.. _l-MLPRegressor-m-reg-default--o17: MLPRegressor - m-reg - default - ================================= Fitted on a problem type *m-reg* (see :func:`find_suitable_problem `), method `predict` matches output . :: MLPRegressor(random_state=0) +----------------------+----------+ | index | 0 | +======================+==========+ | skl_nop | 1 | +----------------------+----------+ | onx_size | 3430 | +----------------------+----------+ | onx_nnodes | 7 | +----------------------+----------+ | onx_ninits | 5 | +----------------------+----------+ | onx_doc_string | | +----------------------+----------+ | onx_ir_version | 8 | +----------------------+----------+ | onx_domain | ai.onnx | +----------------------+----------+ | onx_model_version | 0 | +----------------------+----------+ | onx_producer_name | skl2onnx | +----------------------+----------+ | onx_producer_version | 1.13.1 | +----------------------+----------+ | onx_ | 16 | +----------------------+----------+ | onx_op_Cast | 1 | +----------------------+----------+ | onx_op_Reshape | 1 | +----------------------+----------+ | onx_size_optim | 3430 | +----------------------+----------+ | onx_nnodes_optim | 7 | +----------------------+----------+ | onx_ninits_optim | 5 | +----------------------+----------+ | fit_best_loss_.shape | 1 | +----------------------+----------+ | fit_loss_.shape | 1 | +----------------------+----------+ .. gdot:: digraph{ size=7; ranksep=0.25; nodesep=0.05; orientation=portrait; X [shape=box color=red label="X\nfloat((0, 4))" fontsize=10]; variable [shape=box color=green label="variable\nfloat((0, 1))" fontsize=10]; coefficient [shape=box label="coefficient\nfloat32((4, 100))\n[[ 1.36318002e-02 1.17107496e-01 6.43403530e-02 ..." fontsize=10]; intercepts [shape=box label="intercepts\nfloat32((1, 100))\n[[-0.05234436 0.21596435 -0.17895243 0.2517765 ..." fontsize=10]; coefficient1 [shape=box label="coefficient1\nfloat32((100, 2))\n[[-1.00262396e-01 -6.29270002e-02]\n [ 4.27687727e-..." fontsize=10]; intercepts1 [shape=box label="intercepts1\nfloat32((1, 2))\n[[-0.05120024 -0.12248428]]" fontsize=10]; shape_tensor [shape=box label="shape_tensor\nint64((2,))\n[-1 1]" fontsize=10]; cast_input [shape=box label="cast_input" fontsize=10]; Cast [shape=box style="filled,rounded" color=orange label="Cast\n(Cast)\nto=1" fontsize=10]; X -> Cast; Cast -> cast_input; mul_result [shape=box label="mul_result" fontsize=10]; MatMul [shape=box style="filled,rounded" color=orange label="MatMul\n(MatMul)" fontsize=10]; cast_input -> MatMul; coefficient -> MatMul; MatMul -> mul_result; add_result [shape=box label="add_result" fontsize=10]; Add [shape=box style="filled,rounded" color=orange label="Add\n(Add)" fontsize=10]; mul_result -> Add; intercepts -> Add; Add -> add_result; next_activations [shape=box label="next_activations" fontsize=10]; Relu [shape=box style="filled,rounded" color=orange label="Relu\n(Relu)" fontsize=10]; add_result -> Relu; Relu -> next_activations; mul_result1 [shape=box label="mul_result1" fontsize=10]; MatMul1 [shape=box style="filled,rounded" color=orange label="MatMul\n(MatMul1)" fontsize=10]; next_activations -> MatMul1; coefficient1 -> MatMul1; MatMul1 -> mul_result1; add_result1 [shape=box label="add_result1" fontsize=10]; Add1 [shape=box style="filled,rounded" color=orange label="Add\n(Add1)" fontsize=10]; mul_result1 -> Add1; intercepts1 -> Add1; Add1 -> add_result1; Reshape [shape=box style="filled,rounded" color=orange label="Reshape\n(Reshape)" fontsize=10]; add_result1 -> Reshape; shape_tensor -> Reshape; Reshape -> variable; }