUG
printf("success: from %d to %d (reverse %d)\n", StartVal, EndVal, pInstr->m_Reverse);
#endif
CParameters aFromParameters;
paParameters->GetCopy(&aFromParameters);
int *pNewParameter = &aFromParameters.Add();
if(pInstr->m_Reverse)
{
for(int v = StartVal; v >= EndVal; v--)
{
*pNewParameter = v;
ExecInstructions(&pInstr->m_Instructions.m_apList, &aFromParameters, pReturned, pReturnValue);
if(*pReturned)
return;
}
}
else
{
for(int v = StartVal; v <= EndVal; v++)
{
*pNewParameter = v;
ExecInstructions(&pInstr->m_Instructions.m_apList, &aFromParameters, pReturned, pReturnValue);
if(*pReturned)
return;
}
}
}
else if(pBaseInstr->m_Type == INSTRUCTION_TYPE_CALL_FUNCTION)
{
CCallFunctionInstruction *pInstr = (CCallFunctionInstruction *)pBaseInstr;
CParameters aFunctionParameters;
for(CArray<CExpression>::CIterator p = pInstr->m_aFunctionParameters.GetIterator(); p.Exists(); p.Next())
aFunctionParameters.Add(ComputeValue(p.Get(), paParameters));
if(pInstr->m_This)
CallFunction(pInstr->m_FunctionName, &aFunctionParameters);
else if(pInstr->m_Super)
CallFunction(pInstr->m_FunctionName, &aFunctionParameters, true, pInstr->m_Superclass);
else
{
CParameters aSearchParameters;
for(CArray<CExpression>::CIterator p = pInstr->m_aSearchParameters.GetIterator(); p.Exists(); p.Next())
aSearchParameters.Add(ComputeValue(p.Get(), paParameters));
CArray<CElement *> apElements;
m_pDatabase->SearchElements(pInstr->m_ElementType, pInstr->m_ElementModelName, pInstr->m_SearchFunction, &aSearchParameters, &apElements);
for(CArray<CElement *>::CIterator e = apElements.GetIterator(); e.Exists(); e.Next())
{
if(!e.Get()->m_Removed)
e.Get()->CallFunction(pInstr->m_FunctionName, &aFunctionParameters);
}
}
}
else if(pBaseInstr->m_Type == INSTRUCTION_TYPE_REMOVE)
{
CRemoveInstruction *pInstr = (CRemoveInstruction *)pBaseInstr;
if(pInstr->m_This)
m_pDatabase->RemoveElement(this);
else
{
CParameters aSearchParameters;
for(CArray<CExpression>::CIterator p = pInstr->m_aSearchParameters.GetIterator(); p.Exists(); p.Next())
aSearchParameters.Add(ComputeValue(p.Get(), paParameters));
CArray<CElement *> apElements;
m_pDatabase->SearchElements(pInstr->m_ElementType, pInstr->m_ElementModelName, pInstr->m_SearchFunction, &aSearchParameters, &apElements);
bool DeleteThis = false;
for(CArray<CElement *>::CIterator e = apElements.GetIterator(); e.Exists(); e.Next())
{
CElement *pElement = e.Get();
if(pElement->m_Removed)
continue;
if(pElement == this)
DeleteThis = true;
else
m_pDatabase->RemoveElement(pElement);
}
if(DeleteThis)
m_pDatabase->RemoveElement(this);
}
}
else if(pBaseInstr->m_Type == INSTRUCTION_TYPE_ADD)
{
CAddInstruction *pInstr = (CAddInstruction *)pBaseInstr;
CParameters aAddParameters;
for(CArray<CExpression>::CIterator p = pInstr->m_aAddParameters.GetIterator(); p.Exists(); p.Next())
aAddParameters.Add(ComputeValue(p.Get(), paParameters));
m_pDatabase->AddElement(pInstr->m_ElementType, pInstr->m_ElementModelName, &aAddParameters);
}
else if(pBaseInstr->m_Type == INSTRUCTION_TYPE_CALL_SYS)
{
CCallSysInstruction *pInstr = (CCallSysInstruction *)pBaseInstr;
CParameters aFunctionParameters;
for(CArray<CExpression>::CIterator p = pInstr->m_aFunctionParameters.GetIterator(); p.Exists(); p.Next())
aFunctionParameters.Add(ComputeValue(p.Get(), paParameters));
m_pDatabase->CallSysFunction(pInstr->m_FunctionName, &aFunctionParameters);
}
}
}
void C3DGOAxes::OnKillfocusAngle() { ComputeValue(IDC_ANGLE); }
void C3DGOAxes::OnKillfocusZOrigin() { ComputeValue(IDC_Z_ORIGIN); }