C++ PyFloat_FromDouble函数代码示例

static PyObject * 
describe_plugin(PyObject * mod, PyObject * args) 
{
    char * libname = NULL;
    int plug_id;
    int port_num;
    void * dlfile;
    LADSPA_Descriptor * (* descrip_func)(unsigned long);
    LADSPA_Descriptor * descrip;
    PyObject * dict = NULL; 
    PyObject * ports = NULL;
    PyObject * portinfo = NULL;
    PyArg_ParseTuple(args, "si", &libname, &plug_id);
    
    if (libname == NULL) {
        Py_INCREF(Py_None);
        return Py_None;
    }

    dlfile = dlopen(libname, RTLD_NOW);
    if (dlfile == NULL) {
        Py_INCREF(Py_None);
        return Py_None;
    }
    
    descrip_func = dlsym(dlfile, "ladspa_descriptor");
    
    descrip = descrip_func(plug_id);
    if (descrip == NULL) {
        Py_INCREF(Py_None);
        return Py_None;
    }
    dict = PyDict_New();
    PyDict_SetItemString(dict, "lib_name", PyString_FromString(libname));
    PyDict_SetItemString(dict, "lib_type", PyString_FromString("ladspa"));
    PyDict_SetItemString(dict, "lib_index", PyInt_FromLong(plug_id));
    PyDict_SetItemString(dict, "unique_id", PyInt_FromLong(descrip->UniqueID));
    PyDict_SetItemString(dict, "properties", PyInt_FromLong(descrip->Properties));
    PyDict_SetItemString(dict, "label", PyString_FromString(descrip->Label));
    PyDict_SetItemString(dict, "name", PyString_FromString(descrip->Name));
    PyDict_SetItemString(dict, "maker", PyString_FromString(descrip->Maker));
    PyDict_SetItemString(dict, "copyright", PyString_FromString(descrip->Copyright));

    ports = PyList_New(descrip->PortCount);

    for(port_num=0; port_num < descrip->PortCount; port_num++) {
        portinfo = PyDict_New();
        PyDict_SetItemString(portinfo, "descriptor", 
                             PyInt_FromLong(descrip->PortDescriptors[port_num]));
        PyDict_SetItemString(portinfo, "name", 
                             PyString_FromString(descrip->PortNames[port_num]));
        PyDict_SetItemString(portinfo, "hint_type",
                             PyInt_FromLong(descrip->PortRangeHints[port_num].HintDescriptor));
        PyDict_SetItemString(portinfo, "hint_lower",
                             PyFloat_FromDouble(descrip->PortRangeHints[port_num].LowerBound));
        PyDict_SetItemString(portinfo, "hint_upper",
                             PyFloat_FromDouble(descrip->PortRangeHints[port_num].UpperBound));

        PyList_SetItem(ports, port_num, portinfo);
    }
    PyDict_SetItemString(dict, "ports", ports);

    dlclose(dlfile);
    Py_INCREF(dict);
    return dict;
}

JSOBJ Object_newDouble(double value)
{ 
    return PyFloat_FromDouble(value);
}

//-------------------------------------------------------------------------------------
PyObject* ScriptVector3::seq_slice(PyObject* self, Py_ssize_t startIndex, Py_ssize_t endIndex)
{
	if(startIndex < 0)
		startIndex = 0;

	if(endIndex > VECTOR_SIZE)
		endIndex = VECTOR_SIZE;

	if(endIndex < startIndex)
		endIndex = startIndex;

	ScriptVector3* sv = static_cast<ScriptVector3*>(self);
	Vector3& my_v = sv->getVector();
	PyObject* pyResult = NULL;

	int length = (int)(endIndex - startIndex);

	if (length == VECTOR_SIZE)
	{
		pyResult = sv;
		Py_INCREF(pyResult);
	}
	else
		switch(length)
		{
			case 0:
				pyResult = PyTuple_New(0);
				break;
			case 1:
				pyResult = PyTuple_New(1);
				PyTuple_SET_ITEM(pyResult, 0, PyFloat_FromDouble(sv->getVector()[static_cast<int>(startIndex)]));
				break;
			case 2:
			{
				Vector2 v;
				
				for (int i = (int)startIndex; i < (int)endIndex; ++i){
					v[i - static_cast<int>(startIndex)] = my_v[i];
				}

				pyResult = new ScriptVector2(v);
				break;
			}
			case 3:
			{
				Vector3 v;
				for (int i = (int)startIndex; i < (int)endIndex; ++i){
					v[i - static_cast<int>(startIndex)] = my_v[i];
				}

				pyResult = new ScriptVector3(v);
				break;
			}
			default:
				PyErr_Format(PyExc_IndexError, "Bad slice indexes [%d, %d] for Vector%d", startIndex, endIndex, VECTOR_SIZE);
				PyErr_PrintEx(0);
				break;
		}

	return pyResult;
}

static PyObject* CameraInfo_GetFocalLength(CameraInfoObj* self, void* closure)
{
  return PyFloat_FromDouble(self->instance.flen);
}

/**
 * Set one or more options in a decoder instance.
 *
 * Handled options are removed from the hash.
 *
 * @param di Decoder instance.
 * @param options A GHashTable of options to set.
 *
 * @return SRD_OK upon success, a (negative) error code otherwise.
 *
 * @since 0.1.0
 */
SRD_API int srd_inst_option_set(struct srd_decoder_inst *di,
		GHashTable *options)
{
	struct srd_decoder_option *sdo;
	PyObject *py_di_options, *py_optval;
	GVariant *value;
	GSList *l;
	double val_double;
	gint64 val_int;
	int ret;
	const char *val_str;

	if (!di) {
		srd_err("Invalid decoder instance.");
		return SRD_ERR_ARG;
	}

	if (!options) {
		srd_err("Invalid options GHashTable.");
		return SRD_ERR_ARG;
	}

	if (!PyObject_HasAttrString(di->decoder->py_dec, "options")) {
		/* Decoder has no options. */
		if (g_hash_table_size(options) == 0) {
			/* No options provided. */
			return SRD_OK;
		} else {
			srd_err("Protocol decoder has no options.");
			return SRD_ERR_ARG;
		}
		return SRD_OK;
	}

	ret = SRD_ERR_PYTHON;
	py_optval = NULL;

	/*
	 * The 'options' tuple is a class variable, but we need to
	 * change it. Changing it directly will affect the entire class,
	 * so we need to create a new object for it, and populate that
	 * instead.
	 */
	if (!(py_di_options = PyObject_GetAttrString(di->py_inst, "options")))
		goto err_out;
	Py_DECREF(py_di_options);
	py_di_options = PyDict_New();
	PyObject_SetAttrString(di->py_inst, "options", py_di_options);

	for (l = di->decoder->options; l; l = l->next) {
		sdo = l->data;
		if ((value = g_hash_table_lookup(options, sdo->id))) {
			/* A value was supplied for this option. */
			if (!g_variant_type_equal(g_variant_get_type(value),
				  g_variant_get_type(sdo->def))) {
				srd_err("Option '%s' should have the same type "
					"as the default value.", sdo->id);
				goto err_out;
			}
		} else {
			/* Use default for this option. */
			value = sdo->def;
		}
		if (g_variant_is_of_type(value, G_VARIANT_TYPE_STRING)) {
			val_str = g_variant_get_string(value, NULL);
			if (!(py_optval = PyUnicode_FromString(val_str))) {
				/* Some UTF-8 encoding error. */
				PyErr_Clear();
				srd_err("Option '%s' requires a UTF-8 string value.", sdo->id);
				goto err_out;
			}
		} else if (g_variant_is_of_type(value, G_VARIANT_TYPE_INT64)) {
			val_int = g_variant_get_int64(value);
			if (!(py_optval = PyLong_FromLong(val_int))) {
				/* ValueError Exception */
				PyErr_Clear();
				srd_err("Option '%s' has invalid integer value.", sdo->id);
				goto err_out;
			}
		} else if (g_variant_is_of_type(value, G_VARIANT_TYPE_DOUBLE)) {
			val_double = g_variant_get_double(value);
			if (!(py_optval = PyFloat_FromDouble(val_double))) {
				/* ValueError Exception */
				PyErr_Clear();
				srd_err("Option '%s' has invalid float value.",
					sdo->id);
				goto err_out;
			}
//.........这里部分代码省略.........

static PyObject* pyAffineParts_getF(pyAffineParts* self, void*) {
    return PyFloat_FromDouble(self->fThis->fF);
}

PyObject *PyMAPIObject_FromSPropValue(SPropValue *pv)
{
	PyObject *val;
	ULONG i;
	switch (PROP_TYPE(pv->ulPropTag)) {
		case PT_I2:	//		case PT_SHORT:
			val = PyInt_FromLong(pv->Value.i);
			break;
		case PT_I4:	//		case PT_LONG:
			val = PyInt_FromLong(pv->Value.l);
			break;
		case PT_R4:	//		case PT_FLOAT:
			val = PyFloat_FromDouble(pv->Value.flt);
			break;
		case PT_R8:	//		case PT_DOUBLE:
			val = PyFloat_FromDouble(pv->Value.dbl);
			break;
		case PT_BOOLEAN:
			val = pv->Value.b ? Py_True : Py_False;
			Py_INCREF(val);
			break;
/*
		case PT_CURRENCY:
			pv->Value.cur??
			break;
*/
		case PT_APPTIME :
			val = PyWinObject_FromDATE(pv->Value.at);
			break;
		case PT_SYSTIME:
			val = PyWinObject_FromFILETIME(pv->Value.ft);
			break;
		case PT_STRING8:
			val = PyString_FromString(pv->Value.lpszA);
			break;
		case PT_UNICODE:
			val = PyWinObject_FromWCHAR(pv->Value.lpszW);
			break;
		case PT_BINARY:
			val = PyString_FromStringAndSize((char *)pv->Value.bin.lpb, pv->Value.bin.cb);
			break;

		case PT_CLSID:
			val = PyWinObject_FromIID(*pv->Value.lpguid);
			break;
		case PT_I8:
//		case PT_LONGLONG:
			val = PyWinObject_FromLARGE_INTEGER(pv->Value.li);
			break;
		case PT_ERROR:
			val = PyInt_FromLong(pv->Value.err);
			break;

		case PT_NULL:
			val = Py_None;
			Py_INCREF(Py_None);
			break;

		case PT_MV_I2:
			val = PyTuple_New(pv->Value.MVi.cValues);
			if (val) {
				for (i=0;i<pv->Value.MVi.cValues;i++)
					PyTuple_SET_ITEM(val, i, PyInt_FromLong(pv->Value.MVi.lpi[i]));
			}
			break;
		case PT_MV_LONG:
			val = PyTuple_New(pv->Value.MVi.cValues);
			if (val) {
				for (i=0;i<pv->Value.MVl.cValues;i++)
					PyTuple_SET_ITEM(val, i, PyInt_FromLong(pv->Value.MVl.lpl[i]));
			}
			break;
		case PT_MV_R4:
			val = PyTuple_New(pv->Value.MVflt.cValues);
			if (val) {
				for (i=0;i<pv->Value.MVflt.cValues;i++)
					PyTuple_SET_ITEM(val, i, PyFloat_FromDouble(pv->Value.MVflt.lpflt[i]));
			}
			break;
		case PT_MV_DOUBLE :
			val = PyTuple_New(pv->Value.MVdbl.cValues);
			if (val) {
				for (i=0;i<pv->Value.MVdbl.cValues;i++)
					PyTuple_SET_ITEM(val, i, PyFloat_FromDouble(pv->Value.MVdbl.lpdbl[i]));
			}
			break;
/*
		case PT_MV_CURRENCY:
			MVcur 
			SCurrencyArray 
*/

  		case PT_MV_APPTIME :
			val = PyTuple_New(pv->Value.MVat.cValues);
			if (val) {
				for (i=0;i<pv->Value.MVat.cValues;i++)
					PyTuple_SET_ITEM(val, i, PyWinObject_FromDATE(pv->Value.MVat.lpat[i]));
			}
			break;
		case PT_MV_SYSTIME:
//.........这里部分代码省略.........

PyObject* PythonQtConv::ConvertQtValueToPythonInternal(int type, const void* data) {
  switch (type) {
  case QMetaType::Void:
    Py_INCREF(Py_None);
    return Py_None;
  case QMetaType::Char:
    return PyInt_FromLong(*((char*)data));
  case QMetaType::UChar:
    return PyInt_FromLong(*((unsigned char*)data));
  case QMetaType::Short:
    return PyInt_FromLong(*((short*)data));
  case QMetaType::UShort:
    return PyInt_FromLong(*((unsigned short*)data));
  case QMetaType::Long:
    return PyInt_FromLong(*((long*)data));
  case QMetaType::ULong:
    // does not fit into simple int of python
    return PyLong_FromUnsignedLong(*((unsigned long*)data));
  case QMetaType::Bool:
    return PythonQtConv::GetPyBool(*((bool*)data));
  case QMetaType::Int:
    return PyInt_FromLong(*((int*)data));
  case QMetaType::UInt:
    // does not fit into simple int of python
    return PyLong_FromUnsignedLong(*((unsigned int*)data));
  case QMetaType::QChar:
    return PyInt_FromLong(*((short*)data));
  case QMetaType::Float:
    return PyFloat_FromDouble(*((float*)data));
  case QMetaType::Double:
    return PyFloat_FromDouble(*((double*)data));
  case QMetaType::LongLong:
    return PyLong_FromLongLong(*((qint64*)data));
  case QMetaType::ULongLong:
    return PyLong_FromUnsignedLongLong(*((quint64*)data));
      // implicit conversion from QByteArray to str has been removed:
  //case QMetaType::QByteArray: {
  //  QByteArray* v = (QByteArray*) data;
  //  return PyString_FromStringAndSize(*v, v->size());
  //                            }
  case QMetaType::QVariantMap:
    return PythonQtConv::QVariantMapToPyObject(*((QVariantMap*)data));
  case QMetaType::QVariantList:
    return PythonQtConv::QVariantListToPyObject(*((QVariantList*)data));
  case QMetaType::QString:
    return PythonQtConv::QStringToPyObject(*((QString*)data));
  case QMetaType::QStringList:
    return PythonQtConv::QStringListToPyObject(*((QStringList*)data));

  case PythonQtMethodInfo::Variant:
    return PythonQtConv::QVariantToPyObject(*((QVariant*)data));
  case QMetaType::QObjectStar:
  case QMetaType::QWidgetStar:
    return PythonQt::priv()->wrapQObject(*((QObject**)data));

  default:
    if (PythonQt::priv()->isPythonQtObjectPtrMetaId(type)) {
      // special case, it is a PythonQtObjectPtr which contains a PyObject, take it directly:
      PyObject* o = ((PythonQtObjectPtr*)data)->object();
      Py_INCREF(o);
      return o;
    } else {
      if (type > 0) {
        // if the type is known, we can construct it via QMetaType::construct
        void* newCPPObject = QMetaType::construct(type, data);
        // XXX this could be optimized by using metatypeid directly
        PythonQtInstanceWrapper* wrap = (PythonQtInstanceWrapper*)PythonQt::priv()->wrapPtr(newCPPObject, QMetaType::typeName(type));
        wrap->_ownedByPythonQt = true;
        wrap->_useQMetaTypeDestroy = true;
        return (PyObject*)wrap;
      }
      std::cerr << "Unknown type that can not be converted to Python: " << type << ", in " << __FILE__ << ":" << __LINE__ << std::endl;
    }
}
Py_INCREF(Py_None);
return Py_None;
 }

static PyObject *PyAsap_ParamProvMaxCutoff(PyAsap_EMTParamProvObject *self,
                                           PyObject *noargs)
{
  double cutoff = self->cobj->GetMaxListCutoffDistance();
  return PyFloat_FromDouble(cutoff);
}

inline PyObject* to_python(double d)
{
    return PyFloat_FromDouble(d);
}

static PyObject *
math_pow(PyObject *self, PyObject *args)
{
	PyObject *ox, *oy;
	double r, x, y;
	int odd_y;

	if (! PyArg_UnpackTuple(args, "pow", 2, 2, &ox, &oy))
		return NULL;
	x = PyFloat_AsDouble(ox);
	y = PyFloat_AsDouble(oy);
	if ((x == -1.0 || y == -1.0) && PyErr_Occurred())
		return NULL;

	/* deal directly with IEEE specials, to cope with problems on various
	   platforms whose semantics don't exactly match C99 */
	r = 0.; /* silence compiler warning */
	if (!Py_IS_FINITE(x) || !Py_IS_FINITE(y)) {
		errno = 0;
		if (Py_IS_NAN(x))
			r = y == 0. ? 1. : x; /* NaN**0 = 1 */
		else if (Py_IS_NAN(y))
			r = x == 1. ? 1. : y; /* 1**NaN = 1 */
		else if (Py_IS_INFINITY(x)) {
			odd_y = Py_IS_FINITE(y) && fmod(fabs(y), 2.0) == 1.0;
			if (y > 0.)
				r = odd_y ? x : fabs(x);
			else if (y == 0.)
				r = 1.;
			else /* y < 0. */
				r = odd_y ? copysign(0., x) : 0.;
		}
		else if (Py_IS_INFINITY(y)) {
			if (fabs(x) == 1.0)
				r = 1.;
			else if (y > 0. && fabs(x) > 1.0)
				r = y;
			else if (y < 0. && fabs(x) < 1.0) {
				r = -y; /* result is +inf */
				if (x == 0.) /* 0**-inf: divide-by-zero */
					errno = EDOM;
			}
			else
				r = 0.;
		}
	}
	else {
		/* let libm handle finite**finite */
		errno = 0;
		PyFPE_START_PROTECT("in math_pow", return 0);
		r = pow(x, y);
		PyFPE_END_PROTECT(r);
		/* a NaN result should arise only from (-ve)**(finite
		   non-integer); in this case we want to raise ValueError. */
		if (!Py_IS_FINITE(r)) {
			if (Py_IS_NAN(r)) {
				errno = EDOM;
			}
			/* 
			   an infinite result here arises either from:
			   (A) (+/-0.)**negative (-> divide-by-zero)
			   (B) overflow of x**y with x and y finite
			*/
			else if (Py_IS_INFINITY(r)) {
				if (x == 0.)
					errno = EDOM;
				else
					errno = ERANGE;
			}
		}
	}

	if (errno && is_error(r))
		return NULL;
	else
		return PyFloat_FromDouble(r);
}

static PyObject *
math_ldexp(PyObject *self, PyObject *args)
{
	double x, r;
	PyObject *oexp;
	long exp;
	if (! PyArg_ParseTuple(args, "dO:ldexp", &x, &oexp))
		return NULL;

	if (PyLong_Check(oexp)) {
		/* on overflow, replace exponent with either LONG_MAX
		   or LONG_MIN, depending on the sign. */
		exp = PyLong_AsLong(oexp);
		if (exp == -1 && PyErr_Occurred()) {
			if (PyErr_ExceptionMatches(PyExc_OverflowError)) {
				if (Py_SIZE(oexp) < 0) {
					exp = LONG_MIN;
				}
				else {
					exp = LONG_MAX;
				}
				PyErr_Clear();
			}
			else {
				/* propagate any unexpected exception */
				return NULL;
			}
		}
	}
	else {
		PyErr_SetString(PyExc_TypeError,
				"Expected an int or long as second argument "
				"to ldexp.");
		return NULL;
	}

	if (x == 0. || !Py_IS_FINITE(x)) {
		/* NaNs, zeros and infinities are returned unchanged */
		r = x;
		errno = 0;
	} else if (exp > INT_MAX) {
		/* overflow */
		r = copysign(Py_HUGE_VAL, x);
		errno = ERANGE;
	} else if (exp < INT_MIN) {
		/* underflow to +-0 */
		r = copysign(0., x);
		errno = 0;
	} else {
		errno = 0;
		PyFPE_START_PROTECT("in math_ldexp", return 0);
		r = ldexp(x, (int)exp);
		PyFPE_END_PROTECT(r);
		if (Py_IS_INFINITY(r))
			errno = ERANGE;
	}

	if (errno && is_error(r))
		return NULL;
	return PyFloat_FromDouble(r);
}

static PyObject*
math_fsum(PyObject *self, PyObject *seq)
{
	PyObject *item, *iter, *sum = NULL;
	Py_ssize_t i, j, n = 0, m = NUM_PARTIALS;
	double x, y, t, ps[NUM_PARTIALS], *p = ps;
	double xsave, special_sum = 0.0, inf_sum = 0.0;
	volatile double hi, yr, lo;

	iter = PyObject_GetIter(seq);
	if (iter == NULL)
		return NULL;

	PyFPE_START_PROTECT("fsum", Py_DECREF(iter); return NULL)

	for(;;) {           /* for x in iterable */
		assert(0 <= n && n <= m);
		assert((m == NUM_PARTIALS && p == ps) ||
		       (m >  NUM_PARTIALS && p != NULL));

		item = PyIter_Next(iter);
		if (item == NULL) {
			if (PyErr_Occurred())
				goto _fsum_error;
			break;
		}
		x = PyFloat_AsDouble(item);
		Py_DECREF(item);
		if (PyErr_Occurred())
			goto _fsum_error;

		xsave = x;
		for (i = j = 0; j < n; j++) {       /* for y in partials */
			y = p[j];
			if (fabs(x) < fabs(y)) {
				t = x; x = y; y = t;
			}
			hi = x + y;
			yr = hi - x;
			lo = y - yr;
			if (lo != 0.0)
				p[i++] = lo;
			x = hi;
		}

		n = i;                              /* ps[i:] = [x] */
		if (x != 0.0) {
			if (! Py_IS_FINITE(x)) {
				/* a nonfinite x could arise either as
				   a result of intermediate overflow, or
				   as a result of a nan or inf in the
				   summands */
				if (Py_IS_FINITE(xsave)) {
					PyErr_SetString(PyExc_OverflowError,
					      "intermediate overflow in fsum");
					goto _fsum_error;
				}
				if (Py_IS_INFINITY(xsave))
					inf_sum += xsave;
				special_sum += xsave;
				/* reset partials */
				n = 0;
			}
			else if (n >= m && _fsum_realloc(&p, n, ps, &m))
				goto _fsum_error;
			else
				p[n++] = x;
		}
	}

	if (special_sum != 0.0) {
		if (Py_IS_NAN(inf_sum))
			PyErr_SetString(PyExc_ValueError,
					"-inf + inf in fsum");
		else
			sum = PyFloat_FromDouble(special_sum);
		goto _fsum_error;
	}

	hi = 0.0;
	if (n > 0) {
		hi = p[--n];
		/* sum_exact(ps, hi) from the top, stop when the sum becomes
		   inexact. */
		while (n > 0) {
			x = hi;
			y = p[--n];
			assert(fabs(y) < fabs(x));
			hi = x + y;
			yr = hi - x;
			lo = y - yr;
			if (lo != 0.0)
				break;
		}
		/* Make half-even rounding work across multiple partials.
		   Needed so that sum([1e-16, 1, 1e16]) will round-up the last
		   digit to two instead of down to zero (the 1e-16 makes the 1
		   slightly closer to two).  With a potential 1 ULP rounding
		   error fixed-up, math.fsum() can guarantee commutativity. */
		if (n > 0 && ((lo < 0.0 && p[n-1] < 0.0) ||
//.........这里部分代码省略.........

static PyObject*
PyNeighbor_getradius(PyNeighbor* self, void* closure)
{
    float value = self->neighbor.radius;
    return PyFloat_FromDouble((double)value);
}

static PyObject *next(PyObject *self)
{
	ligolw_Tokenizer *tokenizer = (ligolw_Tokenizer *) self;
	PyObject *type;
	PyObject *token;
	Py_UNICODE *start, *end;

	/*
	 * Identify the start and end of the next token.
	 */

	do {
		type = next_token(tokenizer, &start, &end);
		if(!type)
			return NULL;
	} while(type == Py_None);

	/*
	 * Extract token as desired type.
	 */

	if(start == NULL) {
		/*
		 * unquoted zero-length string == None
		 */

		Py_INCREF(Py_None);
		token = Py_None;
	} else if(type == (PyObject *) &PyFloat_Type) {
		char ascii_buffer[end - start + 1];
		char *ascii_end;
		if(PyUnicode_EncodeDecimal(start, end - start, ascii_buffer, NULL))
			return NULL;
		token = PyFloat_FromDouble(strtod(ascii_buffer, &ascii_end));
		if(ascii_end == ascii_buffer || *ascii_end != 0) {
			/*
			 * strtod() couldn't convert the token, emulate
			 * float()'s error message
			 */

			Py_XDECREF(token);
			PyErr_Format(PyExc_ValueError, "invalid literal for float(): '%s'", ascii_buffer);
			token = NULL;
		}
	} else if(type == (PyObject *) &PyUnicode_Type) {
		token = PyUnicode_FromUnicode(start, end - start);
	} else if(type == (PyObject *) &PyString_Type) {
		token = PyUnicode_Encode(start, end - start, NULL, NULL);
	} else if(type == (PyObject *) &PyInt_Type) {
		token = PyInt_FromUnicode(start, end - start, 0);
	} else if(type == (PyObject *) &PyLong_Type) {
		token = PyLong_FromUnicode(start, end - start, 0);
	} else {
		token = PyObject_CallFunction(type, "u#", start, end - start);
	}

	/*
	 * Done.
	 */

	return token;
}