package torch

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include module type of Torch_core.Wrapper.Tensor with type t := t
include Torch_core.Wrapper_generated_intf.S with type t := t and type scalar := Torch_core.Wrapper.Scalar.t
val abs : t -> t
val abs_ : t -> t
val abs_out : out:t -> t -> t
val acos : t -> t
val acos_ : t -> t
val acos_out : out:t -> t -> t
val adaptive_avg_pool1d : t -> output_size:int list -> t
val adaptive_avg_pool2d : t -> output_size:int list -> t
val adaptive_avg_pool2d_out : out:t -> t -> output_size:int list -> t
val adaptive_avg_pool3d : t -> output_size:int list -> t
val adaptive_avg_pool3d_backward : grad_output:t -> t -> t
val adaptive_avg_pool3d_backward_out : grad_input:t -> grad_output:t -> t -> t
val adaptive_avg_pool3d_out : out:t -> t -> output_size:int list -> t
val adaptive_max_pool1d : t -> output_size:int list -> t * t
val adaptive_max_pool2d : t -> output_size:int list -> t * t
val adaptive_max_pool2d_backward : grad_output:t -> t -> indices:t -> t
val adaptive_max_pool2d_backward_out : grad_input:t -> grad_output:t -> t -> indices:t -> t
val adaptive_max_pool2d_out : out:t -> indices:t -> t -> output_size:int list -> t * t
val adaptive_max_pool3d : t -> output_size:int list -> t * t
val adaptive_max_pool3d_backward : grad_output:t -> t -> indices:t -> t
val adaptive_max_pool3d_backward_out : grad_input:t -> grad_output:t -> t -> indices:t -> t
val adaptive_max_pool3d_out : out:t -> indices:t -> t -> output_size:int list -> t * t
val add : t -> t -> t
val add_ : t -> t -> t
val add_1 : t -> Torch_core.Wrapper.Scalar.t -> t
val add_out : out:t -> t -> t -> t
val addbmm : t -> batch1:t -> batch2:t -> t
val addbmm_ : t -> batch1:t -> batch2:t -> t
val addbmm_out : out:t -> t -> batch1:t -> batch2:t -> t
val addcdiv : t -> tensor1:t -> tensor2:t -> t
val addcdiv_ : t -> tensor1:t -> tensor2:t -> t
val addcdiv_out : out:t -> t -> tensor1:t -> tensor2:t -> t
val addcmul : t -> tensor1:t -> tensor2:t -> t
val addcmul_ : t -> tensor1:t -> tensor2:t -> t
val addcmul_out : out:t -> t -> tensor1:t -> tensor2:t -> t
val addmm : t -> mat1:t -> mat2:t -> t
val addmm_ : t -> mat1:t -> mat2:t -> t
val addmm_out : out:t -> t -> mat1:t -> mat2:t -> t
val addmv : t -> mat:t -> vec:t -> t
val addmv_ : t -> mat:t -> vec:t -> t
val addmv_out : out:t -> t -> mat:t -> vec:t -> t
val addr : t -> vec1:t -> vec2:t -> t
val addr_ : t -> vec1:t -> vec2:t -> t
val addr_out : out:t -> t -> vec1:t -> vec2:t -> t
val affine_grid_generator : theta:t -> size:int list -> t
val affine_grid_generator_backward : grad:t -> size:int list -> t
val alias : t -> t
val all : t -> t
val all1 : t -> dim:int -> keepdim:bool -> t
val all_out : out:t -> t -> dim:int -> keepdim:bool -> t
val alpha_dropout : t -> p:float -> train:bool -> t
val alpha_dropout_ : t -> p:float -> train:bool -> t
val any : t -> t
val any1 : t -> dim:int -> keepdim:bool -> t
val any_out : out:t -> t -> dim:int -> keepdim:bool -> t
val arange_out : out:t -> end_:Torch_core.Wrapper.Scalar.t -> t
val arange_out1 : out:t -> start:Torch_core.Wrapper.Scalar.t -> end_:Torch_core.Wrapper.Scalar.t -> t
val argmin : t -> dim:int -> keepdim:bool -> t
val argsort : t -> dim:int -> descending:bool -> t
val as_strided : t -> size:int list -> stride:int list -> storage_offset:int -> t
val as_strided_ : t -> size:int list -> stride:int list -> storage_offset:int -> t
val asin : t -> t
val asin_ : t -> t
val asin_out : out:t -> t -> t
val atan : t -> t
val atan2 : t -> t -> t
val atan2_ : t -> t -> t
val atan2_out : out:t -> t -> t -> t
val atan_ : t -> t
val atan_out : out:t -> t -> t
val avg_pool1d : t -> kernel_size:int list -> stride:int list -> padding:int list -> ceil_mode:bool -> count_include_pad:bool -> t
val avg_pool2d_backward : grad_output:t -> t -> kernel_size:int list -> stride:int list -> padding:int list -> ceil_mode:bool -> count_include_pad:bool -> t
val avg_pool2d_backward_out : grad_input:t -> grad_output:t -> t -> kernel_size:int list -> stride:int list -> padding:int list -> ceil_mode:bool -> count_include_pad:bool -> t
val avg_pool2d_out : out:t -> t -> kernel_size:int list -> stride:int list -> padding:int list -> ceil_mode:bool -> count_include_pad:bool -> t
val avg_pool3d : t -> kernel_size:int list -> stride:int list -> padding:int list -> ceil_mode:bool -> count_include_pad:bool -> t
val avg_pool3d_backward : grad_output:t -> t -> kernel_size:int list -> stride:int list -> padding:int list -> ceil_mode:bool -> count_include_pad:bool -> t
val avg_pool3d_backward_out : grad_input:t -> grad_output:t -> t -> kernel_size:int list -> stride:int list -> padding:int list -> ceil_mode:bool -> count_include_pad:bool -> t
val avg_pool3d_out : out:t -> t -> kernel_size:int list -> stride:int list -> padding:int list -> ceil_mode:bool -> count_include_pad:bool -> t
val baddbmm : t -> batch1:t -> batch2:t -> t
val baddbmm_ : t -> batch1:t -> batch2:t -> t
val baddbmm_out : out:t -> t -> batch1:t -> batch2:t -> t
val bartlett_window : window_length:int -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val bartlett_window1 : window_length:int -> periodic:bool -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val batch_norm : t -> weight:t option -> bias:t option -> running_mean:t option -> running_var:t option -> training:bool -> momentum:float -> eps:float -> cudnn_enabled:bool -> t
val batch_norm_backward_elemt : grad_out:t -> t -> mean:t -> invstd:t -> weight:t option -> mean_dy:t -> mean_dy_xmu:t -> t
val batch_norm_backward_reduce : grad_out:t -> t -> mean:t -> invstd:t -> input_g:bool -> weight_g:bool -> bias_g:bool -> t * t * t * t
val batch_norm_elemt : t -> weight:t option -> bias:t option -> mean:t -> invstd:t -> eps:float -> t
val batch_norm_gather_stats : t -> mean:t -> invstd:t -> running_mean:t option -> running_var:t option -> momentum:float -> eps:float -> count:int -> t * t
val batch_norm_stats : t -> eps:float -> t * t
val batch_norm_update_stats : t -> running_mean:t option -> running_var:t option -> momentum:float -> t * t
val bernoulli : t -> t
val bernoulli1 : t -> p:float -> t
val bernoulli_ : t -> p:t -> t
val bernoulli_1 : t -> p:float -> t
val bernoulli_out : out:t -> t -> t
val bilinear : input1:t -> input2:t -> weight:t -> bias:t option -> t
val binary_cross_entropy : t -> target:t -> weight:t option -> reduction:Torch_core.Reduction.t -> t
val binary_cross_entropy_backward : grad_output:t -> t -> target:t -> weight:t -> reduction:Torch_core.Reduction.t -> t
val binary_cross_entropy_backward_out : grad_input:t -> grad_output:t -> t -> target:t -> weight:t -> reduction:Torch_core.Reduction.t -> t
val binary_cross_entropy_out : out:t -> t -> target:t -> weight:t option -> reduction:Torch_core.Reduction.t -> t
val binary_cross_entropy_with_logits : t -> target:t -> weight:t option -> pos_weight:t option -> reduction:Torch_core.Reduction.t -> t
val binary_cross_entropy_with_logits_backward : grad_output:t -> t -> target:t -> weight:t option -> pos_weight:t option -> reduction:Torch_core.Reduction.t -> t
val bincount : t -> weights:t option -> minlength:int -> t
val blackman_window : window_length:int -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val blackman_window1 : window_length:int -> periodic:bool -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val bmm : t -> mat2:t -> t
val bmm_out : out:t -> t -> mat2:t -> t
val broadcast_tensors : t list -> t list
val cartesian_prod : t list -> t
val cat : t list -> dim:int -> t
val cat_out : out:t -> t list -> dim:int -> t
val cauchy_ : t -> median:float -> sigma:float -> t
val cdist : x1:t -> x2:t -> p:float -> t
val ceil : t -> t
val ceil_ : t -> t
val ceil_out : out:t -> t -> t
val celu : t -> t
val celu_ : t -> t
val chain_matmul : matrices:t list -> t
val cholesky : t -> upper:bool -> t
val cholesky_inverse : t -> upper:bool -> t
val cholesky_inverse_out : out:t -> t -> upper:bool -> t
val cholesky_out : out:t -> t -> upper:bool -> t
val cholesky_solve : t -> input2:t -> upper:bool -> t
val cholesky_solve_out : out:t -> t -> input2:t -> upper:bool -> t
val chunk : t -> chunks:int -> dim:int -> t list
val clamp_ : t -> min:Torch_core.Wrapper.Scalar.t -> max:Torch_core.Wrapper.Scalar.t -> t
val clamp_max : t -> max:Torch_core.Wrapper.Scalar.t -> t
val clamp_max_ : t -> max:Torch_core.Wrapper.Scalar.t -> t
val clamp_max_out : out:t -> t -> max:Torch_core.Wrapper.Scalar.t -> t
val clamp_min : t -> min:Torch_core.Wrapper.Scalar.t -> t
val clamp_min_ : t -> min:Torch_core.Wrapper.Scalar.t -> t
val clamp_min_out : out:t -> t -> min:Torch_core.Wrapper.Scalar.t -> t
val clamp_out : out:t -> t -> min:Torch_core.Wrapper.Scalar.t -> max:Torch_core.Wrapper.Scalar.t -> t
val clone : t -> t
val coalesce : t -> t
val combinations : t -> r:int -> with_replacement:bool -> t
val constant_pad_nd : t -> pad:int list -> t
val contiguous : t -> t
val conv1d : t -> weight:t -> bias:t option -> stride:int list -> padding:int list -> dilation:int list -> groups:int -> t
val conv3d : t -> weight:t -> bias:t option -> stride:int list -> padding:int list -> dilation:int list -> groups:int -> t
val conv_tbc : t -> weight:t -> bias:t -> pad:int -> t
val conv_tbc_backward : t -> t -> weight:t -> bias:t -> pad:int -> t * t * t
val conv_transpose1d : t -> weight:t -> bias:t option -> stride:int list -> padding:int list -> output_padding:int list -> groups:int -> dilation:int list -> t
val conv_transpose3d : t -> weight:t -> bias:t option -> stride:int list -> padding:int list -> output_padding:int list -> groups:int -> dilation:int list -> t
val convolution : t -> weight:t -> bias:t option -> stride:int list -> padding:int list -> dilation:int list -> transposed:bool -> output_padding:int list -> groups:int -> t
val copy_sparse_to_sparse_ : t -> src:t -> non_blocking:bool -> t
val cos : t -> t
val cos_ : t -> t
val cos_out : out:t -> t -> t
val cosh : t -> t
val cosh_ : t -> t
val cosh_out : out:t -> t -> t
val cosine_embedding_loss : input1:t -> input2:t -> target:t -> margin:float -> reduction:Torch_core.Reduction.t -> t
val cosine_similarity : x1:t -> x2:t -> dim:int -> eps:float -> t
val cross : t -> t -> dim:int -> t
val cross_out : out:t -> t -> t -> dim:int -> t
val ctc_loss : log_probs:t -> targets:t -> input_lengths:int list -> target_lengths:int list -> blank:int -> reduction:Torch_core.Reduction.t -> zero_infinity:bool -> t
val ctc_loss1 : log_probs:t -> targets:t -> input_lengths:t -> target_lengths:t -> blank:int -> reduction:Torch_core.Reduction.t -> zero_infinity:bool -> t
val cudnn_affine_grid_generator : theta:t -> n:int -> c:int -> h:int -> w:int -> t
val cudnn_affine_grid_generator_backward : grad:t -> n:int -> c:int -> h:int -> w:int -> t
val cudnn_batch_norm : t -> weight:t -> bias:t option -> running_mean:t option -> running_var:t option -> training:bool -> exponential_average_factor:float -> epsilon:float -> t * t * t
val cudnn_batch_norm_backward : t -> grad_output:t -> weight:t -> running_mean:t option -> running_var:t option -> save_mean:t option -> save_var:t option -> epsilon:float -> t * t * t
val cudnn_convolution : t -> weight:t -> bias:t option -> padding:int list -> stride:int list -> dilation:int list -> groups:int -> benchmark:bool -> deterministic:bool -> t
val cudnn_convolution_backward_bias : grad_output:t -> t
val cudnn_convolution_backward_input : self_size:int list -> grad_output:t -> weight:t -> padding:int list -> stride:int list -> dilation:int list -> groups:int -> benchmark:bool -> deterministic:bool -> t
val cudnn_convolution_backward_weight : weight_size:int list -> grad_output:t -> t -> padding:int list -> stride:int list -> dilation:int list -> groups:int -> benchmark:bool -> deterministic:bool -> t
val cudnn_convolution_transpose : t -> weight:t -> bias:t option -> padding:int list -> output_padding:int list -> stride:int list -> dilation:int list -> groups:int -> benchmark:bool -> deterministic:bool -> t
val cudnn_convolution_transpose_backward_bias : grad_output:t -> t
val cudnn_convolution_transpose_backward_input : grad_output:t -> weight:t -> padding:int list -> stride:int list -> dilation:int list -> groups:int -> benchmark:bool -> deterministic:bool -> t
val cudnn_convolution_transpose_backward_weight : weight_size:int list -> grad_output:t -> t -> padding:int list -> stride:int list -> dilation:int list -> groups:int -> benchmark:bool -> deterministic:bool -> t
val cudnn_grid_sampler : t -> grid:t -> t
val cudnn_grid_sampler_backward : t -> grid:t -> grad_output:t -> t * t
val cumprod : t -> dim:int -> t
val cumprod1 : t -> dim:int -> dtype:Torch_core.Kind.t -> t
val cumprod_out : out:t -> t -> dim:int -> t
val cumprod_out1 : out:t -> t -> dim:int -> dtype:Torch_core.Kind.t -> t
val cumsum : t -> dim:int -> t
val cumsum1 : t -> dim:int -> dtype:Torch_core.Kind.t -> t
val cumsum_out : out:t -> t -> dim:int -> t
val cumsum_out1 : out:t -> t -> dim:int -> dtype:Torch_core.Kind.t -> t
val dequantize : t -> t
val det : t -> t
val detach : t -> t
val detach_ : t -> t
val diag : t -> diagonal:int -> t
val diag_embed : t -> offset:int -> dim1:int -> dim2:int -> t
val diag_out : out:t -> t -> diagonal:int -> t
val diagflat : t -> offset:int -> t
val diagonal : t -> offset:int -> dim1:int -> dim2:int -> t
val digamma : t -> t
val digamma_ : t -> t
val digamma_out : out:t -> t -> t
val dist : t -> t -> t
val div : t -> t -> t
val div_ : t -> t -> t
val div_1 : t -> Torch_core.Wrapper.Scalar.t -> t
val div_out : out:t -> t -> t -> t
val dot : t -> t -> t
val dot_out : out:t -> t -> t -> t
val dropout_ : t -> p:float -> train:bool -> t
val eig : t -> eigenvectors:bool -> t * t
val eig_out : e:t -> v:t -> t -> eigenvectors:bool -> t * t
val elu : t -> t
val elu_ : t -> t
val elu_backward : grad_output:t -> alpha:Torch_core.Wrapper.Scalar.t -> scale:Torch_core.Wrapper.Scalar.t -> input_scale:Torch_core.Wrapper.Scalar.t -> output:t -> t
val elu_backward_out : grad_input:t -> grad_output:t -> alpha:Torch_core.Wrapper.Scalar.t -> scale:Torch_core.Wrapper.Scalar.t -> input_scale:Torch_core.Wrapper.Scalar.t -> output:t -> t
val elu_out : out:t -> t -> t
val embedding : weight:t -> indices:t -> padding_idx:int -> scale_grad_by_freq:bool -> sparse:bool -> t
val embedding_backward : grad:t -> indices:t -> num_weights:int -> padding_idx:int -> scale_grad_by_freq:bool -> sparse:bool -> t
val embedding_bag : weight:t -> indices:t -> offsets:t -> scale_grad_by_freq:bool -> mode:int -> sparse:bool -> per_sample_weights:t option -> t * t * t * t
val embedding_dense_backward : grad_output:t -> indices:t -> num_weights:int -> padding_idx:int -> scale_grad_by_freq:bool -> t
val embedding_renorm_ : t -> indices:t -> max_norm:float -> norm_type:float -> t
val embedding_sparse_backward : grad:t -> indices:t -> num_weights:int -> padding_idx:int -> scale_grad_by_freq:bool -> t
val empty : size:int list -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val empty_like : t -> t
val empty_like1 : t -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val empty_out : out:t -> size:int list -> t
val empty_strided : size:int list -> stride:int list -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val eq1 : t -> t -> t
val eq_ : t -> Torch_core.Wrapper.Scalar.t -> t
val eq_1 : t -> t -> t
val eq_out : out:t -> t -> Torch_core.Wrapper.Scalar.t -> t
val eq_out1 : out:t -> t -> t -> t
val erf : t -> t
val erf_ : t -> t
val erf_out : out:t -> t -> t
val erfc : t -> t
val erfc_ : t -> t
val erfc_out : out:t -> t -> t
val erfinv : t -> t
val erfinv_ : t -> t
val erfinv_out : out:t -> t -> t
val exp : t -> t
val exp_ : t -> t
val exp_out : out:t -> t -> t
val expand : t -> size:int list -> implicit:bool -> t
val expand_as : t -> t -> t
val expm1 : t -> t
val expm1_ : t -> t
val expm1_out : out:t -> t -> t
val exponential_ : t -> lambd:float -> t
val eye : n:int -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val eye1 : n:int -> m:int -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val eye_out : out:t -> n:int -> t
val eye_out1 : out:t -> n:int -> m:int -> t
val fbgemm_linear_int8_weight : t -> weight:t -> packed:t -> col_offsets:t -> weight_scale:Torch_core.Wrapper.Scalar.t -> weight_zero_point:Torch_core.Wrapper.Scalar.t -> bias:t -> t
val fbgemm_pack_quantized_matrix : t -> k:int -> n:int -> t
val feature_alpha_dropout : t -> p:float -> train:bool -> t
val feature_alpha_dropout_ : t -> p:float -> train:bool -> t
val feature_dropout : t -> p:float -> train:bool -> t
val feature_dropout_ : t -> p:float -> train:bool -> t
val fft : t -> signal_ndim:int -> normalized:bool -> t
val fill_ : t -> value:Torch_core.Wrapper.Scalar.t -> t
val fill_1 : t -> value:t -> t
val flip : t -> dims:int list -> t
val floor : t -> t
val floor_ : t -> t
val floor_out : out:t -> t -> t
val fmod1 : t -> t -> t
val fmod_ : t -> Torch_core.Wrapper.Scalar.t -> t
val fmod_1 : t -> t -> t
val fmod_out : out:t -> t -> Torch_core.Wrapper.Scalar.t -> t
val fmod_out1 : out:t -> t -> t -> t
val frac : t -> t
val frac_ : t -> t
val frac_out : out:t -> t -> t
val fractional_max_pool2d : t -> kernel_size:int list -> output_size:int list -> random_samples:t -> t * t
val fractional_max_pool2d_backward : grad_output:t -> t -> kernel_size:int list -> output_size:int list -> indices:t -> t
val fractional_max_pool2d_backward_out : grad_input:t -> grad_output:t -> t -> kernel_size:int list -> output_size:int list -> indices:t -> t
val fractional_max_pool2d_out : output:t -> indices:t -> t -> kernel_size:int list -> output_size:int list -> random_samples:t -> t * t
val fractional_max_pool3d : t -> kernel_size:int list -> output_size:int list -> random_samples:t -> t * t
val fractional_max_pool3d_backward : grad_output:t -> t -> kernel_size:int list -> output_size:int list -> indices:t -> t
val fractional_max_pool3d_backward_out : grad_input:t -> grad_output:t -> t -> kernel_size:int list -> output_size:int list -> indices:t -> t
val fractional_max_pool3d_out : output:t -> indices:t -> t -> kernel_size:int list -> output_size:int list -> random_samples:t -> t * t
val frobenius_norm : t -> t
val frobenius_norm1 : t -> dim:int list -> keepdim:bool -> t
val frobenius_norm_out : out:t -> t -> dim:int list -> keepdim:bool -> t
val full : size:int list -> fill_value:Torch_core.Wrapper.Scalar.t -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val full_like : t -> fill_value:Torch_core.Wrapper.Scalar.t -> t
val full_like1 : t -> fill_value:Torch_core.Wrapper.Scalar.t -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val full_out : out:t -> size:int list -> fill_value:Torch_core.Wrapper.Scalar.t -> t
val gather : t -> dim:int -> index:t -> sparse_grad:bool -> t
val gather_out : out:t -> t -> dim:int -> index:t -> sparse_grad:bool -> t
val ge1 : t -> t -> t
val ge_ : t -> Torch_core.Wrapper.Scalar.t -> t
val ge_1 : t -> t -> t
val ge_out : out:t -> t -> Torch_core.Wrapper.Scalar.t -> t
val ge_out1 : out:t -> t -> t -> t
val gels : t -> a:t -> t * t
val gels_out : x:t -> qr:t -> t -> a:t -> t * t
val geometric_ : t -> p:float -> t
val geqrf : t -> t * t
val geqrf_out : a:t -> tau:t -> t -> t * t
val ger : t -> vec2:t -> t
val ger_out : out:t -> t -> vec2:t -> t
val glu : t -> dim:int -> t
val glu_backward : grad_output:t -> t -> dim:int -> t
val glu_backward_out : grad_input:t -> grad_output:t -> t -> dim:int -> t
val glu_out : out:t -> t -> dim:int -> t
val grad : t -> t
val grid_sampler : t -> grid:t -> interpolation_mode:int -> padding_mode:int -> t
val grid_sampler_2d : t -> grid:t -> interpolation_mode:int -> padding_mode:int -> t
val grid_sampler_2d_backward : grad_output:t -> t -> grid:t -> interpolation_mode:int -> padding_mode:int -> t * t
val grid_sampler_3d : t -> grid:t -> interpolation_mode:int -> padding_mode:int -> t
val grid_sampler_3d_backward : grad_output:t -> t -> grid:t -> interpolation_mode:int -> padding_mode:int -> t * t
val group_norm : t -> num_groups:int -> weight:t option -> bias:t option -> eps:float -> cudnn_enabled:bool -> t
val gru : t -> hx:t -> params:t list -> has_biases:bool -> num_layers:int -> dropout:float -> train:bool -> bidirectional:bool -> batch_first:bool -> t * t
val gru1 : data:t -> batch_sizes:t -> hx:t -> params:t list -> has_biases:bool -> num_layers:int -> dropout:float -> train:bool -> bidirectional:bool -> t * t
val gru_cell : t -> hx:t -> w_ih:t -> w_hh:t -> b_ih:t option -> b_hh:t option -> t
val gt1 : t -> t -> t
val gt_ : t -> Torch_core.Wrapper.Scalar.t -> t
val gt_1 : t -> t -> t
val gt_out : out:t -> t -> Torch_core.Wrapper.Scalar.t -> t
val gt_out1 : out:t -> t -> t -> t
val hamming_window : window_length:int -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val hamming_window1 : window_length:int -> periodic:bool -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val hamming_window2 : window_length:int -> periodic:bool -> alpha:float -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val hamming_window3 : window_length:int -> periodic:bool -> alpha:float -> beta:float -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val hann_window : window_length:int -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val hann_window1 : window_length:int -> periodic:bool -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val hardshrink : t -> t
val hardshrink_backward : grad_out:t -> t -> lambd:Torch_core.Wrapper.Scalar.t -> t
val hardtanh : t -> t
val hardtanh_ : t -> t
val hardtanh_backward : grad_output:t -> t -> min_val:Torch_core.Wrapper.Scalar.t -> max_val:Torch_core.Wrapper.Scalar.t -> t
val hardtanh_backward_out : grad_input:t -> grad_output:t -> t -> min_val:Torch_core.Wrapper.Scalar.t -> max_val:Torch_core.Wrapper.Scalar.t -> t
val hardtanh_out : out:t -> t -> t
val hinge_embedding_loss : t -> target:t -> margin:float -> reduction:Torch_core.Reduction.t -> t
val histc : t -> bins:int -> t
val histc_out : out:t -> t -> bins:int -> t
val hspmm : mat1:t -> mat2:t -> t
val hspmm_out : out:t -> mat1:t -> mat2:t -> t
val ifft : t -> signal_ndim:int -> normalized:bool -> t
val index : t -> indices:t list -> t
val index_add : t -> dim:int -> index:t -> source:t -> t
val index_add_ : t -> dim:int -> index:t -> source:t -> t
val index_copy : t -> dim:int -> index:t -> source:t -> t
val index_copy_ : t -> dim:int -> index:t -> source:t -> t
val index_fill : t -> dim:int -> index:t -> value:Torch_core.Wrapper.Scalar.t -> t
val index_fill1 : t -> dim:int -> index:t -> value:t -> t
val index_fill_ : t -> dim:int -> index:t -> value:Torch_core.Wrapper.Scalar.t -> t
val index_fill_1 : t -> dim:int -> index:t -> value:t -> t
val index_put : t -> indices:t list -> values:t -> accumulate:bool -> t
val index_put_ : t -> indices:t list -> values:t -> accumulate:bool -> t
val index_select : t -> dim:int -> index:t -> t
val index_select_out : out:t -> t -> dim:int -> index:t -> t
val indices : t -> t
val instance_norm : t -> weight:t option -> bias:t option -> running_mean:t option -> running_var:t option -> use_input_stats:bool -> momentum:float -> eps:float -> cudnn_enabled:bool -> t
val int_repr : t -> t
val inverse : t -> t
val inverse_out : out:t -> t -> t
val irfft : t -> signal_ndim:int -> normalized:bool -> onesided:bool -> signal_sizes:int list -> t
val isclose : t -> t -> rtol:float -> atol:float -> equal_nan:bool -> t
val isnan : t -> t
val kl_div : t -> target:t -> reduction:Torch_core.Reduction.t -> t
val kl_div_backward : grad_output:t -> t -> target:t -> reduction:Torch_core.Reduction.t -> t
val kthvalue : t -> k:int -> dim:int -> keepdim:bool -> t * t
val kthvalue_out : values:t -> indices:t -> t -> k:int -> dim:int -> keepdim:bool -> t * t
val l1_loss : t -> target:t -> reduction:Torch_core.Reduction.t -> t
val l1_loss_backward : grad_output:t -> t -> target:t -> reduction:Torch_core.Reduction.t -> t
val l1_loss_backward_out : grad_input:t -> grad_output:t -> t -> target:t -> reduction:Torch_core.Reduction.t -> t
val l1_loss_out : out:t -> t -> target:t -> reduction:Torch_core.Reduction.t -> t
val layer_norm : t -> normalized_shape:int list -> weight:t option -> bias:t option -> eps:float -> cudnn_enable:bool -> t
val le1 : t -> t -> t
val le_ : t -> Torch_core.Wrapper.Scalar.t -> t
val le_1 : t -> t -> t
val le_out : out:t -> t -> Torch_core.Wrapper.Scalar.t -> t
val le_out1 : out:t -> t -> t -> t
val leaky_relu : t -> t
val leaky_relu_ : t -> t
val leaky_relu_backward : grad_output:t -> t -> negative_slope:Torch_core.Wrapper.Scalar.t -> t
val leaky_relu_backward_out : grad_input:t -> grad_output:t -> t -> negative_slope:Torch_core.Wrapper.Scalar.t -> t
val leaky_relu_out : out:t -> t -> t
val lerp : t -> end_:t -> weight:Torch_core.Wrapper.Scalar.t -> t
val lerp1 : t -> end_:t -> weight:t -> t
val lerp_ : t -> end_:t -> weight:Torch_core.Wrapper.Scalar.t -> t
val lerp_1 : t -> end_:t -> weight:t -> t
val lerp_out : out:t -> t -> end_:t -> weight:Torch_core.Wrapper.Scalar.t -> t
val lerp_out1 : out:t -> t -> end_:t -> weight:t -> t
val lgamma : t -> t
val lgamma_ : t -> t
val lgamma_out : out:t -> t -> t
val linear : t -> weight:t -> bias:t option -> t
val linspace : start:Torch_core.Wrapper.Scalar.t -> end_:Torch_core.Wrapper.Scalar.t -> steps:int -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val linspace_out : out:t -> start:Torch_core.Wrapper.Scalar.t -> end_:Torch_core.Wrapper.Scalar.t -> steps:int -> t
val log : t -> t
val log10 : t -> t
val log10_ : t -> t
val log10_out : out:t -> t -> t
val log1p : t -> t
val log1p_ : t -> t
val log1p_out : out:t -> t -> t
val log2 : t -> t
val log2_ : t -> t
val log2_out : out:t -> t -> t
val log_ : t -> t
val log_normal_ : t -> mean:float -> std:float -> t
val log_out : out:t -> t -> t
val log_sigmoid : t -> t
val log_sigmoid_backward : grad_output:t -> t -> buffer:t -> t
val log_sigmoid_backward_out : grad_input:t -> grad_output:t -> t -> buffer:t -> t
val log_sigmoid_out : out:t -> t -> t
val log_softmax : t -> dim:int -> t
val log_softmax1 : t -> dim:int -> dtype:Torch_core.Kind.t -> t
val logdet : t -> t
val logspace : start:Torch_core.Wrapper.Scalar.t -> end_:Torch_core.Wrapper.Scalar.t -> steps:int -> base:float -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val logspace_out : out:t -> start:Torch_core.Wrapper.Scalar.t -> end_:Torch_core.Wrapper.Scalar.t -> steps:int -> base:float -> t
val logsumexp : t -> dim:int list -> keepdim:bool -> t
val logsumexp_out : out:t -> t -> dim:int list -> keepdim:bool -> t
val lstm : t -> hx:t list -> params:t list -> has_biases:bool -> num_layers:int -> dropout:float -> train:bool -> bidirectional:bool -> batch_first:bool -> t * t * t
val lstm1 : data:t -> batch_sizes:t -> hx:t list -> params:t list -> has_biases:bool -> num_layers:int -> dropout:float -> train:bool -> bidirectional:bool -> t * t * t
val lstm_cell : t -> hx:t list -> w_ih:t -> w_hh:t -> b_ih:t option -> b_hh:t option -> t * t
val lt1 : t -> t -> t
val lt_ : t -> Torch_core.Wrapper.Scalar.t -> t
val lt_1 : t -> t -> t
val lt_out : out:t -> t -> Torch_core.Wrapper.Scalar.t -> t
val lt_out1 : out:t -> t -> t -> t
val lu_solve : t -> lu_data:t -> lu_pivots:t -> t
val lu_solve_out : out:t -> t -> lu_data:t -> lu_pivots:t -> t
val margin_ranking_loss : input1:t -> input2:t -> target:t -> margin:float -> reduction:Torch_core.Reduction.t -> t
val masked_fill : t -> mask:t -> value:Torch_core.Wrapper.Scalar.t -> t
val masked_fill1 : t -> mask:t -> value:t -> t
val masked_fill_ : t -> mask:t -> value:Torch_core.Wrapper.Scalar.t -> t
val masked_fill_1 : t -> mask:t -> value:t -> t
val masked_scatter : t -> mask:t -> source:t -> t
val masked_scatter_ : t -> mask:t -> source:t -> t
val masked_select : t -> mask:t -> t
val masked_select_out : out:t -> t -> mask:t -> t
val matmul : t -> t -> t
val matmul_out : out:t -> t -> t -> t
val matrix_power : t -> n:int -> t
val matrix_rank : t -> symmetric:bool -> t
val matrix_rank1 : t -> tol:float -> symmetric:bool -> t
val max1 : t -> t -> t
val max2 : t -> dim:int -> keepdim:bool -> t * t
val max_out : out:t -> t -> t -> t
val max_out1 : max:t -> max_values:t -> t -> dim:int -> keepdim:bool -> t * t
val max_pool1d : t -> kernel_size:int list -> stride:int list -> padding:int list -> dilation:int list -> ceil_mode:bool -> t
val max_pool1d_with_indices : t -> kernel_size:int list -> stride:int list -> padding:int list -> dilation:int list -> ceil_mode:bool -> t * t
val max_pool2d_with_indices : t -> kernel_size:int list -> stride:int list -> padding:int list -> dilation:int list -> ceil_mode:bool -> t * t
val max_pool2d_with_indices_backward : grad_output:t -> t -> kernel_size:int list -> stride:int list -> padding:int list -> dilation:int list -> ceil_mode:bool -> indices:t -> t
val max_pool2d_with_indices_backward_out : grad_input:t -> grad_output:t -> t -> kernel_size:int list -> stride:int list -> padding:int list -> dilation:int list -> ceil_mode:bool -> indices:t -> t
val max_pool2d_with_indices_out : output:t -> indices:t -> t -> kernel_size:int list -> stride:int list -> padding:int list -> dilation:int list -> ceil_mode:bool -> t * t
val max_pool3d : t -> kernel_size:int list -> stride:int list -> padding:int list -> dilation:int list -> ceil_mode:bool -> t
val max_pool3d_with_indices : t -> kernel_size:int list -> stride:int list -> padding:int list -> dilation:int list -> ceil_mode:bool -> t * t
val max_pool3d_with_indices_backward : grad_output:t -> t -> kernel_size:int list -> stride:int list -> padding:int list -> dilation:int list -> ceil_mode:bool -> indices:t -> t
val max_pool3d_with_indices_backward_out : grad_input:t -> grad_output:t -> t -> kernel_size:int list -> stride:int list -> padding:int list -> dilation:int list -> ceil_mode:bool -> indices:t -> t
val max_pool3d_with_indices_out : output:t -> indices:t -> t -> kernel_size:int list -> stride:int list -> padding:int list -> dilation:int list -> ceil_mode:bool -> t * t
val max_unpool2d : t -> indices:t -> output_size:int list -> t
val max_unpool2d_backward : grad_output:t -> t -> indices:t -> output_size:int list -> t
val max_unpool2d_backward_out : grad_input:t -> grad_output:t -> t -> indices:t -> output_size:int list -> t
val max_unpool2d_out : out:t -> t -> indices:t -> output_size:int list -> t
val max_unpool3d : t -> indices:t -> output_size:int list -> stride:int list -> padding:int list -> t
val max_unpool3d_backward : grad_output:t -> t -> indices:t -> output_size:int list -> stride:int list -> padding:int list -> t
val max_unpool3d_backward_out : grad_input:t -> grad_output:t -> t -> indices:t -> output_size:int list -> stride:int list -> padding:int list -> t
val max_unpool3d_out : out:t -> t -> indices:t -> output_size:int list -> stride:int list -> padding:int list -> t
val max_values : t -> dim:int list -> keepdim:bool -> t
val mean1 : t -> dtype:Torch_core.Kind.t -> t
val mean2 : t -> dim:int list -> keepdim:bool -> t
val mean3 : t -> dim:int list -> dtype:Torch_core.Kind.t -> t
val mean4 : t -> dim:int list -> keepdim:bool -> dtype:Torch_core.Kind.t -> t
val mean_out : out:t -> t -> dim:int list -> keepdim:bool -> t
val mean_out1 : out:t -> t -> dim:int list -> dtype:Torch_core.Kind.t -> t
val mean_out2 : out:t -> t -> dim:int list -> keepdim:bool -> dtype:Torch_core.Kind.t -> t
val median : t -> t
val median1 : t -> dim:int -> keepdim:bool -> t * t
val median_out : values:t -> indices:t -> t -> dim:int -> keepdim:bool -> t * t
val meshgrid : t list -> t list
val min1 : t -> t -> t
val min2 : t -> dim:int -> keepdim:bool -> t * t
val min_out : out:t -> t -> t -> t
val min_out1 : min:t -> min_indices:t -> t -> dim:int -> keepdim:bool -> t * t
val min_values : t -> dim:int list -> keepdim:bool -> t
val miopen_batch_norm : t -> weight:t -> bias:t option -> running_mean:t option -> running_var:t option -> training:bool -> exponential_average_factor:float -> epsilon:float -> t * t * t
val miopen_batch_norm_backward : t -> grad_output:t -> weight:t -> running_mean:t option -> running_var:t option -> save_mean:t option -> save_var:t option -> epsilon:float -> t * t * t
val miopen_convolution : t -> weight:t -> bias:t option -> padding:int list -> stride:int list -> dilation:int list -> groups:int -> benchmark:bool -> deterministic:bool -> t
val miopen_convolution_backward_bias : grad_output:t -> t
val miopen_convolution_backward_input : self_size:int list -> grad_output:t -> weight:t -> padding:int list -> stride:int list -> dilation:int list -> groups:int -> benchmark:bool -> deterministic:bool -> t
val miopen_convolution_backward_weight : weight_size:int list -> grad_output:t -> t -> padding:int list -> stride:int list -> dilation:int list -> groups:int -> benchmark:bool -> deterministic:bool -> t
val miopen_convolution_transpose : t -> weight:t -> bias:t option -> padding:int list -> output_padding:int list -> stride:int list -> dilation:int list -> groups:int -> benchmark:bool -> deterministic:bool -> t
val miopen_convolution_transpose_backward_input : grad_output:t -> weight:t -> padding:int list -> stride:int list -> dilation:int list -> groups:int -> benchmark:bool -> deterministic:bool -> t
val miopen_convolution_transpose_backward_weight : weight_size:int list -> grad_output:t -> t -> padding:int list -> stride:int list -> dilation:int list -> groups:int -> benchmark:bool -> deterministic:bool -> t
val miopen_depthwise_convolution : t -> weight:t -> bias:t option -> padding:int list -> stride:int list -> dilation:int list -> groups:int -> benchmark:bool -> deterministic:bool -> t
val miopen_depthwise_convolution_backward_input : self_size:int list -> grad_output:t -> weight:t -> padding:int list -> stride:int list -> dilation:int list -> groups:int -> benchmark:bool -> deterministic:bool -> t
val miopen_depthwise_convolution_backward_weight : weight_size:int list -> grad_output:t -> t -> padding:int list -> stride:int list -> dilation:int list -> groups:int -> benchmark:bool -> deterministic:bool -> t
val mkldnn_convolution : t -> weight:t -> bias:t option -> padding:int list -> stride:int list -> dilation:int list -> groups:int -> t
val mkldnn_convolution_backward_input : self_size:int list -> grad_output:t -> weight:t -> padding:int list -> stride:int list -> dilation:int list -> groups:int -> bias_defined:bool -> t
val mkldnn_convolution_backward_weights : weight_size:int list -> grad_output:t -> t -> padding:int list -> stride:int list -> dilation:int list -> groups:int -> bias_defined:bool -> t * t
val mkldnn_linear : t -> weight:t -> bias:t option -> t
val mkldnn_max_pool2d : t -> kernel_size:int list -> stride:int list -> padding:int list -> dilation:int list -> ceil_mode:bool -> t
val mkldnn_reorder_conv2d_weight : t -> padding:int list -> stride:int list -> dilation:int list -> groups:int -> t
val mkldnn_reshape : t -> shape:int list -> t
val mm_out : out:t -> t -> mat2:t -> t
val mode : t -> dim:int -> keepdim:bool -> t * t
val mode_out : values:t -> indices:t -> t -> dim:int -> keepdim:bool -> t * t
val mse_loss_backward : grad_output:t -> t -> target:t -> reduction:Torch_core.Reduction.t -> t
val mse_loss_backward_out : grad_input:t -> grad_output:t -> t -> target:t -> reduction:Torch_core.Reduction.t -> t
val mse_loss_out : out:t -> t -> target:t -> reduction:Torch_core.Reduction.t -> t
val mul : t -> t -> t
val mul_ : t -> t -> t
val mul_1 : t -> Torch_core.Wrapper.Scalar.t -> t
val mul_out : out:t -> t -> t -> t
val multi_margin_loss_backward : grad_output:t -> t -> target:t -> p:Torch_core.Wrapper.Scalar.t -> margin:Torch_core.Wrapper.Scalar.t -> weight:t -> reduction:Torch_core.Reduction.t -> t
val multi_margin_loss_backward_out : grad_input:t -> grad_output:t -> t -> target:t -> p:Torch_core.Wrapper.Scalar.t -> margin:Torch_core.Wrapper.Scalar.t -> weight:t -> reduction:Torch_core.Reduction.t -> t
val multilabel_margin_loss : t -> target:t -> reduction:Torch_core.Reduction.t -> t
val multilabel_margin_loss_backward : grad_output:t -> t -> target:t -> reduction:Torch_core.Reduction.t -> is_target:t -> t
val multilabel_margin_loss_backward_out : grad_input:t -> grad_output:t -> t -> target:t -> reduction:Torch_core.Reduction.t -> is_target:t -> t
val multilabel_margin_loss_out : out:t -> t -> target:t -> reduction:Torch_core.Reduction.t -> t
val multinomial : t -> num_samples:int -> replacement:bool -> t
val multinomial_out : out:t -> t -> num_samples:int -> replacement:bool -> t
val mv : t -> vec:t -> t
val mv_out : out:t -> t -> vec:t -> t
val mvlgamma : t -> p:int -> t
val mvlgamma_ : t -> p:int -> t
val narrow : t -> dim:int -> start:int -> length:int -> t
val narrow_copy : t -> dim:int -> start:int -> length:int -> t
val native_batch_norm : t -> weight:t option -> bias:t option -> running_mean:t option -> running_var:t option -> training:bool -> momentum:float -> eps:float -> t * t * t
val native_norm : t -> t
val ne1 : t -> t -> t
val ne_ : t -> Torch_core.Wrapper.Scalar.t -> t
val ne_1 : t -> t -> t
val ne_out : out:t -> t -> Torch_core.Wrapper.Scalar.t -> t
val ne_out1 : out:t -> t -> t -> t
val neg : t -> t
val neg_ : t -> t
val neg_out : out:t -> t -> t
val nll_loss2d : t -> target:t -> weight:t option -> reduction:Torch_core.Reduction.t -> ignore_index:int -> t
val nll_loss2d_backward : grad_output:t -> t -> target:t -> weight:t option -> reduction:Torch_core.Reduction.t -> ignore_index:int -> total_weight:t -> t
val nll_loss2d_backward_out : grad_input:t -> grad_output:t -> t -> target:t -> weight:t option -> reduction:Torch_core.Reduction.t -> ignore_index:int -> total_weight:t -> t
val nll_loss2d_out : out:t -> t -> target:t -> weight:t option -> reduction:Torch_core.Reduction.t -> ignore_index:int -> t
val nll_loss_backward : grad_output:t -> t -> target:t -> weight:t option -> reduction:Torch_core.Reduction.t -> ignore_index:int -> total_weight:t -> t
val nll_loss_backward_out : grad_input:t -> grad_output:t -> t -> target:t -> weight:t option -> reduction:Torch_core.Reduction.t -> ignore_index:int -> total_weight:t -> t
val nll_loss_out : out:t -> t -> target:t -> weight:t option -> reduction:Torch_core.Reduction.t -> ignore_index:int -> t
val nonzero : t -> t
val nonzero_out : out:t -> t -> t
val norm : t -> t
val norm1 : t -> p:Torch_core.Wrapper.Scalar.t -> dtype:Torch_core.Kind.t -> t
val norm2 : t -> p:Torch_core.Wrapper.Scalar.t -> dim:int list -> keepdim:bool -> t
val norm3 : t -> p:Torch_core.Wrapper.Scalar.t -> dim:int list -> keepdim:bool -> dtype:Torch_core.Kind.t -> t
val norm_except_dim : v:t -> pow:int -> dim:int -> t
val norm_out : out:t -> t -> p:Torch_core.Wrapper.Scalar.t -> dim:int list -> keepdim:bool -> t
val norm_out1 : out:t -> t -> p:Torch_core.Wrapper.Scalar.t -> dim:int list -> keepdim:bool -> dtype:Torch_core.Kind.t -> t
val normal : mean:t -> std:float -> t
val normal1 : mean:float -> std:t -> t
val normal2 : mean:t -> std:t -> t
val normal_ : t -> mean:float -> std:float -> t
val normal_out : out:t -> mean:t -> std:float -> t
val normal_out1 : out:t -> mean:float -> std:t -> t
val normal_out2 : out:t -> mean:t -> std:t -> t
val nuclear_norm : t -> keepdim:bool -> t
val nuclear_norm_out : out:t -> t -> keepdim:bool -> t
val one_hot : t -> num_classes:int -> t
val ones_like : t -> t
val ones_like1 : t -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val ones_out : out:t -> size:int list -> t
val orgqr : t -> input2:t -> t
val orgqr_out : out:t -> t -> input2:t -> t
val ormqr : t -> input2:t -> input3:t -> left:bool -> transpose:bool -> t
val ormqr_out : out:t -> t -> input2:t -> input3:t -> left:bool -> transpose:bool -> t
val pairwise_distance : x1:t -> x2:t -> p:float -> eps:float -> keepdim:bool -> t
val pdist : t -> p:float -> t
val permute : t -> dims:int list -> t
val pin_memory : t -> t
val pinverse : t -> rcond:float -> t
val pixel_shuffle : t -> upscale_factor:int -> t
val poisson : t -> t
val polygamma : n:int -> t -> t
val polygamma_ : t -> n:int -> t
val polygamma_out : out:t -> n:int -> t -> t
val pow : t -> exponent:Torch_core.Wrapper.Scalar.t -> t
val pow1 : t -> exponent:t -> t
val pow2 : Torch_core.Wrapper.Scalar.t -> exponent:t -> t
val pow_ : t -> exponent:Torch_core.Wrapper.Scalar.t -> t
val pow_1 : t -> exponent:t -> t
val pow_out : out:t -> t -> exponent:Torch_core.Wrapper.Scalar.t -> t
val pow_out1 : out:t -> t -> exponent:t -> t
val pow_out2 : out:t -> Torch_core.Wrapper.Scalar.t -> exponent:t -> t
val prelu : t -> weight:t -> t
val prelu_backward : grad_output:t -> t -> weight:t -> t * t
val prod : t -> t
val prod1 : t -> dtype:Torch_core.Kind.t -> t
val prod2 : t -> dim:int -> keepdim:bool -> t
val prod3 : t -> dim:int -> dtype:Torch_core.Kind.t -> t
val prod4 : t -> dim:int -> keepdim:bool -> dtype:Torch_core.Kind.t -> t
val prod_out : out:t -> t -> dim:int -> keepdim:bool -> t
val prod_out1 : out:t -> t -> dim:int -> dtype:Torch_core.Kind.t -> t
val prod_out2 : out:t -> t -> dim:int -> keepdim:bool -> dtype:Torch_core.Kind.t -> t
val pstrf : t -> upper:bool -> t * t
val pstrf_out : u:t -> pivot:t -> t -> upper:bool -> t * t
val put_ : t -> index:t -> source:t -> accumulate:bool -> t
val qr : t -> t * t
val qr_out : q:t -> r:t -> t -> t * t
val quantize_linear : t -> scale:float -> zero_point:int -> t
val quantized_gru_cell : t -> hx:t -> w_ih:t -> w_hh:t -> b_ih:t -> b_hh:t -> packed_ih:t -> packed_hh:t -> col_offsets_ih:t -> col_offsets_hh:t -> scale_ih:Torch_core.Wrapper.Scalar.t -> scale_hh:Torch_core.Wrapper.Scalar.t -> zero_point_ih:Torch_core.Wrapper.Scalar.t -> zero_point_hh:Torch_core.Wrapper.Scalar.t -> t
val quantized_lstm : t -> hx:t list -> params:t list -> has_biases:bool -> num_layers:int -> dropout:float -> train:bool -> bidirectional:bool -> batch_first:bool -> t * t * t
val quantized_lstm_cell : t -> hx:t list -> w_ih:t -> w_hh:t -> b_ih:t -> b_hh:t -> packed_ih:t -> packed_hh:t -> col_offsets_ih:t -> col_offsets_hh:t -> scale_ih:Torch_core.Wrapper.Scalar.t -> scale_hh:Torch_core.Wrapper.Scalar.t -> zero_point_ih:Torch_core.Wrapper.Scalar.t -> zero_point_hh:Torch_core.Wrapper.Scalar.t -> t * t
val quantized_rnn_relu_cell : t -> hx:t -> w_ih:t -> w_hh:t -> b_ih:t -> b_hh:t -> packed_ih:t -> packed_hh:t -> col_offsets_ih:t -> col_offsets_hh:t -> scale_ih:Torch_core.Wrapper.Scalar.t -> scale_hh:Torch_core.Wrapper.Scalar.t -> zero_point_ih:Torch_core.Wrapper.Scalar.t -> zero_point_hh:Torch_core.Wrapper.Scalar.t -> t
val quantized_rnn_tanh_cell : t -> hx:t -> w_ih:t -> w_hh:t -> b_ih:t -> b_hh:t -> packed_ih:t -> packed_hh:t -> col_offsets_ih:t -> col_offsets_hh:t -> scale_ih:Torch_core.Wrapper.Scalar.t -> scale_hh:Torch_core.Wrapper.Scalar.t -> zero_point_ih:Torch_core.Wrapper.Scalar.t -> zero_point_hh:Torch_core.Wrapper.Scalar.t -> t
val rand_like : t -> t
val rand_like1 : t -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val rand_out : out:t -> size:int list -> t
val randint : high:int -> size:int list -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val randint1 : low:int -> high:int -> size:int list -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val randint_like : t -> high:int -> t
val randint_like1 : t -> low:int -> high:int -> t
val randint_like2 : t -> high:int -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val randint_like3 : t -> low:int -> high:int -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val randint_out : out:t -> high:int -> size:int list -> t
val randint_out1 : out:t -> low:int -> high:int -> size:int list -> t
val randn_like : t -> t
val randn_like1 : t -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val randn_out : out:t -> size:int list -> t
val random_ : t -> t
val random_1 : t -> to_:int -> t
val random_2 : t -> from:int -> to_:int -> t
val randperm : n:int -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val randperm_out : out:t -> n:int -> t
val range_out : out:t -> start:Torch_core.Wrapper.Scalar.t -> end_:Torch_core.Wrapper.Scalar.t -> t
val reciprocal : t -> t
val reciprocal_ : t -> t
val reciprocal_out : out:t -> t -> t
val reflection_pad1d : t -> padding:int list -> t
val reflection_pad1d_backward : grad_output:t -> t -> padding:int list -> t
val reflection_pad1d_backward_out : grad_input:t -> grad_output:t -> t -> padding:int list -> t
val reflection_pad1d_out : out:t -> t -> padding:int list -> t
val reflection_pad2d : t -> padding:int list -> t
val reflection_pad2d_backward : grad_output:t -> t -> padding:int list -> t
val reflection_pad2d_backward_out : grad_input:t -> grad_output:t -> t -> padding:int list -> t
val reflection_pad2d_out : out:t -> t -> padding:int list -> t
val relu : t -> t
val relu_ : t -> t
val remainder : t -> Torch_core.Wrapper.Scalar.t -> t
val remainder1 : t -> t -> t
val remainder_ : t -> Torch_core.Wrapper.Scalar.t -> t
val remainder_1 : t -> t -> t
val remainder_out : out:t -> t -> Torch_core.Wrapper.Scalar.t -> t
val remainder_out1 : out:t -> t -> t -> t
val renorm : t -> p:Torch_core.Wrapper.Scalar.t -> dim:int -> maxnorm:Torch_core.Wrapper.Scalar.t -> t
val renorm_ : t -> p:Torch_core.Wrapper.Scalar.t -> dim:int -> maxnorm:Torch_core.Wrapper.Scalar.t -> t
val renorm_out : out:t -> t -> p:Torch_core.Wrapper.Scalar.t -> dim:int -> maxnorm:Torch_core.Wrapper.Scalar.t -> t
val repeat : t -> repeats:int list -> t
val repeat_interleave : repeats:t -> t
val repeat_interleave1 : t -> repeats:t -> dim:int -> t
val repeat_interleave2 : t -> repeats:int -> dim:int -> t
val replication_pad1d : t -> padding:int list -> t
val replication_pad1d_backward : grad_output:t -> t -> padding:int list -> t
val replication_pad1d_backward_out : grad_input:t -> grad_output:t -> t -> padding:int list -> t
val replication_pad1d_out : out:t -> t -> padding:int list -> t
val replication_pad2d : t -> padding:int list -> t
val replication_pad2d_backward : grad_output:t -> t -> padding:int list -> t
val replication_pad2d_backward_out : grad_input:t -> grad_output:t -> t -> padding:int list -> t
val replication_pad2d_out : out:t -> t -> padding:int list -> t
val replication_pad3d : t -> padding:int list -> t
val replication_pad3d_backward : grad_output:t -> t -> padding:int list -> t
val replication_pad3d_backward_out : grad_input:t -> grad_output:t -> t -> padding:int list -> t
val replication_pad3d_out : out:t -> t -> padding:int list -> t
val reshape : t -> shape:int list -> t
val reshape_as : t -> t -> t
val resize_ : t -> size:int list -> t
val resize_as_ : t -> the_template:t -> t
val rfft : t -> signal_ndim:int -> normalized:bool -> onesided:bool -> t
val rnn_relu : t -> hx:t -> params:t list -> has_biases:bool -> num_layers:int -> dropout:float -> train:bool -> bidirectional:bool -> batch_first:bool -> t * t
val rnn_relu1 : data:t -> batch_sizes:t -> hx:t -> params:t list -> has_biases:bool -> num_layers:int -> dropout:float -> train:bool -> bidirectional:bool -> t * t
val rnn_relu_cell : t -> hx:t -> w_ih:t -> w_hh:t -> b_ih:t option -> b_hh:t option -> t
val rnn_tanh : t -> hx:t -> params:t list -> has_biases:bool -> num_layers:int -> dropout:float -> train:bool -> bidirectional:bool -> batch_first:bool -> t * t
val rnn_tanh1 : data:t -> batch_sizes:t -> hx:t -> params:t list -> has_biases:bool -> num_layers:int -> dropout:float -> train:bool -> bidirectional:bool -> t * t
val rnn_tanh_cell : t -> hx:t -> w_ih:t -> w_hh:t -> b_ih:t option -> b_hh:t option -> t
val roll : t -> shifts:int list -> dims:int list -> t
val rot90 : t -> k:int -> dims:int list -> t
val round : t -> t
val round_ : t -> t
val round_out : out:t -> t -> t
val rrelu : t -> training:bool -> t
val rrelu_ : t -> training:bool -> t
val rrelu_with_noise : t -> noise:t -> training:bool -> t
val rrelu_with_noise_ : t -> noise:t -> training:bool -> t
val rrelu_with_noise_backward : grad_output:t -> t -> noise:t -> lower:Torch_core.Wrapper.Scalar.t -> upper:Torch_core.Wrapper.Scalar.t -> training:bool -> t
val rrelu_with_noise_backward_out : grad_input:t -> grad_output:t -> t -> noise:t -> lower:Torch_core.Wrapper.Scalar.t -> upper:Torch_core.Wrapper.Scalar.t -> training:bool -> t
val rrelu_with_noise_out : out:t -> t -> noise:t -> training:bool -> t
val rsqrt : t -> t
val rsqrt_ : t -> t
val rsqrt_out : out:t -> t -> t
val rsub : t -> t -> t
val rsub1 : t -> Torch_core.Wrapper.Scalar.t -> t
val s_copy_ : t -> src:t -> non_blocking:bool -> t
val s_native_addmm : t -> mat1:t -> mat2:t -> t
val s_native_addmm_ : t -> mat1:t -> mat2:t -> t
val s_native_addmm_out : out:t -> t -> mat1:t -> mat2:t -> t
val scalar_tensor : s:Torch_core.Wrapper.Scalar.t -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val scatter : t -> dim:int -> index:t -> src:t -> t
val scatter1 : t -> dim:int -> index:t -> value:Torch_core.Wrapper.Scalar.t -> t
val scatter_ : t -> dim:int -> index:t -> src:t -> t
val scatter_1 : t -> dim:int -> index:t -> value:Torch_core.Wrapper.Scalar.t -> t
val scatter_add : t -> dim:int -> index:t -> src:t -> t
val scatter_add_ : t -> dim:int -> index:t -> src:t -> t
val selu : t -> t
val selu_ : t -> t
val set_ : t -> t
val set_1 : t -> source:t -> t
val set_requires_grad : t -> r:bool -> t
val sigmoid : t -> t
val sigmoid_ : t -> t
val sigmoid_backward : grad_output:t -> output:t -> t
val sigmoid_backward_out : grad_input:t -> grad_output:t -> output:t -> t
val sigmoid_out : out:t -> t -> t
val sign : t -> t
val sign_ : t -> t
val sign_out : out:t -> t -> t
val sin : t -> t
val sin_ : t -> t
val sin_out : out:t -> t -> t
val sinh : t -> t
val sinh_ : t -> t
val sinh_out : out:t -> t -> t
val slice : t -> dim:int -> start:int -> end_:int -> step:int -> t
val slogdet : t -> t * t
val smm : t -> mat2:t -> t
val smooth_l1_loss : t -> target:t -> reduction:Torch_core.Reduction.t -> t
val smooth_l1_loss_backward : grad_output:t -> t -> target:t -> reduction:Torch_core.Reduction.t -> t
val smooth_l1_loss_backward_out : grad_input:t -> grad_output:t -> t -> target:t -> reduction:Torch_core.Reduction.t -> t
val smooth_l1_loss_out : out:t -> t -> target:t -> reduction:Torch_core.Reduction.t -> t
val soft_margin_loss : t -> target:t -> reduction:Torch_core.Reduction.t -> t
val soft_margin_loss_backward : grad_output:t -> t -> target:t -> reduction:Torch_core.Reduction.t -> t
val soft_margin_loss_backward_out : grad_input:t -> grad_output:t -> t -> target:t -> reduction:Torch_core.Reduction.t -> t
val soft_margin_loss_out : out:t -> t -> target:t -> reduction:Torch_core.Reduction.t -> t
val softmax : t -> dim:int -> t
val softmax1 : t -> dim:int -> dtype:Torch_core.Kind.t -> t
val softplus : t -> t
val softplus_backward : grad_output:t -> t -> beta:Torch_core.Wrapper.Scalar.t -> threshold:Torch_core.Wrapper.Scalar.t -> output:t -> t
val softplus_backward_out : grad_input:t -> grad_output:t -> t -> beta:Torch_core.Wrapper.Scalar.t -> threshold:Torch_core.Wrapper.Scalar.t -> output:t -> t
val softplus_out : out:t -> t -> t
val softshrink : t -> t
val softshrink_backward : grad_output:t -> t -> lambd:Torch_core.Wrapper.Scalar.t -> t
val softshrink_backward_out : grad_input:t -> grad_output:t -> t -> lambd:Torch_core.Wrapper.Scalar.t -> t
val softshrink_out : out:t -> t -> t
val solve : t -> a:t -> t * t
val solve_out : solution:t -> lu:t -> t -> a:t -> t * t
val sort : t -> dim:int -> descending:bool -> t * t
val sort_out : values:t -> indices:t -> t -> dim:int -> descending:bool -> t * t
val sparse_coo_tensor : size:int list -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val sparse_coo_tensor1 : indices:t -> values:t -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val sparse_coo_tensor2 : indices:t -> values:t -> size:int list -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val sparse_resize_ : t -> size:int list -> sparse_dim:int -> dense_dim:int -> t
val sparse_resize_and_clear_ : t -> size:int list -> sparse_dim:int -> dense_dim:int -> t
val split : t -> split_size:int -> dim:int -> t list
val split_with_sizes : t -> split_sizes:int list -> dim:int -> t list
val sqrt : t -> t
val sqrt_ : t -> t
val sqrt_out : out:t -> t -> t
val squeeze : t -> t
val squeeze1 : t -> dim:int -> t
val squeeze_ : t -> t
val squeeze_1 : t -> dim:int -> t
val sspaddmm : t -> mat1:t -> mat2:t -> t
val sspaddmm_out : out:t -> t -> mat1:t -> mat2:t -> t
val stack : t list -> dim:int -> t
val stack_out : out:t -> t list -> dim:int -> t
val std : t -> unbiased:bool -> t
val std1 : t -> dim:int list -> unbiased:bool -> keepdim:bool -> t
val std_out : out:t -> t -> dim:int list -> unbiased:bool -> keepdim:bool -> t
val stft : t -> n_fft:int -> hop_length:int -> win_length:int -> window:t option -> normalized:bool -> onesided:bool -> t
val sub : t -> t -> t
val sub_ : t -> t -> t
val sub_1 : t -> Torch_core.Wrapper.Scalar.t -> t
val sub_out : out:t -> t -> t -> t
val sum1 : t -> dtype:Torch_core.Kind.t -> t
val sum2 : t -> dim:int list -> keepdim:bool -> t
val sum3 : t -> dim:int list -> dtype:Torch_core.Kind.t -> t
val sum4 : t -> dim:int list -> keepdim:bool -> dtype:Torch_core.Kind.t -> t
val sum_out : out:t -> t -> dim:int list -> keepdim:bool -> t
val sum_out1 : out:t -> t -> dim:int list -> dtype:Torch_core.Kind.t -> t
val sum_out2 : out:t -> t -> dim:int list -> keepdim:bool -> dtype:Torch_core.Kind.t -> t
val sum_to_size : t -> size:int list -> t
val svd : t -> some:bool -> compute_uv:bool -> t * t * t
val svd_out : u:t -> s:t -> v:t -> t -> some:bool -> compute_uv:bool -> t * t * t
val symeig : t -> eigenvectors:bool -> upper:bool -> t * t
val symeig_out : e:t -> v:t -> t -> eigenvectors:bool -> upper:bool -> t * t
val tr : t -> t
val t_ : t -> t
val take : t -> index:t -> t
val take_out : out:t -> t -> index:t -> t
val tan : t -> t
val tan_ : t -> t
val tan_out : out:t -> t -> t
val tanh : t -> t
val tanh_ : t -> t
val tanh_backward : grad_output:t -> output:t -> t
val tanh_backward_out : grad_input:t -> grad_output:t -> output:t -> t
val tanh_out : out:t -> t -> t
val tensordot : t -> t -> dims_self:int list -> dims_other:int list -> t
val threshold : t -> threshold:Torch_core.Wrapper.Scalar.t -> value:Torch_core.Wrapper.Scalar.t -> t
val threshold_ : t -> threshold:Torch_core.Wrapper.Scalar.t -> value:Torch_core.Wrapper.Scalar.t -> t
val threshold_backward : grad_output:t -> t -> threshold:Torch_core.Wrapper.Scalar.t -> t
val threshold_out : out:t -> t -> threshold:Torch_core.Wrapper.Scalar.t -> value:Torch_core.Wrapper.Scalar.t -> t
val to_ : t -> device:Torch_core.Device.t -> t
val to1 : t -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> non_blocking:bool -> copy:bool -> t
val to2 : t -> dtype:Torch_core.Kind.t -> non_blocking:bool -> copy:bool -> t
val to3 : t -> t -> non_blocking:bool -> copy:bool -> t
val to4 : t -> device:Torch_core.Device.t -> dtype:Torch_core.Kind.t -> non_blocking:bool -> copy:bool -> t
val to_dense : t -> t
val to_dense_backward : grad:t -> t -> t
val to_mkldnn : t -> t
val to_mkldnn_backward : grad:t -> t -> t
val to_sparse : t -> t
val to_sparse1 : t -> sparse_dim:int -> t
val topk : t -> k:int -> dim:int -> largest:bool -> sorted:bool -> t * t
val topk_out : values:t -> indices:t -> t -> k:int -> dim:int -> largest:bool -> sorted:bool -> t * t
val totype : t -> scalar_type:Torch_core.Kind.t -> t
val trace : t -> t
val transpose : t -> dim0:int -> dim1:int -> t
val transpose_ : t -> dim0:int -> dim1:int -> t
val triangular_solve : t -> a:t -> upper:bool -> transpose:bool -> unitriangular:bool -> t * t
val triangular_solve_out : x:t -> m:t -> t -> a:t -> upper:bool -> transpose:bool -> unitriangular:bool -> t * t
val tril : t -> diagonal:int -> t
val tril_ : t -> diagonal:int -> t
val tril_indices : row:int -> col:int -> offset:int -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val tril_out : out:t -> t -> diagonal:int -> t
val triplet_margin_loss : anchor:t -> positive:t -> negative:t -> margin:float -> p:float -> eps:float -> swap:bool -> reduction:Torch_core.Reduction.t -> t
val triu : t -> diagonal:int -> t
val triu_ : t -> diagonal:int -> t
val triu_indices : row:int -> col:int -> offset:int -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val triu_out : out:t -> t -> diagonal:int -> t
val trunc : t -> t
val trunc_ : t -> t
val trunc_out : out:t -> t -> t
val type_as : t -> t -> t
val unbind : t -> dim:int -> t list
val unfold : t -> dimension:int -> size:int -> step:int -> t
val uniform_ : t -> from:float -> to_:float -> t
val unique_consecutive : t -> return_inverse:bool -> return_counts:bool -> dim:int -> t * t * t
val unique_dim : t -> dim:int -> sorted:bool -> return_inverse:bool -> return_counts:bool -> t * t * t
val unique_dim_consecutive : t -> dim:int -> return_inverse:bool -> return_counts:bool -> t * t * t
val unsqueeze : t -> dim:int -> t
val unsqueeze_ : t -> dim:int -> t
val upsample_bicubic2d : t -> output_size:int list -> align_corners:bool -> t
val upsample_bicubic2d_backward : grad_output:t -> output_size:int list -> input_size:int list -> align_corners:bool -> t
val upsample_bicubic2d_backward_out : grad_input:t -> grad_output:t -> output_size:int list -> input_size:int list -> align_corners:bool -> t
val upsample_bicubic2d_out : out:t -> t -> output_size:int list -> align_corners:bool -> t
val upsample_bilinear2d : t -> output_size:int list -> align_corners:bool -> t
val upsample_bilinear2d_backward : grad_output:t -> output_size:int list -> input_size:int list -> align_corners:bool -> t
val upsample_bilinear2d_backward_out : grad_input:t -> grad_output:t -> output_size:int list -> input_size:int list -> align_corners:bool -> t
val upsample_bilinear2d_out : out:t -> t -> output_size:int list -> align_corners:bool -> t
val upsample_linear1d : t -> output_size:int list -> align_corners:bool -> t
val upsample_linear1d_backward : grad_output:t -> output_size:int list -> input_size:int list -> align_corners:bool -> t
val upsample_linear1d_backward_out : grad_input:t -> grad_output:t -> output_size:int list -> input_size:int list -> align_corners:bool -> t
val upsample_linear1d_out : out:t -> t -> output_size:int list -> align_corners:bool -> t
val upsample_nearest1d : t -> output_size:int list -> t
val upsample_nearest1d_backward : grad_output:t -> output_size:int list -> input_size:int list -> t
val upsample_nearest1d_backward_out : grad_input:t -> grad_output:t -> output_size:int list -> input_size:int list -> t
val upsample_nearest1d_out : out:t -> t -> output_size:int list -> t
val upsample_nearest2d : t -> output_size:int list -> t
val upsample_nearest2d_backward : grad_output:t -> output_size:int list -> input_size:int list -> t
val upsample_nearest2d_backward_out : grad_input:t -> grad_output:t -> output_size:int list -> input_size:int list -> t
val upsample_nearest2d_out : out:t -> t -> output_size:int list -> t
val upsample_nearest3d : t -> output_size:int list -> t
val upsample_nearest3d_backward : grad_output:t -> output_size:int list -> input_size:int list -> t
val upsample_nearest3d_backward_out : grad_input:t -> grad_output:t -> output_size:int list -> input_size:int list -> t
val upsample_nearest3d_out : out:t -> t -> output_size:int list -> t
val upsample_trilinear3d : t -> output_size:int list -> align_corners:bool -> t
val upsample_trilinear3d_backward : grad_output:t -> output_size:int list -> input_size:int list -> align_corners:bool -> t
val upsample_trilinear3d_backward_out : grad_input:t -> grad_output:t -> output_size:int list -> input_size:int list -> align_corners:bool -> t
val upsample_trilinear3d_out : out:t -> t -> output_size:int list -> align_corners:bool -> t
val values : t -> t
val var : t -> unbiased:bool -> t
val var1 : t -> dim:int list -> unbiased:bool -> keepdim:bool -> t
val var_out : out:t -> t -> dim:int list -> unbiased:bool -> keepdim:bool -> t
val view : t -> size:int list -> t
val view_as : t -> t -> t
val where : condition:t -> t -> t -> t
val zero_ : t -> t
val zeros_like : t -> t
val zeros_like1 : t -> options:(Torch_core.Kind.t * Torch_core.Device.t) -> t
val zeros_out : out:t -> size:int list -> t
val new_tensor : unit -> t
val int_vec : ?kind:[ `int | `int16 | `int64 | `int8 | `uint8 ] -> int list -> t
val shape : t -> int list
val size : t -> int list
val shape1_exn : t -> int
val shape2_exn : t -> int * int
val shape3_exn : t -> int * int * int
val shape4_exn : t -> int * int * int * int
val kind : t -> Torch_core.Kind.t
val requires_grad : t -> bool
val grad_set_enabled : bool -> bool
val get : t -> int -> t
val select : t -> dim:int -> index:int -> t
val float_value : t -> float
val int_value : t -> int
val float_get : t -> int list -> float
val int_get : t -> int list -> int
val float_set : t -> int list -> float -> unit
val int_set : t -> int list -> int -> unit
val fill_float : t -> float -> unit
val fill_int : t -> int -> unit
val backward : ?keep_graph:bool -> ?create_graph:bool -> t -> unit
val run_backward : ?keep_graph:bool -> ?create_graph:bool -> t list -> t list -> t list
val print : t -> unit
val to_string : t -> line_size:int -> string
val sum : t -> t
val mean : t -> t
val argmax : ?dim:int -> ?keepdim:bool -> t -> t
val defined : t -> bool
val copy_ : t -> src:t -> unit
val max : t -> t -> t
val min : t -> t -> t
val set_float2 : t -> int -> int -> float -> unit

set_float2 t i j v sets the element at index i and j of bidimensional tensor t to v.

val set_float1 : t -> int -> float -> unit

set_float1 t i v sets the element at index i of single dimension tensor t to v.

val set_int2 : t -> int -> int -> int -> unit

set_int2 t i j v sets the element at index i and j of bidimensional tensor t to v.

val set_int1 : t -> int -> int -> unit

set_int1 t i v sets the element at index i of single dimension tensor t to v.

val get_float2 : t -> int -> int -> float

get_float2 t i j returns the current value from bidimensional tensor t at index i and j.

val get_float1 : t -> int -> float

get_float1 t i j returns the current value from single dimension tensor t at index i.

val get_int2 : t -> int -> int -> int

get_int2 t i j returns the current value from bidimensional tensor t at indexex i and j.

val get_int1 : t -> int -> int

get_int1 t i j returns the current value from single dimension tensor t at index i.

val (.%{}) : t -> int list -> int

Gets an integer element from an arbitrary dimension tensor.

val (.%{}<-) : t -> int list -> int -> unit

Sets an integer element on an arbitrary dimension tensor.

val (.%.{}) : t -> int list -> float

Gets a float element from an arbitrary dimension tensor.

val (.%.{}<-) : t -> int list -> float -> unit

Sets a float element on an arbitrary dimension tensor.

val (.%[]) : t -> int -> int

Gets an integer element from a single dimension tensor.

val (.%[]<-) : t -> int -> int -> unit

Sets an integer element on a single dimension tensor.

val (.%.[]) : t -> int -> float

Gets a float element from a single dimension tensor.

val (.%.[]<-) : t -> int -> float -> unit

Sets a float element on a single dimension tensor.

val no_grad_ : t -> f:(t -> 'a) -> 'a

no_grad_ t ~f runs f on t without tracking gradients for t.

val no_grad : (unit -> 'a) -> 'a
val zero_grad : t -> unit
val (+) : t -> t -> t

Pointwise addition.

val (-) : t -> t -> t

Pointwise substraction.

val (*) : t -> t -> t

Pointwise multiplication.

val (/) : t -> t -> t

Pointwise division.

val (+=) : t -> t -> unit

t += u modifies t by adding values from u in a pointwise way.

val (-=) : t -> t -> unit

t -= u modifies t by subtracting values from u in a pointwise way.

val (*=) : t -> t -> unit

t *= u modifies t by multiplying values from u in a pointwise way.

val (/=) : t -> t -> unit

t /= u modifies t by dividing values from u in a pointwise way.

val (~-) : t -> t

~-u returns the opposite of t, i.e. the same as Tensor.(f 0. - t).

val (=) : t -> t -> t

Pointwise equality.

val eq : t -> t -> bool

eq t1 t2 returns true if t1 and t2 have the same kind, shape, and all their elements are identical.

val mm : t -> t -> t

mm t1 t2 returns the dot product or matrix multiplication between t1 and t2.

val f : float -> t

f v returns a scalar tensor with value v.

type create = ?requires_grad:bool -> ?kind:Torch_core.Kind.t -> ?device:Torch_core.Device.t -> ?scale:float -> int list -> t
val zeros : create

Creates a tensor with value 0.

val ones : create

Creates a tensor with value 1.

val rand : create

Creates a tensor with random values sampled uniformly between 0 and 1.

val randn : create

Creates a tensor with random values sampled using a standard normal distribution.

val float_vec : ?kind:[ `double | `float | `half ] -> ?device:Torch_core.Device.t -> float list -> t

Creates a tensor from a list of float values.

val to_type : t -> type_:Torch_core.Kind.t -> t

to_type t ~type_ returns a tensor similar to t but converted to kind type_.

val to_kind : t -> kind:Torch_core.Kind.t -> t

to_kind t ~kind returns a tensor similar to t but converted to kind kind.

val type_ : t -> Torch_core.Kind.t

kind t returns the kind of elements hold in tensor t.

val to_device : ?device:Torch_core.Device.t -> t -> t

to_device t ~device returns a tensor identical to t but placed on device device.

val to_float0 : t -> float option

to_float0 t returns the value hold in a scalar (0-dimension) tensor. If the dimension are incorrect, None is returned.

val to_float1 : t -> float array option

to_float1 t returns the array of values hold in a single dimension tensor. If the dimension are incorrect, None is returned.

val to_float2 : t -> float array array option

to_float2 t returns the array of values hold in a bidimensional tensor. If the dimension are incorrect, None is returned.

val to_float3 : t -> float array array array option

to_float3 t returns the array of values hold in a tridimensional tensor. If the dimension are incorrect, None is returned.

val to_float0_exn : t -> float

to_float0_exn t returns the value hold in a scalar (0-dimension) tensor.

val to_float1_exn : t -> float array

to_float1_exn t returns the array of values hold in a single dimension tensor.

val to_float2_exn : t -> float array array

to_float2_exn t returns the array of values hold in a bidimensional tensor.

val to_float3_exn : t -> float array array array

to_float3_exn t returns the array of values hold in a tridimensional tensor.

val to_int0 : t -> int option

to_int0 t returns the value hold in a scalar (0-dimension) tensor. If the dimension are incorrect, None is returned.

val to_int1 : t -> int array option

to_int1 t returns the array of values hold in a single dimension tensor. If the dimension are incorrect, None is returned.

val to_int2 : t -> int array array option

to_int2 t returns the array of values hold in a bidimensional tensor. If the dimension are incorrect, None is returned.

val to_int3 : t -> int array array array option

to_int3 t returns the array of values hold in a tridimensional tensor. If the dimension are incorrect, None is returned.

val to_int0_exn : t -> int

to_int0_exn t returns the value hold in a scalar (0-dimension) tensor.

val to_int1_exn : t -> int array

to_int1_exn t returns the array of values hold in a single dimension tensor.

val to_int2_exn : t -> int array array

to_int2_exn t returns the array of values hold in a bidimensional tensor.

val to_int3_exn : t -> int array array array

to_int3_exn t returns the array of values hold in a tridimensional tensor.

val of_float0 : ?device:Torch_core.Device.t -> float -> t

of_float0 v creates a scalar (0-dimension) tensor with value v.

val of_float1 : ?device:Torch_core.Device.t -> float array -> t

of_float1 v creates a single dimension tensor with values vs.

val of_float2 : ?device:Torch_core.Device.t -> float array array -> t

of_float2 v creates a two dimension tensor with values vs.

val of_float3 : ?device:Torch_core.Device.t -> float array array array -> t

of_float3 v creates a three dimension tensor with values vs.

val of_int0 : ?device:Torch_core.Device.t -> int -> t

of_int0 v creates a scalar (0-dimension) tensor with value v.

val of_int1 : ?device:Torch_core.Device.t -> int array -> t

of_int1 v creates a single dimension tensor with values vs.

val of_int2 : ?device:Torch_core.Device.t -> int array array -> t

of_int2 v creates a two dimension tensor with values vs.

val of_int3 : ?device:Torch_core.Device.t -> int array array array -> t

of_int3 v creates a three dimension tensor with values vs.

val conv2d : ?padding:(int * int) -> ?dilation:(int * int) -> ?groups:int -> t -> t -> t option -> stride:(int * int) -> t
val conv_transpose2d : ?output_padding:(int * int) -> ?padding:(int * int) -> ?dilation:(int * int) -> ?groups:int -> t -> t -> t option -> stride:(int * int) -> t
val max_pool2d : ?padding:(int * int) -> ?dilation:(int * int) -> ?ceil_mode:bool -> ?stride:(int * int) -> t -> ksize:(int * int) -> t
val avg_pool2d : ?padding:(int * int) -> ?count_include_pad:bool -> ?ceil_mode:bool -> ?stride:(int * int) -> t -> ksize:(int * int) -> t
val const_batch_norm : ?momentum:float -> ?eps:float -> t -> t
val of_bigarray : ?device:Torch_core.Device.t -> ('a, 'b, Stdlib.Bigarray.c_layout) Stdlib.Bigarray.Genarray.t -> t

of_bigarray ba returns a tensor which shape and kind are based on ba and holding the same data.

val copy_to_bigarray : t -> ('b, 'a, Stdlib.Bigarray.c_layout) Stdlib.Bigarray.Genarray.t -> unit

copy_to_bigarray t ba copies the data from t to ba. The dimensions of ba and its kind of element must match the dimension and kind of t.

val to_bigarray : t -> kind:('a, 'b) Stdlib.Bigarray.kind -> ('a, 'b, Stdlib.Bigarray.c_layout) Stdlib.Bigarray.Genarray.t

to_bigarray t ~kind converts t to a bigarray using the c layout. kind has to be compatible with the element kind of t.

val cross_entropy_for_logits : ?reduction:Torch_core.Reduction.t -> t -> targets:t -> t
val dropout : t -> p:float -> is_training:bool -> t

dropout t ~p ~is_training applies dropout to t with probability p. If is_training is false, t is returned. If is_training is true, a tensor similar to t is returned except that each element has a probability p to be replaced by 0.

val nll_loss : ?reduction:Torch_core.Reduction.t -> t -> targets:t -> t
val bce_loss : ?reduction:Torch_core.Reduction.t -> t -> targets:t -> t

bce_loss t ~targets returns the binary cross entropy loss between t and targets. Elements of t are supposed to represent a probability distribution (according to the last dimension of t), so should be between 0 and 1 and sum to 1.

val bce_loss_with_logits : ?reduction:Torch_core.Reduction.t -> t -> targets:t -> t

bce_loss_with_logits t ~targets returns the binary cross entropy loss between t and targets. Elements of t are logits, a softmax is used in this function to convert them to a probability distribution.

mse_loss t1 t2 returns the square of the difference between t1 and t2. reduction can be used to either keep the whole tensor or reduce it by averaging or summing.

val mse_loss : ?reduction:Torch_core.Reduction.t -> t -> t -> t
val huber_loss : ?reduction:Torch_core.Reduction.t -> t -> t -> t
val pp : Stdlib.Format.formatter -> t -> unit

pp is a pretty-printer for tensors to be used in top-levels such as utop or jupyter.

val copy : t -> t

copy t returns a new copy of t with the same size and data which does not share storage with t.

val shape_str : t -> string

shape_str t returns the shape/size of the current tensor as a string. This is useful for pretty printing.

val print_shape : ?name:string -> t -> unit

print_shape ?name t prints the shape/size of t on stdout. If name is provided, this is also printed.

val minimum : t -> t

minimum t returns the minimum element of tensor t.

val maximum : t -> t

maximum t returns the maximum element of tensor t.

val flatten : t -> t

flatten t returns a flattened version of t, i.e. a single dimension version of the tensor. This is equivalent to Tensor.view t ~size:[-1].

val squeeze_last : t -> t

squeeze_last t squeezes the last dimension of t, i.e. if this dimension has a size of 1 it is removed.

val scale : t -> float -> t

scale t f returns the result of multiplying tensor t by f.

val to_list : t -> t list

to_list t returns the list of tensors extracted from the first dimension. This is the inverse of cat ~dim:0.

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