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{-# LANGUAGE CPP #-}
#ifndef BITVEC_THREADSAFE
module Tests.MVector (mvectorTests) where
#else
module Tests.MVectorTS (mvectorTests) where
#endif
import Support
import Control.Exception
import Control.Monad.ST
#ifndef BITVEC_THREADSAFE
import Data.Bit
#else
import Data.Bit.ThreadSafe
#endif
import Data.Bits
import qualified Data.Vector.Generic as V
import qualified Data.Vector.Generic.Mutable as MG
import qualified Data.Vector.Generic.New as N
import qualified Data.Vector.Unboxed as U
import qualified Data.Vector.Unboxed.Mutable as M
import Test.Tasty
import Test.Tasty.QuickCheck
#ifdef MIN_VERSION_quickcheck_classes
import Data.Proxy
import Test.QuickCheck.Classes
#endif
mvectorTests :: TestTree
mvectorTests = testGroup "Data.Vector.Unboxed.Mutable.Bit"
[ testGroup "Data.Vector.Unboxed.Mutable functions"
[ tenTimesLess $
testProperty "slice" prop_slice_def
, testProperty "grow" prop_grow_def
]
, testGroup "Read/write Words"
[ tenTimesLess $
testProperty "castFromWords" prop_castFromWords_def
, testProperty "cloneToWords" prop_cloneToWords_def
, tenTimesLess $
testProperty "castToWords_1" prop_castToWords_1
, tenTimesLess $
testProperty "castToWords_2" prop_castToWords_2
]
#ifdef MIN_VERSION_quickcheck_classes
, lawsToTest' $ muvectorLaws (Proxy :: Proxy Bit)
#endif
, testProperty "basicInitialize 1" case_write_init_read1
, testProperty "basicInitialize 2" case_write_init_read2
, testProperty "basicInitialize 3" case_write_init_read3
, testProperty "basicInitialize 4" case_write_init_read4
, testProperty "basicSet 1" case_write_set_read1
, testProperty "basicSet 2" case_write_set_read2
, testProperty "basicSet 3" case_write_set_read3
, testProperty "basicSet 4" case_write_set_read4
, testProperty "basicSet 5" case_set_read1
, testProperty "basicSet 6" case_set_read2
, testProperty "basicSet 7" case_set_read3
, testProperty "basicSet 8" case_set_read4
, testProperty "basicUnsafeCopy1" case_write_copy_read1
, testProperty "basicUnsafeCopy2" case_write_copy_read2
, testProperty "basicUnsafeCopy3" case_write_copy_read3
, testProperty "basicUnsafeCopy4" case_write_copy_read4
, testProperty "basicUnsafeCopy5" case_write_copy_read5
, tenTimesLess $
testProperty "flipBit" prop_flipBit
, testProperty "new negative" prop_new_neg
, testProperty "replicate negative" prop_replicate_neg
]
prop_flipBit :: U.Vector Bit -> NonNegative Int -> Property
prop_flipBit xs (NonNegative k) = U.length xs > 0 ==> ys === ys'
where
k' = k `mod` U.length xs
ys = U.modify (\v -> M.modify v complement k') xs
ys' = U.modify (\v -> flipBit v k') xs
case_write_init_read1 :: Property
case_write_init_read1 = (=== Bit True) $ runST $ do
arr <- M.new 2
M.write arr 0 (Bit True)
MG.basicInitialize (M.slice 1 1 arr)
M.read arr 0
case_write_init_read2 :: Property
case_write_init_read2 = (=== Bit True) $ runST $ do
arr <- M.new 2
M.write arr 1 (Bit True)
MG.basicInitialize (M.slice 0 1 arr)
M.read arr 1
case_write_init_read3 :: Property
case_write_init_read3 =
(=== (Bit True, Bit True)) $ runST $ do
arr <- M.new 2
M.write arr 0 (Bit True)
M.write arr 1 (Bit True)
MG.basicInitialize (M.slice 1 0 arr)
(,) <$> M.read arr 0 <*> M.read arr 1
case_write_init_read4 :: Property
case_write_init_read4 =
(=== (Bit True, Bit True)) $ runST $ do
arr <- M.new 3
M.write arr 0 (Bit True)
M.write arr 2 (Bit True)
MG.basicInitialize (M.slice 1 1 arr)
(,) <$> M.read arr 0 <*> M.read arr 2
case_write_set_read1 :: Property
case_write_set_read1 = (=== Bit True) $ runST $ do
arr <- M.new 2
M.write arr 0 (Bit True)
MG.basicSet (M.slice 1 1 arr) (Bit False)
M.read arr 0
case_write_set_read2 :: Property
case_write_set_read2 = (=== Bit True) $ runST $ do
arr <- M.new 2
M.write arr 1 (Bit True)
MG.basicSet (M.slice 0 1 arr) (Bit False)
M.read arr 1
case_write_set_read3 :: Property
case_write_set_read3 =
(=== (Bit True, Bit True)) $ runST $ do
arr <- M.new 2
M.write arr 0 (Bit True)
M.write arr 1 (Bit True)
MG.basicSet (M.slice 1 0 arr) (Bit False)
(,) <$> M.read arr 0 <*> M.read arr 1
case_write_set_read4 :: Property
case_write_set_read4 =
(=== (Bit True, Bit True)) $ runST $ do
arr <- M.new 3
M.write arr 0 (Bit True)
M.write arr 2 (Bit True)
MG.basicSet (M.slice 1 1 arr) (Bit False)
(,) <$> M.read arr 0 <*> M.read arr 2
case_set_read1 :: Property
case_set_read1 = (=== Bit True) $ runST $ do
arr <- M.new 1
MG.basicSet arr (Bit True)
M.read arr 0
case_set_read2 :: Property
case_set_read2 = (=== Bit True) $ runST $ do
arr <- M.new 2
MG.basicSet (M.slice 1 1 arr) (Bit True)
M.read arr 1
case_set_read3 :: Property
case_set_read3 = (=== Bit True) $ runST $ do
arr <- M.new 192
MG.basicSet (M.slice 71 121 arr) (Bit True)
M.read arr 145
case_set_read4 :: Property
case_set_read4 = (=== Bit True) $ runST $ do
arr <- M.slice 27 38 <$> M.new 65
MG.basicSet arr (Bit True)
M.read arr 21
case_write_copy_read1 :: Property
case_write_copy_read1 = (=== Bit True) $ runST $ do
src <- M.slice 37 28 <$> M.new 65
M.write src 27 (Bit True)
dst <- M.slice 37 28 <$> M.new 65
M.copy dst src
M.read dst 27
case_write_copy_read2 :: Property
case_write_copy_read2 = (=== Bit True) $ runST $ do
src <- M.slice 32 33 <$> M.new 65
M.write src 0 (Bit True)
dst <- M.slice 32 33 <$> M.new 65
M.copy dst src
M.read dst 0
case_write_copy_read3 :: Property
case_write_copy_read3 = (=== Bit True) $ runST $ do
src <- M.slice 1 1 <$> M.new 2
M.write src 0 (Bit True)
dst <- M.slice 1 1 <$> M.new 2
M.copy dst src
M.read dst 0
case_write_copy_read4 :: Property
case_write_copy_read4 = (=== Bit True) $ runST $ do
src <- M.slice 12 52 <$> M.new 64
M.write src 22 (Bit True)
dst <- M.slice 12 52 <$> M.new 64
M.copy dst src
M.read dst 22
case_write_copy_read5 :: Property
case_write_copy_read5 = (=== Bit True) $ runST $ do
src <- M.slice 48 80 <$> M.new 128
M.write src 46 (Bit True)
dst <- M.slice 48 80 <$> M.new 128
M.copy dst src
M.read dst 46
prop_slice_def
:: NonNegative Int
-> NonNegative Int
-> N.New U.Vector Bit
-> Property
prop_slice_def (NonNegative s) (NonNegative n) xs =
l > 0 ==> runST $ do
let xs' = V.new xs
xs1 <- N.run xs
xs2 <- V.unsafeFreeze (M.slice s' n' xs1)
return (U.toList xs2 === sliceList s' n' (U.toList xs'))
where
l = V.length (V.new xs)
s' = s `mod` l
n' = n `mod` (l - s')
prop_grow_def :: U.Vector Bit -> NonNegative Int -> Bool
prop_grow_def xs (NonNegative m) = runST $ do
let n = U.length xs
v0 <- U.thaw xs
v1 <- M.grow v0 m
fv0 <- U.freeze v0
fv1 <- U.freeze v1
return (fv0 == U.take n fv1)
prop_castFromWords_def :: N.New U.Vector Word -> Property
prop_castFromWords_def ws =
runST (N.run ws >>= pure . castFromWordsM >>= V.unsafeFreeze)
=== castFromWords (V.new ws)
prop_cloneToWords_def :: N.New U.Vector Bit -> Property
prop_cloneToWords_def xs =
runST (N.run xs >>= cloneToWordsM >>= V.unsafeFreeze)
=== cloneToWords (V.new xs)
prop_castToWords_1 :: N.New U.Vector Word -> Property
prop_castToWords_1 xs = runST $ do
vs <- N.run xs
vs' <- cloneToWordsM (castFromWordsM vs)
case castToWordsM (castFromWordsM vs) of
Nothing -> pure $ property False
Just vs'' -> do
ws' <- V.unsafeFreeze vs'
ws'' <- V.unsafeFreeze vs''
pure $ ws' === ws''
prop_castToWords_2 :: N.New U.Vector Bit -> Property
prop_castToWords_2 xs = runST $ do
vs <- N.run xs
case castToWordsM vs of
Nothing -> pure $ property True
Just ws -> do
ws' <- V.unsafeFreeze (castFromWordsM ws)
ws'' <- V.unsafeFreeze vs
pure $ ws' === ws''
prop_replicate_neg :: Positive Int -> Bit -> Property
prop_replicate_neg (Positive n) x = ioProperty $ do
ret <- try (evaluate (runST $ MG.basicUnsafeReplicate (-n) x >>= U.unsafeFreeze))
pure $ property $ case ret of
Left ErrorCallWithLocation{} -> True
_ -> False
prop_new_neg :: Positive Int -> Property
prop_new_neg (Positive n) = ioProperty $ do
ret <- try (evaluate (runST $ MG.basicUnsafeNew (-n) >>= U.unsafeFreeze :: U.Vector Bit))
pure $ property $ case ret of
Left ErrorCallWithLocation{} -> True
_ -> False
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