defmodule CIFAR do import Network alias Deeppipe, as: DP alias Cumatrix, as: CM @moduledoc """ test with CIFAR10 dataset """ # for CNN test # CIFAR.momentum(400,500) 20epochs mini batch size 400 defnetwork init_network1(_x) do _x # |> analizer(1) |> f(3, 3, 3, 8, {1, 1}, 1, 0.1, 0.0001) # |> analizer(2) |> relu # |> analizer(3) |> f(3, 3, 8, 8, {1, 1}, 1, 0.1, 0.0001) # |> analizer(4) |> pooling(2, 2) # |> analizer(5) |> f(3, 3, 8, 16, {1, 1}, 1, 0.1, 0.0001) # |> analizer(6) |> relu # |> analizer(7) |> f(3, 3, 16, 16, {1, 1}, 1, 0.1, 0.0001) # |> analizer(8) |> relu # |> analizer(9) |> pooling(2, 2) |> full |> w(1024, 10, 0.1, 0.0001) |> b(10, 0.1, 0.0001) |> softmax end # sgd/2 train network and save network temp.ex def sgd(m, n) do image = train_image(10000) onehot = train_label_onehot(10000) test_image = test_image(300) test_label = test_label(300) network = init_network1(0) DP.train(network, image, onehot, test_image, test_label, :cross, :sgd, m, n) end # resgd/2 load network from temp.ex and restart training def resgd(m, n) do image = train_image(10000) onehot = train_label_onehot(10000) test_image = test_image(300) test_label = test_label(300) # test_image = train_image(300) # test_label = train_label(300) DP.retrain("temp.ex", image, onehot, test_image, test_label, :cross, :sgd, m, n) end # momentum/2 train network and save network temp.ex def momentum(m, n) do image = train_image(10000) onehot = train_label_onehot(10000) test_image = test_image(300) test_label = test_label(300) network = init_network1(0) DP.train(network, image, onehot, test_image, test_label, :cross, :momentum, m, n) end # remomentum/2 load network from temp.ex and restart training def remomentum(m, n) do image = train_image(10000) onehot = train_label_onehot(10000) test_image = test_image(300) test_label = test_label(300) # test_image = train_image(300) # test_label = train_label(300) DP.retrain("temp.ex", image, onehot, test_image, test_label, :cross, :momentum, m, n) end # adagrad/2 train network and save network temp.ex def adagrad(m, n) do image = train_image(10000) onehot = train_label_onehot(10000) test_image = test_image(300) test_label = test_label(300) network = init_network1(0) DP.train(network, image, onehot, test_image, test_label, :cross, :adagrad, m, n) end # adagrad/2 load network from temp.ex and restart training def readagrad(m, n) do image = train_image(10000) onehot = train_label_onehot(10000) test_image = test_image(300) test_label = test_label(300) # test_image = train_image(300) # test_label = train_label(300) DP.retrain("temp.ex", image, onehot, test_image, test_label, :cross, :adagrad, m, n) end # transfer from train-label to onehot list def train_label_onehot(n) do Enum.take(test_label(), n) |> Enum.map(fn y -> DP.to_onehot(y, 9) end) end # transfer from test-label to onehot list def test_label_onehot(n) do Enum.take(test_label(), n) |> Enum.map(fn y -> DP.to_onehot(y, 9) end) end def train_label() do {:ok, <>} = File.read("cifar-10-batches-bin/data_batch_1.bin") [label | train_label1(rest)] end # 36*36*3 = 3072 def train_label1(<<>>) do [] end def train_label1(x) do result = train_label2(x, 3072) if result != <<>> do <> = result [label | train_label1(rest)] else [] end end def test_label(n) do test_label() |> Enum.take(n) end def test_label() do {:ok, <>} = File.read("cifar-10-batches-bin/test_batch.bin") [label | train_label1(rest)] end # skip data def train_label2(<>, 0) do rest end def train_label2(<<_, rest::binary>>, n) do train_label2(rest, n - 1) end def train_image(n) do train_image() |> Enum.take(n) end def train_image() do {:ok, bin} = File.read("cifar-10-batches-bin/data_batch_1.bin") train_image1(bin) end def test_image(n) do train_image() |> Enum.take(n) end def test_image() do {:ok, bin} = File.read("cifar-10-batches-bin/test_batch.bin") train_image1(bin) end def train_label(n) do train_label() |> Enum.take(n) end # get RGB 3ch data def train_image1(<<>>) do [] end def train_image1(<<_, rest::binary>>) do {image, other} = train_image2(rest, 3, []) [image | train_image1(other)] end # get one RGB data def train_image2(x, 0, res) do {Enum.reverse(res), x} end def train_image2(x, n, res) do {image, rest} = train_image3(x, 32, []) train_image2(rest, n - 1, [image | res]) end # get one image 2D data def train_image3(x, 0, res) do {Enum.reverse(res), x} end def train_image3(x, n, res) do {image, rest} = train_image4(x, 32, []) train_image3(rest, n - 1, [image | res]) end # get one row vector def train_image4(x, 0, res) do # {Enum.reverse(res) , x} {Enum.reverse(res) |> DP.normalize(-128, 128), x} end def train_image4(<>, n, res) do train_image4(xs, n - 1, [x | res]) end def heatmap(n) do train_rgb(n) |> Matrex.new() |> Matrex.heatmap(:color24bit, []) end def heatmapr(n) do train_r(n) |> Matrex.new() |> Matrex.heatmap(:color24bit, []) end def heatmapg(n) do train_g(n) |> Matrex.new() |> Matrex.heatmap(:color24bit, []) end def heatmapb(n) do train_b(n) |> Matrex.new() |> Matrex.heatmap(:color24bit, []) end def train_rgb(n) do {:ok, bin} = File.read("cifar-10-batches-bin/data_batch_1.bin") train_rgb1(bin) |> CM.nth(n) |> composit() |> CM.reshape([32, 32]) end def train_r(n) do {:ok, bin} = File.read("cifar-10-batches-bin/data_batch_1.bin") train_rgb1(bin) |> CM.nth(n) |> CM.nth(1) |> CM.reshape([32, 32]) end def train_g(n) do {:ok, bin} = File.read("cifar-10-batches-bin/data_batch_1.bin") train_rgb1(bin) |> CM.nth(n) |> CM.nth(2) |> CM.reshape([32, 32]) end def train_b(n) do {:ok, bin} = File.read("cifar-10-batches-bin/data_batch_1.bin") train_rgb1(bin) |> CM.nth(n) |> CM.nth(3) |> CM.reshape([32, 32]) end # get RGB 3ch data def train_rgb1(<<>>) do [] end def train_rgb1(<<_, rest::binary>>) do {image, other} = train_rgb2(rest, 3, []) [image | train_rgb1(other)] end # get one RGB data def train_rgb2(x, 0, res) do {Enum.reverse(res), x} end def train_rgb2(x, n, res) do {image, rest} = train_rgb3(x, 1024, []) train_rgb2(rest, n - 1, [image | res]) end # get one image vector data def train_rgb3(x, 0, res) do {Enum.reverse(res), x} end def train_rgb3(<>, n, res) do train_rgb3(xs, n - 1, [x | res]) end def composit([r, g, b]) do composit1(r, g, b) end def composit1([], [], []) do [] end def composit1([r | rs], [g | gs], [b | bs]) do [r * 256 * 256 + g * 256 + b | composit1(rs, gs, bs)] end end