mathflow-0.1.0.0: test/MathFlow/PyStringSpec.hs
{-# LANGUAGE ScopedTypeVariables #-}
{-# LANGUAGE TemplateHaskell #-}
{-# LANGUAGE TypeFamilies #-}
{-# LANGUAGE GADTs #-}
{-# LANGUAGE KindSignatures #-}
{-# LANGUAGE TypeOperators #-}
{-# LANGUAGE FlexibleContexts #-}
{-# LANGUAGE RankNTypes #-}
{-# LANGUAGE UndecidableInstances #-}
{-# LANGUAGE FlexibleInstances #-}
{-# LANGUAGE InstanceSigs #-}
{-# LANGUAGE DefaultSignatures #-}
{-# LANGUAGE TypeInType #-}
{-# LANGUAGE OverloadedStrings #-}
{-# LANGUAGE QuasiQuotes #-}
module MathFlow.PyStringSpec where
import GHC.TypeLits
import Data.Proxy
import Data.Singletons
import Data.Singletons.TypeLits
import Data.Singletons.TH
import Data.Promotion.Prelude
import MathFlow
import Test.Hspec
testSingleNet :: Tensor '[100,10] Float PyString
testSingleNet =
let x = "x" <-- (Tensor "x") :: Tensor '[100,784] Float PyString
w = "w" <-- (Tensor "w") :: Tensor '[784,10] Float PyString
b = "b" <-- (Tensor "b") :: Tensor '[10] Float PyString
z = "z" <-- TRep b :: Tensor '[100,10] Float PyString
y' = (x %* w) + z :: Tensor '[100,10] Float PyString
y = "y" <-- TFunc "softmax" y' :: Tensor '[100,10] Float PyString
in y
type IMAGE_SIZE = 32
type IMAGE_SIZE_2 = 16
type IMAGE_SIZE_4 = 8
type BATCH_SIZE = 100
--images :: T' [s,IMAGE_SIZE,IMAGE_SIZE,3]
testConvNet0 :: forall s. (SingI s) => Tensor '[s,IMAGE_SIZE,IMAGE_SIZE,3] Float PyString -> Tensor '[s,IMAGE_SIZE_2,IMAGE_SIZE_2,64] Float PyString
testConvNet0 x1 =
let k1 = TLabel "k1" (Tensor "") :: Tensor '[5,5,3,64] Float PyString
b1 = TLabel "b1" (Tensor "") :: Tensor '[64] Float PyString
y1' = (TConv2d x1 k1) :: Tensor '[s,IMAGE_SIZE,IMAGE_SIZE,64] Float PyString
y1 = TReLu y1' :: Tensor '[s,IMAGE_SIZE,IMAGE_SIZE,64] Float PyString
opt = sing :: Sing '[1,2,2,1]
y2 = TMaxPool opt y1 :: Tensor '[s,IMAGE_SIZE_2,IMAGE_SIZE_2,64] Float PyString
y3 = TLabel "y1" (TNorm y2) :: Tensor '[s,IMAGE_SIZE_2,IMAGE_SIZE_2,64] Float PyString
in y3
testConvNet1 :: forall s. (SingI s) => Tensor '[s,IMAGE_SIZE_2,IMAGE_SIZE_2,64] Float PyString -> Tensor '[s,IMAGE_SIZE_4,IMAGE_SIZE_4,64] Float PyString
testConvNet1 x1 =
let k1 = Tensor "" :: Tensor '[5,5,64,64] Float PyString
b1 = Tensor "" :: Tensor '[64] Float PyString
y1' = (TConv2d x1 k1) :: Tensor '[s,IMAGE_SIZE_2,IMAGE_SIZE_2,64] Float PyString
y1 = TNorm (TReLu y1') :: Tensor '[s,IMAGE_SIZE_2,IMAGE_SIZE_2,64] Float PyString
opt = sing :: Sing '[1,2,2,1]
y2 = TMaxPool opt y1 :: Tensor '[s,IMAGE_SIZE_4,IMAGE_SIZE_4,64] Float PyString
in y2
testConvNet2 :: forall s. (SingI s) => Tensor '[s,IMAGE_SIZE_4,IMAGE_SIZE_4,64] Float PyString -> Tensor '[s,384] Float PyString
testConvNet2 x' =
let x = TReshape x' :: Tensor '[s,IMAGE_SIZE_4*IMAGE_SIZE_4*64] Float PyString
w = Tensor "" :: Tensor '[IMAGE_SIZE_4*IMAGE_SIZE_4*64,384] Float PyString
b = Tensor "" :: Tensor '[384] Float PyString
z = TRep b :: Tensor '[s,384] Float PyString
y' = (x %* w) + z :: Tensor '[s,384] Float PyString
y = TReLu y' :: Tensor '[s,384] Float PyString
in y
testConvNet3 :: forall s. (SingI s) => Tensor '[s,384] Float PyString -> Tensor '[s,192] Float PyString
testConvNet3 x =
let w = Tensor "" :: Tensor '[384,192] Float PyString
b = Tensor "" :: Tensor '[192] Float PyString
z = TRep b :: Tensor '[s,192] Float PyString
y' = (x %* w) + z :: Tensor '[s,192] Float PyString
y = TReLu y' :: Tensor '[s,192] Float PyString
in y
testConvNet4 :: forall s. (SingI s) => Tensor '[s,192] Float PyString -> Tensor '[s,10] Float PyString
testConvNet4 x =
let w = Tensor "" :: Tensor '[192,10] Float PyString
b = Tensor "" :: Tensor '[10] Float PyString
z = TRep b :: Tensor '[s,10] Float PyString
y = (x %* w) + z :: Tensor '[s,10] Float PyString
in y
testImage :: Tensor '[BATCH_SIZE,IMAGE_SIZE,IMAGE_SIZE,3] Float PyString
testImage = Tensor ""
testConvNet :: Tensor '[BATCH_SIZE,IMAGE_SIZE,IMAGE_SIZE,3] Float PyString -> Tensor '[BATCH_SIZE,10] Float PyString
testConvNet = testConvNet4.testConvNet3.testConvNet2.testConvNet1.testConvNet0
spec = do
describe "model to value" $ do
it "single layer net" $ do
fromTensor testSingleNet `shouldBe` PyString {variables = ["y = softmax( tf.add( tf.matmul( x, w ), z ) )","x = x","w = w","z = b","b = b"], expression = "y"}
it "multible layer net" $ do
fromTensor (testConvNet testImage) `shouldBe` PyString {variables = ["y1 = tf.nn.lrn( tf.nn.max_pool( tf.nn.relu( tf.nn.conv2d( k1, , [1,1,1,1], padding='SAME' ) ), ksize=[1,2,2,1], strides=[1,1,1,1], padding='SAME' ) )","k1 = "], expression = "tf.add( tf.matmul( tf.nn.relu( tf.add( tf.matmul( tf.nn.relu( tf.add( tf.matmul( tf.reshape( tf.nn.max_pool( tf.nn.lrn( tf.nn.relu( tf.nn.conv2d( , y1, [1,1,1,1], padding='SAME' ) ) ), ksize=[1,2,2,1], strides=[1,1,1,1], padding='SAME' ), [100,8,8,64] ), ), ) ), ), ) ), ), )"}
describe "model to string" $ do
it "single layer net" $ do
toString testSingleNet `shouldBe` "b = b\nz = b\nw = w\nx = x\ny = softmax( tf.add( tf.matmul( x, w ), z ) )\ny"
it "multible layer net" $ do
toString (testConvNet testImage) `shouldBe` "k1 = \ny1 = tf.nn.lrn( tf.nn.max_pool( tf.nn.relu( tf.nn.conv2d( k1, , [1,1,1,1], padding='SAME' ) ), ksize=[1,2,2,1], strides=[1,1,1,1], padding='SAME' ) )\ntf.add( tf.matmul( tf.nn.relu( tf.add( tf.matmul( tf.nn.relu( tf.add( tf.matmul( tf.reshape( tf.nn.max_pool( tf.nn.lrn( tf.nn.relu( tf.nn.conv2d( , y1, [1,1,1,1], padding='SAME' ) ) ), ksize=[1,2,2,1], strides=[1,1,1,1], padding='SAME' ), [100,8,8,64] ), ), ) ), ), ) ), ), )"
testBuild :: Tensor '[1] Float PyString
testBuild = (Tensor "tf.constant([1])" :: Tensor '[1] Float PyString)
testBuild2 :: Tensor '[1] Float PyString
testBuild2 = $(pyConst [1::Integer])
testBuild3 :: Tensor '[1,1,1] Float PyString
testBuild3 = $(pyConst3 [[[1]]])