#pragma once #ifdef isfinite #undef isfinite #endif #include #include using namespace Rice; using torch::Device; using torch::Scalar; using torch::ScalarType; using torch::Tensor; using torch::QScheme; using torch::Generator; using torch::TensorOptions; using torch::Layout; using torch::MemoryFormat; using torch::IntArrayRef; using torch::ArrayRef; using torch::TensorList; using torch::Storage; #define HANDLE_TH_ERRORS \ try { #define END_HANDLE_TH_ERRORS \ } catch (const torch::Error& ex) { \ rb_raise(rb_eRuntimeError, "%s", ex.what_without_backtrace()); \ } catch (const Rice::Exception& ex) { \ rb_raise(ex.class_of(), "%s", ex.what()); \ } catch (const std::exception& ex) { \ rb_raise(rb_eRuntimeError, "%s", ex.what()); \ } #define RETURN_NIL \ return Qnil; template<> inline std::vector from_ruby>(Object x) { Array a = Array(x); std::vector vec(a.size()); for (long i = 0; i < a.size(); i++) { vec[i] = from_ruby(a[i]); } return vec; } template<> inline std::vector from_ruby>(Object x) { Array a = Array(x); std::vector vec(a.size()); for (long i = 0; i < a.size(); i++) { vec[i] = from_ruby(a[i]); } return vec; } class FanModeType { std::string s; public: FanModeType(Object o) { s = String(o).str(); } operator torch::nn::init::FanModeType() { if (s == "fan_in") { return torch::kFanIn; } else if (s == "fan_out") { return torch::kFanOut; } else { throw std::runtime_error("Unsupported nonlinearity type: " + s); } } }; template<> inline FanModeType from_ruby(Object x) { return FanModeType(x); } class NonlinearityType { std::string s; public: NonlinearityType(Object o) { s = String(o).str(); } operator torch::nn::init::NonlinearityType() { if (s == "linear") { return torch::kLinear; } else if (s == "conv1d") { return torch::kConv1D; } else if (s == "conv2d") { return torch::kConv2D; } else if (s == "conv3d") { return torch::kConv3D; } else if (s == "conv_transpose1d") { return torch::kConvTranspose1D; } else if (s == "conv_transpose2d") { return torch::kConvTranspose2D; } else if (s == "conv_transpose3d") { return torch::kConvTranspose3D; } else if (s == "sigmoid") { return torch::kSigmoid; } else if (s == "tanh") { return torch::kTanh; } else if (s == "relu") { return torch::kReLU; } else if (s == "leaky_relu") { return torch::kLeakyReLU; } else { throw std::runtime_error("Unsupported nonlinearity type: " + s); } } }; template<> inline NonlinearityType from_ruby(Object x) { return NonlinearityType(x); } class OptionalTensor { torch::Tensor value; public: OptionalTensor(Object o) { if (o.is_nil()) { value = {}; } else { value = from_ruby(o); } } OptionalTensor(torch::Tensor o) { value = o; } operator torch::Tensor() const { return value; } }; template<> inline Scalar from_ruby(Object x) { if (x.rb_type() == T_FIXNUM) { return torch::Scalar(from_ruby(x)); } else { return torch::Scalar(from_ruby(x)); } } template<> inline OptionalTensor from_ruby(Object x) { return OptionalTensor(x); } template<> inline torch::optional from_ruby>(Object x) { if (x.is_nil()) { return torch::nullopt; } else { return torch::optional{from_ruby(x)}; } } template<> inline torch::optional from_ruby>(Object x) { if (x.is_nil()) { return torch::nullopt; } else { return torch::optional{from_ruby(x)}; } } template<> inline torch::optional from_ruby>(Object x) { if (x.is_nil()) { return torch::nullopt; } else { return torch::optional{from_ruby(x)}; } } template<> inline torch::optional from_ruby>(Object x) { if (x.is_nil()) { return torch::nullopt; } else { return torch::optional{from_ruby(x)}; } } template<> inline torch::optional from_ruby>(Object x) { if (x.is_nil()) { return torch::nullopt; } else { return torch::optional{from_ruby(x)}; } }