menoh-0.2.0: test/test.hs
{-# OPTIONS_GHC -Wall #-}
{-# LANGUAGE ScopedTypeVariables #-}
{-# LANGUAGE TemplateHaskell #-}
import qualified Codec.Picture as Picture
import Control.Concurrent.Async
import Control.Exception
import Control.Monad
import qualified Data.Vector as V
import qualified Data.Vector.Generic as VG
import qualified Data.Vector.Storable as VS
import qualified Data.Vector.Unboxed as VU
import Foreign
import System.FilePath
import Test.Tasty.HUnit
import Test.Tasty.TH
import Menoh
import Paths_menoh (getDataDir)
------------------------------------------------------------------------
case_basicWriteBuffer_vector :: Assertion
case_basicWriteBuffer_vector = do
allocaArray 9 $ \(p :: Ptr Float) -> do
basicWriteBuffer DTypeFloat [3,3] (castPtr p) (VG.tail (V.fromList xs))
ys <- peekArray 9 p
ys @?= (tail xs)
where
xs = [0..9]
case_basicWriteBuffer_vector_storable :: Assertion
case_basicWriteBuffer_vector_storable = do
allocaArray 9 $ \(p :: Ptr Float) -> do
basicWriteBuffer DTypeFloat [3,3] (castPtr p) (VG.tail (VS.fromList xs))
ys <- peekArray 9 p
ys @?= tail xs
where
xs = [0..9]
case_basicWriteBuffer_vector_unboxed :: Assertion
case_basicWriteBuffer_vector_unboxed = do
allocaArray 9 $ \(p :: Ptr Float) -> do
basicWriteBuffer DTypeFloat [3,3] (castPtr p) (VG.tail (VU.fromList xs))
ys <- peekArray 9 p
ys @?= tail xs
where
xs = [0..9]
case_basicWriteBuffer_list :: Assertion
case_basicWriteBuffer_list = do
allocaArray 9 $ \(p :: Ptr Float) -> do
basicWriteBuffer DTypeFloat [3,3] (castPtr p) (map V.fromList xss)
ys <- peekArray 9 p
ys @?= concat xss
where
xss = [[1,2,3], [4,5,6], [7,8,9]]
------------------------------------------------------------------------
case_loading_nonexistent_model_file :: Assertion
case_loading_nonexistent_model_file = do
dataDir <- getDataDir
ret <- try $ makeModelDataFromONNX $ dataDir </> "data" </> "nonexistent_model.onnx"
case ret of
Left (ErrorInvalidFilename _msg) -> return ()
_ -> assertFailure "should throw ErrorInvalidFilename"
case_empty_output :: Assertion
case_empty_output = do
images <- loadMNISTImages
let batch_size = length images
dataDir <- getDataDir
model_data <- makeModelDataFromONNX $ dataDir </> "data" </> "mnist.onnx"
vpt <- makeVariableProfileTable
[(mnist_in_name, DTypeFloat, [batch_size, mnist_channel_num, mnist_height, mnist_width])]
[]
model_data
optimizeModelData model_data vpt
model <- makeModel vpt model_data "mkldnn"
-- Run the model
writeBuffer model mnist_in_name images
run model
-- but we cannot retrieve results
return ()
case_insufficient_input :: Assertion
case_insufficient_input = do
dataDir <- getDataDir
model_data <- makeModelDataFromONNX $ dataDir </> "data" </> "mnist.onnx"
ret <- try $ makeVariableProfileTable
[]
[(mnist_out_name, DTypeFloat)]
model_data
case ret of
Left (ErrorVariableNotFound _msg) -> return ()
_ -> assertFailure "should throw ErrorVariableNotFound"
case_bad_input :: Assertion
case_bad_input = do
images <- loadMNISTImages
dataDir <- getDataDir
model_data <- makeModelDataFromONNX $ dataDir </> "data" </> "mnist.onnx"
vpt <- makeVariableProfileTable
[ (mnist_in_name, DTypeFloat, [length images, mnist_channel_num, mnist_height, mnist_width])
, ("bad input name", DTypeFloat, [1,8])
]
[(mnist_out_name, DTypeFloat)]
model_data
optimizeModelData model_data vpt
model <- makeModel vpt model_data "mkldnn"
-- Run the model
writeBuffer model mnist_in_name images
run model
(vs :: [V.Vector Float]) <- readBuffer model mnist_out_name
forM_ (zip [0..9] vs) $ \(i, scores) -> do
V.maxIndex scores @?= i
case_bad_output :: Assertion
case_bad_output = do
images <- loadMNISTImages
dataDir <- getDataDir
model_data <- makeModelDataFromONNX $ dataDir </> "data" </> "mnist.onnx"
ret <- try $ makeVariableProfileTable
[(mnist_in_name, DTypeFloat, [length images, mnist_channel_num, mnist_height, mnist_width])]
[(mnist_out_name, DTypeFloat), ("bad output name", DTypeFloat)]
model_data
case ret of
Left (ErrorVariableNotFound _msg) -> return ()
_ -> assertFailure "should throw ErrorVariableNotFound"
------------------------------------------------------------------------
-- Aliases to onnx's node input and output tensor name
mnist_in_name, mnist_out_name :: String
mnist_in_name = "139900320569040"
mnist_out_name = "139898462888656"
mnist_channel_num, mnist_height, mnist_width :: Int
mnist_channel_num = 1
mnist_height = 28
mnist_width = 28
loadMNISTImages :: IO [VS.Vector Float]
loadMNISTImages = do
dataDir <- getDataDir
forM [(0::Int)..9] $ \i -> do
ret <- Picture.readImage $ dataDir </> "data" </> (show i ++ ".png")
case ret of
Left e -> error e
Right img -> return $ convert mnist_width mnist_height img
loadMNISTModel :: Int -> IO Model
loadMNISTModel batch_size = do
dataDir <- getDataDir
model_data <- makeModelDataFromONNX $ dataDir </> "data" </> "mnist.onnx"
vpt <- makeVariableProfileTable
[(mnist_in_name, DTypeFloat, [batch_size, mnist_channel_num, mnist_height, mnist_width])]
[(mnist_out_name, DTypeFloat)]
model_data
optimizeModelData model_data vpt
makeModel vpt model_data "mkldnn"
case_MNIST :: Assertion
case_MNIST = do
images <- loadMNISTImages
model <- loadMNISTModel (length images)
-- Run the model
writeBuffer model mnist_in_name images
run model
(vs :: [V.Vector Float]) <- readBuffer model mnist_out_name
forM_ (zip [0..9] vs) $ \(i, scores) -> do
V.maxIndex scores @?= i
-- Run the same model more than once, but with the different order
writeBuffer model mnist_in_name (reverse images)
run model
(vs' :: [V.Vector Float]) <- readBuffer model mnist_out_name
forM_ (zip [9,8..0] vs') $ \(i, scores) -> do
V.maxIndex scores @?= i
case_MNIST_concurrently :: Assertion
case_MNIST_concurrently = do
images <- loadMNISTImages
let batch_size = length images
dataDir <- getDataDir
model_data <- makeModelDataFromONNX $ dataDir </> "data" </> "mnist.onnx"
vpt <- makeVariableProfileTable
[(mnist_in_name, DTypeFloat, [batch_size, mnist_channel_num, mnist_height, mnist_width])]
[(mnist_out_name, DTypeFloat)]
model_data
optimizeModelData model_data vpt
models <- replicateM 10 $ makeModel vpt model_data "mkldnn"
_ <- flip mapConcurrently models $ \model -> do
replicateM_ 10 $ do
writeBuffer model mnist_in_name images
run model
(vs :: [V.Vector Float]) <- readBuffer model mnist_out_name
forM_ (zip [0..9] vs) $ \(i, scores) -> do
V.maxIndex scores @?= i
return ()
-- -------------------------------------------------------------------------
convert :: Int -> Int -> Picture.DynamicImage -> VS.Vector Float
convert w h = reorderToNCHW . resize (w,h) . crop . Picture.convertRGB8
crop :: Picture.Pixel a => Picture.Image a -> Picture.Image a
crop img = Picture.generateImage (\x y -> Picture.pixelAt img (base_x + x) (base_y + y)) shortEdge shortEdge
where
shortEdge = min (Picture.imageWidth img) (Picture.imageHeight img)
base_x = (Picture.imageWidth img - shortEdge) `div` 2
base_y = (Picture.imageHeight img - shortEdge) `div` 2
-- TODO: Should we do some kind of interpolation?
resize :: Picture.Pixel a => (Int,Int) -> Picture.Image a -> Picture.Image a
resize (w,h) img = Picture.generateImage (\x y -> Picture.pixelAt img (x * orig_w `div` w) (y * orig_h `div` h)) w h
where
orig_w = Picture.imageWidth img
orig_h = Picture.imageHeight img
reorderToNCHW :: Picture.Image Picture.PixelRGB8 -> VS.Vector Float
reorderToNCHW img = VS.generate (Picture.imageHeight img * Picture.imageWidth img) f
where
f i =
case Picture.pixelAt img x y of
Picture.PixelRGB8 r g b ->
(fromIntegral r + fromIntegral g + fromIntegral b) / 3
where
(y,x) = i `divMod` Picture.imageWidth img
------------------------------------------------------------------------
-- Test harness
main :: IO ()
main = $(defaultMainGenerator)