public void TestCtorSByte()
{
const sbyte i = 5;
var a = new PyInt(i);
Assert.AreEqual(i, a.ToInt32());
}
public PyList getHandFeature(PlayerKeyInfo ownInfo, PlayerKeyInfo enemyInfo)
{
int[] featureArray = new int[cardArray.Length * 2];
foreach (PlayerKeyInfo.CardKeyInfo hc in ownInfo.handcardJsonList)
{
int idx = cardIdxDict[CardDB.Instance.cardNamestringToEnum(hc.cardName)];
featureArray[idx] = featureArray[idx] + 1;
}
foreach (PlayerKeyInfo.CardKeyInfo hc in enemyInfo.handcardJsonList)
{
int idx = cardIdxDict[CardDB.Instance.cardNamestringToEnum(hc.cardName)] + cardArray.Length;
featureArray[idx] = featureArray[idx] + 1;
}
PyList hand_feature = new PyList();
foreach (int ft in featureArray)
{
PyInt num = new PyInt(ft);
hand_feature.Append(num);
num.Dispose();
}
return(hand_feature);
}
private void Copy(DocBin docBin)
{
_docs = docBin._docs;
// I'd rather copy Python object no matter the serialization mode
// If set to DotNet, the variable will be initialized to null
// disregarding its current value which might be a default object
_pyDocBin = docBin._pyDocBin;
if (Serialization.Selected == Serialization.Mode.SpacyAndDotNet)
{
using (Py.GIL())
{
dynamic spacy = Py.Import("spacy");
dynamic pyVocab = spacy.vocab.Vocab.__call__();
dynamic pyDocs = _pyDocBin.get_docs(pyVocab);
dynamic builtins = Py.Import("builtins");
dynamic listDocs = builtins.list(pyDocs);
var pyCount = new PyInt(builtins.len(listDocs));
var count = pyCount.ToInt32();
for (var i = 0; i < count; i++)
{
dynamic pyDoc = listDocs[i];
_docs[i].PyDoc = pyDoc;
_docs[i].Vocab.PyVocab = pyDoc.vocab;
}
}
}
}
public void TestCtorString()
{
const string i = "5";
var a = new PyInt(i);
Assert.AreEqual(5, a.ToInt32());
}
public void TestCtorPtr()
{
var i = new PyInt(5);
var a = new PyInt(i.Handle);
Assert.AreEqual(5, a.ToInt32());
}
public bool TryDecode <T>(PyObject pyObj, out T?value)
{
value = default;
if (!typeof(T).IsEnum)
{
return(false);
}
Type etype = Enum.GetUnderlyingType(typeof(T));
if (!PyInt.IsIntType(pyObj))
{
return(false);
}
object?result;
try
{
result = pyObj.AsManagedObject(etype);
}
catch (InvalidCastException)
{
return(false);
}
if (Enum.IsDefined(typeof(T), result) || typeof(T).IsFlagsEnum())
{
value = (T)Enum.ToObject(typeof(T), result);
return(true);
}
return(false);
}
public void TestCtorUShort()
{
const ushort i = 5;
var a = new PyInt(i);
Assert.AreEqual(i, a.ToInt32());
}
public void PyIntImplicit()
{
var i = new PyInt(1);
var ni = (PyObject)i.As <object>();
Assert.AreEqual(i.rawPtr, ni.rawPtr);
}
public void TestConvertToInt64()
{
var a = new PyInt(5);
Assert.IsInstanceOf(typeof(long), a.ToInt64());
Assert.AreEqual(5, a.ToInt64());
}
public void TestCtorULong()
{
const ulong i = 5;
var a = new PyInt(i);
Assert.AreEqual(i, a.ToInt32());
}
public void TestCtorPyObject()
{
var i = new PyInt(5);
var a = new PyInt(i);
Assert.AreEqual(5, a.ToInt32());
}
public void TestAsIntGood()
{
var i = new PyInt(5);
var a = PyInt.AsInt(i);
Assert.AreEqual(5, a.ToInt32());
}
public static PyObject NewArray(Array content)
{
// BlockCopy possibly multidimensional array of arbitrary type to onedimensional byte array
System.Type ElementType = content.GetType().GetElementType();
int nbytes = content.Length * Marshal.SizeOf(ElementType);
byte[] data = new byte[nbytes];
System.Buffer.BlockCopy(content, 0, data, 0, nbytes);
// Create an python tuple with the dimensions of the input array
PyObject[] lengths = new PyObject[content.Rank];
for (int i = 0; i < content.Rank; i++)
{
lengths[i] = new PyInt(content.GetLength(i));
}
PyTuple shape = new PyTuple(lengths);
// Create an empty numpy array in correct shape and datatype
var dtype = GetNumpyDataType(ElementType);
var arr = np.InvokeMethod("empty", shape, dtype);
var meta = arr.GetAttr("__array_interface__");
var address = new System.IntPtr((long)meta["data"][0].As <long>());
// Copy the data to that array
Marshal.Copy(data, 0, address, nbytes);
return(arr);
}
public void TestVariables()
{
(ps.Variables() as dynamic)["ee"] = new PyInt(200);
var a0 = ps.Get <int>("ee");
Assert.AreEqual(200, a0);
ps.Exec("locals()['ee'] = 210");
var a1 = ps.Get <int>("ee");
Assert.AreEqual(210, a1);
ps.Exec("globals()['ee'] = 220");
var a2 = ps.Get <int>("ee");
Assert.AreEqual(220, a2);
using (var item = ps.Variables())
{
item["ee"] = new PyInt(230);
}
var a3 = ps.Get <int>("ee");
Assert.AreEqual(230, a3);
}
public static object ToCLI(this PyObject o)
{
if (PySequence.IsSequenceType(o))
{
var list = new List <object>();
foreach (PyObject subo in o)
{
list.Add(subo.ToCLI());
}
return(list);
}
if (PyString.IsStringType(o))
{
return(o.As <string>());
}
if (PyInt.IsIntType(o))
{
return(o.As <long>());
}
if (PyLong.IsLongType(o))
{
return(o.As <long>());
}
if (PyFloat.IsFloatType(o))
{
return(o.As <double>());
}
return(o);
}
public void TestConvertToInt64()
{
long val = 5 + (long)int.MaxValue;
var a = new PyInt(val);
Assert.IsInstanceOf(typeof(long), a.ToInt64());
Assert.AreEqual(val, a.ToInt64());
}
public void ToNullable()
{
const int Const = 42;
var i = new PyInt(Const);
var ni = i.As <int?>();
Assert.AreEqual(Const, ni);
}
public void TestCtorPyObject()
{
var i = new PyInt(5);
Runtime.Runtime.XIncref(i.Handle);
var a = new PyInt(i);
Assert.AreEqual(5, a.ToInt32());
}
public void ToBigIntegerLarge()
{
BigInteger val = BigInteger.Pow(2, 1024) + 3;
var pyInt = new PyInt(val);
Assert.AreEqual(val, pyInt.ToBigInteger());
val = -val;
pyInt = new PyInt(val);
Assert.AreEqual(val, pyInt.ToBigInteger());
}
public void TestBadPyObjectCtor()
{
var t = new PyInt(5);
PyString actual = null;
var ex = Assert.Throws <ArgumentException>(() => actual = new PyString(t));
StringAssert.StartsWith("object is not a string", ex.Message);
Assert.IsNull(actual);
}
public void TestAsIntBad()
{
var s = new PyString("Foo");
PyInt a = null;
var ex = Assert.Throws <PythonException>(() => a = PyInt.AsInt(s));
StringAssert.StartsWith("invalid literal for int", ex.Message);
Assert.IsNull(a);
}
public void TestCtorBadPyObject()
{
var i = new PyString("Foo");
PyInt a = null;
var ex = Assert.Throws <ArgumentException>(() => a = new PyInt(i));
StringAssert.StartsWith("object is not an int", ex.Message);
Assert.IsNull(a);
}
public void TestCtorBadString()
{
const string i = "Foo";
PyInt a = null;
var ex = Assert.Throws <PythonException>(() => a = new PyInt(i));
StringAssert.StartsWith("invalid literal for int", ex.Message);
Assert.IsNull(a);
}
public void TestPyTupleBadCtor()
{
var i = new PyInt(5);
PyTuple t = null;
var ex = Assert.Throws <ArgumentException>(() => t = new PyTuple(i));
Assert.AreEqual("object is not a tuple", ex.Message);
Assert.IsNull(t);
}
public void TestInvalidAsTuple()
{
var i = new PyInt(5);
PyTuple t = null;
var ex = Assert.Throws <PythonException>(() => t = PyTuple.AsTuple(i));
Assert.AreEqual("'int' object is not iterable", ex.Message);
Assert.IsNull(t);
}
public void TestBadPyObjectCtor()
{
var i = new PyInt(5);
PyList t = null;
var ex = Assert.Throws <ArgumentException>(() => t = new PyList(i));
Assert.AreEqual("object is not a list", ex.Message);
Assert.IsNull(t);
}
public void TestStringAsListType()
{
var i = new PyInt(5);
PyList t = null;
var ex = Assert.Throws <PythonException>(() => t = PyList.AsList(i));
Assert.AreEqual("'int' object is not iterable", ex.Message);
Assert.IsNull(t);
}
public void BigIntExplicit()
{
BigInteger val = 42;
var i = new PyInt(val);
var ni = i.As <BigInteger>();
Assert.AreEqual(val, ni);
var nullable = i.As <BigInteger?>();
Assert.AreEqual(val, nullable);
}
public static PyObject CreateNdArray(A content)
{
// Create an python tuple with the dimensions of the input array
PyObject[] lengths = new PyObject[content.Rank];
for (int i = 0; i < content.Rank; i++)
{
lengths[i] = new PyInt(content.Dimension[i]);
}
PyTuple shape = new PyTuple(lengths);
// Create an empty numpy array in correct shape and datatype
var dtype = GetNumpyDataType(content.ElementType);
var arr = np.InvokeMethod("empty", shape, dtype);
var meta = arr.GetAttr("__array_interface__");
var address = new IntPtr((long)meta["data"][0].As <long>());
if (content is A <byte> byteArray)
{
Marshal.Copy(byteArray.Buffer, 0, address, content.Count);
}
else if (content is A <short> shortArray)
{
Marshal.Copy(shortArray.Buffer, 0, address, content.Count);
}
else if (content is A <int> intArray)
{
Marshal.Copy(intArray.Buffer, 0, address, content.Count);
}
else if (content is A <long> longArray)
{
Marshal.Copy(longArray.Buffer, 0, address, content.Count);
}
else if (content is A <double> doubleArray)
{
Marshal.Copy(doubleArray.Buffer, 0, address, content.Count);
}
else if (content is A <double> floatArray)
{
Marshal.Copy(floatArray.Buffer, 0, address, content.Count);
}
else
{
int nbytes = content.SizeInBytes;
byte[] data = new byte[nbytes];
Buffer.BlockCopy(content.Buffer, 0, data, 0, nbytes);
Marshal.Copy(data, 0, address, nbytes);
}
return(arr);
}
public CrossValidationSet(string estimator, string estimatorname, string datasetname, PyObject dataset, int rowstart, int rowfinish, PyObject attributes, CVObject cvObject, PyObject PyModule)
{
Estimator = new PyString(estimator);
EstimatorName = estimatorname;
DatasetName = datasetname;
Dataset = dataset;
Rowstart = new PyInt(rowstart);
Rowfinish = new PyInt(rowfinish);
Attributes = attributes;
CV = new PyString(cvObject.Type);
CVparams = new PyDict();
if (cvObject.N_groups != 0)
{
CVparams["n_groups"] = new PyInt(cvObject.N_groups);
}
if (cvObject.N_splits != 0)
{
CVparams["n_splits"] = new PyInt(cvObject.N_splits);
}
if (cvObject.P != 0)
{
CVparams["p"] = new PyInt(cvObject.P);
}
if (cvObject.Shuffle)
{
CVparams["shuffle"] = true.ToPython();
}
if (cvObject.Train_size != null)
{
if (cvObject.Train_size.GetType().Name == "Int32")
{
CVparams["train_size"] = new PyInt((int)cvObject.Train_size);
}
if (cvObject.Train_size.GetType().Name == "Double")
{
CVparams["train_size"] = new PyFloat((double)cvObject.Train_size);
}
}
if (cvObject.Test_size != null)
{
if (cvObject.Test_size.GetType().Name == "Int32")
{
CVparams["test_size"] = new PyInt((int)cvObject.Test_size);
}
if (cvObject.Test_size.GetType().Name == "Double")
{
CVparams["test_size"] = new PyFloat((double)cvObject.Test_size);
}
}
_pymodule = PyModule;
}