module Main where
import qualified Data.ByteString as ByteString
import Data.Char (intToDigit)
import Data.Int
import Data.Proxy
import Data.String
import qualified Data.Text as Text
import qualified Data.Text.Encoding as Text
import Data.Word
import Numeric
import Numeric.Natural (Natural)
import Test.QuickCheck.Classes
import Test.QuickCheck.Instances ()
import Test.Tasty
import Test.Tasty.QuickCheck
import TextBuilder
import Util.ExtraInstances ()
import Util.TestTrees
import Prelude
main :: IO ()
main = (defaultMain . testGroup "All") tests
tests :: [TestTree]
tests =
[ testGroup "Instances" $
[ followsLaws $ showLaws (Proxy @TextBuilder),
followsLaws $ eqLaws (Proxy @TextBuilder),
followsLaws $ semigroupLaws (Proxy @TextBuilder),
followsLaws $ monoidLaws (Proxy @TextBuilder)
],
testGroup "Functions" $
[ testGroup "decimal" $
[ testGroup "Int" $
[ mapsToMonoid @Int decimal
],
testGroup "Integer" $
[ mapsToMonoid @Integer decimal,
testProperty "Encodes the same as show" $ \(x :: Integer) ->
(fromString . show) x === (toText (decimal x))
]
],
testGroup "fixedLengthDecimal" $
[ testGroup "Word" $
[ mapsToMonoid @Word (fixedLengthDecimal 42)
],
testGroup "Natural" $
[ mapsToMonoid @Natural (fixedLengthDecimal 42),
testProperty "Encodes the same as printf" $ \(size :: Word8, val :: Natural) ->
let rendered = show val
renderedLength = length rendered
intSize = fromIntegral size
padded =
if renderedLength > intSize
then drop (renderedLength - intSize) rendered
else replicate (intSize - renderedLength) '0' <> rendered
in fromString padded
=== toText (fixedLengthDecimal (fromIntegral size) val)
]
],
testGroup "thousandSeparatedDecimal" $
[ testGroup "Int" $
[ mapsToMonoid @Int (thousandSeparatedDecimal ',')
],
testGroup "Integer" $
[ mapsToMonoid @Integer (thousandSeparatedDecimal ',')
]
],
testGroup "binary" $
[ testGroup "Int" $
[ mapsToMonoid @Int binary,
testProperty "Encodes the same as showIntAtBase" $ \(x :: Word32) ->
(Text.justifyRight 32 '0' . Text.pack . showIntAtBase 2 intToDigit x) "" === toText (binary x)
]
],
testGroup "octal" $
[ testGroup "Int" $
[ mapsToMonoid @Int octal,
testProperty "Encodes the same as showIntAtBase" $ \(x :: Word32) ->
(Text.justifyRight 11 '0' . Text.pack . showIntAtBase 8 intToDigit x) "" === toText (octal x)
]
],
testGroup "hexadecimal" $
[ testGroup "Int" $
[ mapsToMonoid @Int hexadecimal,
testProperty "Encodes the same as showHex" $ \(x :: Word32) ->
(Text.justifyRight 8 '0' . Text.pack . showHex x) "" === toText (hexadecimal x)
]
],
testGroup "unsafeUtf8ByteString" $
[ mapsToMonoid (unsafeUtf8ByteString . Text.encodeUtf8),
testProperty "Works on ASCII" $
let gen = listOf do
list <- listOf (choose (0, 127))
return (ByteString.pack list)
in forAll gen \chunks ->
mconcat chunks
=== Text.encodeUtf8 (toText (foldMap unsafeUtf8ByteString chunks))
],
testGroup "intercalate" $
[ customGenMonoid do
sep <- arbitrary
texts <- listOf arbitrary
return (intercalate (text sep) (fmap text texts)),
testProperty "Has the same effect as in Text" $
\separator texts ->
Text.intercalate separator texts
=== toText (intercalate (text separator) (fmap text texts))
],
testGroup "intercalateMap" $
[ customGenMonoid do
sep <- arbitrary
texts <- listOf arbitrary
return (intercalateMap (text sep) text texts),
testProperty "intercalateMap sep mapper == intercalate sep . fmap mapper" $
\separator ints ->
Text.intercalate separator (fmap (fromString . show @Int) ints)
=== toText (intercalateMap (text separator) decimal ints)
]
]
]