#![feature(specialization)] use pyo3::class::basic::CompareOp; use pyo3::class::*; use pyo3::prelude::*; use pyo3::py_run; mod common; #[pyclass] struct UnaryArithmetic { inner: f64, } impl UnaryArithmetic { fn new(value: f64) -> Self { UnaryArithmetic { inner: value } } } #[pyproto] impl PyObjectProtocol for UnaryArithmetic { fn __repr__(&self) -> PyResult { Ok(format!("UA({})", self.inner)) } } #[pyproto] impl PyNumberProtocol for UnaryArithmetic { fn __neg__(&self) -> PyResult { Ok(Self::new(-self.inner)) } fn __pos__(&self) -> PyResult { Ok(Self::new(self.inner)) } fn __abs__(&self) -> PyResult { Ok(Self::new(self.inner.abs())) } fn __round__(&self, _ndigits: Option) -> PyResult { Ok(Self::new(self.inner.round())) } } #[test] fn unary_arithmetic() { let gil = Python::acquire_gil(); let py = gil.python(); let c = PyCell::new(py, UnaryArithmetic::new(2.7)).unwrap(); py_run!(py, c, "assert repr(-c) == 'UA(-2.7)'"); py_run!(py, c, "assert repr(+c) == 'UA(2.7)'"); py_run!(py, c, "assert repr(abs(c)) == 'UA(2.7)'"); py_run!(py, c, "assert repr(round(c)) == 'UA(3)'"); py_run!(py, c, "assert repr(round(c, 1)) == 'UA(3)'"); } #[pyclass] struct BinaryArithmetic {} #[pyproto] impl PyObjectProtocol for BinaryArithmetic { fn __repr__(&self) -> PyResult<&'static str> { Ok("BA") } } #[pyclass] struct InPlaceOperations { value: u32, } #[pyproto] impl PyObjectProtocol for InPlaceOperations { fn __repr__(&self) -> PyResult { Ok(format!("IPO({:?})", self.value)) } } #[pyproto] impl PyNumberProtocol for InPlaceOperations { fn __iadd__(&mut self, other: u32) -> PyResult<()> { self.value += other; Ok(()) } fn __isub__(&mut self, other: u32) -> PyResult<()> { self.value -= other; Ok(()) } fn __imul__(&mut self, other: u32) -> PyResult<()> { self.value *= other; Ok(()) } fn __ilshift__(&mut self, other: u32) -> PyResult<()> { self.value <<= other; Ok(()) } fn __irshift__(&mut self, other: u32) -> PyResult<()> { self.value >>= other; Ok(()) } fn __iand__(&mut self, other: u32) -> PyResult<()> { self.value &= other; Ok(()) } fn __ixor__(&mut self, other: u32) -> PyResult<()> { self.value ^= other; Ok(()) } fn __ior__(&mut self, other: u32) -> PyResult<()> { self.value |= other; Ok(()) } fn __ipow__(&mut self, other: u32) -> PyResult<()> { self.value = self.value.pow(other); Ok(()) } } #[test] fn inplace_operations() { let gil = Python::acquire_gil(); let py = gil.python(); let init = |value, code| { let c = PyCell::new(py, InPlaceOperations { value }).unwrap(); py_run!(py, c, code); }; init(0, "d = c; c += 1; assert repr(c) == repr(d) == 'IPO(1)'"); init(10, "d = c; c -= 1; assert repr(c) == repr(d) == 'IPO(9)'"); init(3, "d = c; c *= 3; assert repr(c) == repr(d) == 'IPO(9)'"); init(3, "d = c; c <<= 2; assert repr(c) == repr(d) == 'IPO(12)'"); init(12, "d = c; c >>= 2; assert repr(c) == repr(d) == 'IPO(3)'"); init(12, "d = c; c &= 10; assert repr(c) == repr(d) == 'IPO(8)'"); init(12, "d = c; c |= 3; assert repr(c) == repr(d) == 'IPO(15)'"); init(12, "d = c; c ^= 5; assert repr(c) == repr(d) == 'IPO(9)'"); init(3, "d = c; c **= 4; assert repr(c) == repr(d) == 'IPO(81)'"); init( 3, "d = c; c.__ipow__(4); assert repr(c) == repr(d) == 'IPO(81)'", ); } #[pyproto] impl PyNumberProtocol for BinaryArithmetic { fn __add__(lhs: &PyAny, rhs: &PyAny) -> PyResult { Ok(format!("{:?} + {:?}", lhs, rhs)) } fn __sub__(lhs: &PyAny, rhs: &PyAny) -> PyResult { Ok(format!("{:?} - {:?}", lhs, rhs)) } fn __mul__(lhs: &PyAny, rhs: &PyAny) -> PyResult { Ok(format!("{:?} * {:?}", lhs, rhs)) } fn __lshift__(lhs: &PyAny, rhs: &PyAny) -> PyResult { Ok(format!("{:?} << {:?}", lhs, rhs)) } fn __rshift__(lhs: &PyAny, rhs: &PyAny) -> PyResult { Ok(format!("{:?} >> {:?}", lhs, rhs)) } fn __and__(lhs: &PyAny, rhs: &PyAny) -> PyResult { Ok(format!("{:?} & {:?}", lhs, rhs)) } fn __xor__(lhs: &PyAny, rhs: &PyAny) -> PyResult { Ok(format!("{:?} ^ {:?}", lhs, rhs)) } fn __or__(lhs: &PyAny, rhs: &PyAny) -> PyResult { Ok(format!("{:?} | {:?}", lhs, rhs)) } fn __pow__(lhs: &PyAny, rhs: &PyAny, mod_: Option) -> PyResult { Ok(format!("{:?} ** {:?} (mod: {:?})", lhs, rhs, mod_)) } } #[test] fn binary_arithmetic() { let gil = Python::acquire_gil(); let py = gil.python(); let c = PyCell::new(py, BinaryArithmetic {}).unwrap(); py_run!(py, c, "assert c + c == 'BA + BA'"); py_run!(py, c, "assert c.__add__(c) == 'BA + BA'"); py_run!(py, c, "assert c + 1 == 'BA + 1'"); py_run!(py, c, "assert 1 + c == '1 + BA'"); py_run!(py, c, "assert c - 1 == 'BA - 1'"); py_run!(py, c, "assert 1 - c == '1 - BA'"); py_run!(py, c, "assert c * 1 == 'BA * 1'"); py_run!(py, c, "assert 1 * c == '1 * BA'"); py_run!(py, c, "assert c << 1 == 'BA << 1'"); py_run!(py, c, "assert 1 << c == '1 << BA'"); py_run!(py, c, "assert c >> 1 == 'BA >> 1'"); py_run!(py, c, "assert 1 >> c == '1 >> BA'"); py_run!(py, c, "assert c & 1 == 'BA & 1'"); py_run!(py, c, "assert 1 & c == '1 & BA'"); py_run!(py, c, "assert c ^ 1 == 'BA ^ 1'"); py_run!(py, c, "assert 1 ^ c == '1 ^ BA'"); py_run!(py, c, "assert c | 1 == 'BA | 1'"); py_run!(py, c, "assert 1 | c == '1 | BA'"); py_run!(py, c, "assert c ** 1 == 'BA ** 1 (mod: None)'"); py_run!(py, c, "assert 1 ** c == '1 ** BA (mod: None)'"); py_run!(py, c, "assert pow(c, 1, 100) == 'BA ** 1 (mod: Some(100))'"); } #[pyclass] struct RhsArithmetic {} #[pyproto] impl PyNumberProtocol for RhsArithmetic { fn __radd__(&self, other: &PyAny) -> PyResult { Ok(format!("{:?} + RA", other)) } fn __rsub__(&self, other: &PyAny) -> PyResult { Ok(format!("{:?} - RA", other)) } fn __rmul__(&self, other: &PyAny) -> PyResult { Ok(format!("{:?} * RA", other)) } fn __rlshift__(&self, other: &PyAny) -> PyResult { Ok(format!("{:?} << RA", other)) } fn __rrshift__(&self, other: &PyAny) -> PyResult { Ok(format!("{:?} >> RA", other)) } fn __rand__(&self, other: &PyAny) -> PyResult { Ok(format!("{:?} & RA", other)) } fn __rxor__(&self, other: &PyAny) -> PyResult { Ok(format!("{:?} ^ RA", other)) } fn __ror__(&self, other: &PyAny) -> PyResult { Ok(format!("{:?} | RA", other)) } fn __rpow__(&self, other: &PyAny, _mod: Option<&'p PyAny>) -> PyResult { Ok(format!("{:?} ** RA", other)) } } #[test] fn rhs_arithmetic() { let gil = Python::acquire_gil(); let py = gil.python(); let c = PyCell::new(py, RhsArithmetic {}).unwrap(); py_run!(py, c, "assert c.__radd__(1) == '1 + RA'"); py_run!(py, c, "assert 1 + c == '1 + RA'"); py_run!(py, c, "assert c.__rsub__(1) == '1 - RA'"); py_run!(py, c, "assert 1 - c == '1 - RA'"); py_run!(py, c, "assert c.__rmul__(1) == '1 * RA'"); py_run!(py, c, "assert 1 * c == '1 * RA'"); py_run!(py, c, "assert c.__rlshift__(1) == '1 << RA'"); py_run!(py, c, "assert 1 << c == '1 << RA'"); py_run!(py, c, "assert c.__rrshift__(1) == '1 >> RA'"); py_run!(py, c, "assert 1 >> c == '1 >> RA'"); py_run!(py, c, "assert c.__rand__(1) == '1 & RA'"); py_run!(py, c, "assert 1 & c == '1 & RA'"); py_run!(py, c, "assert c.__rxor__(1) == '1 ^ RA'"); py_run!(py, c, "assert 1 ^ c == '1 ^ RA'"); py_run!(py, c, "assert c.__ror__(1) == '1 | RA'"); py_run!(py, c, "assert 1 | c == '1 | RA'"); py_run!(py, c, "assert c.__rpow__(1) == '1 ** RA'"); py_run!(py, c, "assert 1 ** c == '1 ** RA'"); } #[pyclass] struct LhsAndRhsArithmetic {} #[pyproto] impl PyNumberProtocol for LhsAndRhsArithmetic { fn __radd__(&self, other: &PyAny) -> PyResult { Ok(format!("{:?} + RA", other)) } fn __rsub__(&self, other: &PyAny) -> PyResult { Ok(format!("{:?} - RA", other)) } fn __rpow__(&self, other: &PyAny, _mod: Option<&'p PyAny>) -> PyResult { Ok(format!("{:?} ** RA", other)) } fn __add__(lhs: &PyAny, rhs: &PyAny) -> PyResult { Ok(format!("{:?} + {:?}", lhs, rhs)) } fn __sub__(lhs: &PyAny, rhs: &PyAny) -> PyResult { Ok(format!("{:?} - {:?}", lhs, rhs)) } fn __pow__(lhs: &PyAny, rhs: &PyAny, _mod: Option) -> PyResult { Ok(format!("{:?} ** {:?}", lhs, rhs)) } } #[pyproto] impl PyObjectProtocol for LhsAndRhsArithmetic { fn __repr__(&self) -> PyResult<&'static str> { Ok("BA") } } #[test] fn lhs_override_rhs() { let gil = Python::acquire_gil(); let py = gil.python(); let c = PyCell::new(py, LhsAndRhsArithmetic {}).unwrap(); // Not overrided py_run!(py, c, "assert c.__radd__(1) == '1 + RA'"); py_run!(py, c, "assert c.__rsub__(1) == '1 - RA'"); py_run!(py, c, "assert c.__rpow__(1) == '1 ** RA'"); // Overrided py_run!(py, c, "assert 1 + c == '1 + BA'"); py_run!(py, c, "assert 1 - c == '1 - BA'"); py_run!(py, c, "assert 1 ** c == '1 ** BA'"); } #[pyclass] struct RichComparisons {} #[pyproto] impl PyObjectProtocol for RichComparisons { fn __repr__(&self) -> PyResult<&'static str> { Ok("RC") } fn __richcmp__(&self, other: &PyAny, op: CompareOp) -> PyResult { match op { CompareOp::Lt => Ok(format!("{} < {:?}", self.__repr__().unwrap(), other)), CompareOp::Le => Ok(format!("{} <= {:?}", self.__repr__().unwrap(), other)), CompareOp::Eq => Ok(format!("{} == {:?}", self.__repr__().unwrap(), other)), CompareOp::Ne => Ok(format!("{} != {:?}", self.__repr__().unwrap(), other)), CompareOp::Gt => Ok(format!("{} > {:?}", self.__repr__().unwrap(), other)), CompareOp::Ge => Ok(format!("{} >= {:?}", self.__repr__().unwrap(), other)), } } } #[pyclass] struct RichComparisons2 {} #[pyproto] impl PyObjectProtocol for RichComparisons2 { fn __repr__(&self) -> PyResult<&'static str> { Ok("RC2") } fn __richcmp__(&self, _other: &PyAny, op: CompareOp) -> PyResult { let gil = GILGuard::acquire(); match op { CompareOp::Eq => Ok(true.to_object(gil.python())), CompareOp::Ne => Ok(false.to_object(gil.python())), _ => Ok(gil.python().NotImplemented()), } } } #[test] fn rich_comparisons() { let gil = Python::acquire_gil(); let py = gil.python(); let c = PyCell::new(py, RichComparisons {}).unwrap(); py_run!(py, c, "assert (c < c) == 'RC < RC'"); py_run!(py, c, "assert (c < 1) == 'RC < 1'"); py_run!(py, c, "assert (1 < c) == 'RC > 1'"); py_run!(py, c, "assert (c <= c) == 'RC <= RC'"); py_run!(py, c, "assert (c <= 1) == 'RC <= 1'"); py_run!(py, c, "assert (1 <= c) == 'RC >= 1'"); py_run!(py, c, "assert (c == c) == 'RC == RC'"); py_run!(py, c, "assert (c == 1) == 'RC == 1'"); py_run!(py, c, "assert (1 == c) == 'RC == 1'"); py_run!(py, c, "assert (c != c) == 'RC != RC'"); py_run!(py, c, "assert (c != 1) == 'RC != 1'"); py_run!(py, c, "assert (1 != c) == 'RC != 1'"); py_run!(py, c, "assert (c > c) == 'RC > RC'"); py_run!(py, c, "assert (c > 1) == 'RC > 1'"); py_run!(py, c, "assert (1 > c) == 'RC < 1'"); py_run!(py, c, "assert (c >= c) == 'RC >= RC'"); py_run!(py, c, "assert (c >= 1) == 'RC >= 1'"); py_run!(py, c, "assert (1 >= c) == 'RC <= 1'"); } #[test] fn rich_comparisons_python_3_type_error() { let gil = Python::acquire_gil(); let py = gil.python(); let c2 = PyCell::new(py, RichComparisons2 {}).unwrap(); py_expect_exception!(py, c2, "c2 < c2", TypeError); py_expect_exception!(py, c2, "c2 < 1", TypeError); py_expect_exception!(py, c2, "1 < c2", TypeError); py_expect_exception!(py, c2, "c2 <= c2", TypeError); py_expect_exception!(py, c2, "c2 <= 1", TypeError); py_expect_exception!(py, c2, "1 <= c2", TypeError); py_run!(py, c2, "assert (c2 == c2) == True"); py_run!(py, c2, "assert (c2 == 1) == True"); py_run!(py, c2, "assert (1 == c2) == True"); py_run!(py, c2, "assert (c2 != c2) == False"); py_run!(py, c2, "assert (c2 != 1) == False"); py_run!(py, c2, "assert (1 != c2) == False"); py_expect_exception!(py, c2, "c2 > c2", TypeError); py_expect_exception!(py, c2, "c2 > 1", TypeError); py_expect_exception!(py, c2, "1 > c2", TypeError); py_expect_exception!(py, c2, "c2 >= c2", TypeError); py_expect_exception!(py, c2, "c2 >= 1", TypeError); py_expect_exception!(py, c2, "1 >= c2", TypeError); }