Start adding tests for TypeDD book

Also detailing any changes needed to the code. Added primitives for
Doubles, and repl/replWith to get Chapter 2 code to work.
This commit is contained in:
Edwin Brady 2019-06-30 15:50:58 +01:00
parent eddb23d108
commit f37da6c5b7
35 changed files with 541 additions and 22 deletions

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@ -7,6 +7,7 @@ beyond work on the language core, are (in no particular order):
* CI integration. * CI integration.
* Documentation string support (at the REPL and IDE mode). * Documentation string support (at the REPL and IDE mode).
* A better REPL, including: * A better REPL, including:
- `it` and `:let`
- readline and tab completion - readline and tab completion
- :search and :apropos - :search and :apropos
- help commands - help commands

92
TypeDD.md Normal file
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@ -0,0 +1,92 @@
Type Driven Development with Idris
==================================
The code in the book "Type Driven Development with Idris" by Edwin Brady,
published by Manning, will mostly work in Idris 2, with some small changes
as detailed in this document. The updated code is also [going to be] part
of the test suite (see tests/typedd).
Chaoter 1
---------
No changes necessary
Chaoter 2
---------
The Prelude is smaller than Idris 1, and many functions have been moved to
the base libraries instead. So:
In `Average.idr`, add:
import Data.Strings -- for `words`
import Data.List -- for `length` on lists
In `AveMain.idr` and `Reverse.idr` add:
import System.REPL -- for 'repl'
Chaoter 3
---------
TODO
Chaoter 4
---------
TODO
Chaoter 5
---------
TODO
Chaoter 6
---------
TODO
Chaoter 7
---------
TODO
Chaoter 8
---------
TODO
Chaoter 9
---------
TODO
Chaoter 10
----------
TODO
Chaoter 11
----------
TODO
Chaoter 12
----------
TODO
Chaoter 13
----------
TODO
Chaoter 14
----------
TODO
Chaoter 15
----------
TODO

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@ -16,6 +16,10 @@ data FilePtr : Type where
%extern prim__writeLine : FilePtr -> String -> (1 x : %World) -> IORes (Either Int ()) %extern prim__writeLine : FilePtr -> String -> (1 x : %World) -> IORes (Either Int ())
%extern prim__eof : FilePtr -> (1 x : %World) -> IORes Int %extern prim__eof : FilePtr -> (1 x : %World) -> IORes Int
%extern prim__stdin : FilePtr
%extern prim__stdout : FilePtr
%extern prim__stderr : FilePtr
modeStr : Mode -> String modeStr : Mode -> String
modeStr Read = "r" modeStr Read = "r"
modeStr WriteTruncate = "w" modeStr WriteTruncate = "w"
@ -62,6 +66,18 @@ public export
BinaryFile : Type BinaryFile : Type
BinaryFile = FileT True BinaryFile = FileT True
export
stdin : File
stdin = FHandle prim__stdin
export
stdout : File
stdout = FHandle prim__stdout
export
stderr : File
stderr = FHandle prim__stderr
export export
openFile : String -> Mode -> IO (Either FileError File) openFile : String -> Mode -> IO (Either FileError File)
openFile f m openFile f m

35
libs/base/System/REPL.idr Normal file
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@ -0,0 +1,35 @@
module System.REPL
import System.File
||| A basic read-eval-print loop, maintaining a state
||| @ state the input state
||| @ prompt the prompt to show
||| @ onInput the function to run on reading input, returning a String to
||| output and a new state. Returns Nothing if the repl should exit
export
replWith : (state : a) -> (prompt : String) ->
(onInput : a -> String -> Maybe (String, a)) -> IO ()
replWith acc prompt fn
= do putStr prompt
eof <- fEOF stdin
if eof
then pure ()
else do x <- getLine
case fn acc x of
Just (out, acc') =>
do putStr out
replWith acc' prompt fn
Nothing => pure ()
||| A basic read-eval-print loop
||| @ prompt the prompt to show
||| @ onInput the function to run on reading input, returning a String to
||| output
export
repl : (prompt : String) ->
(onInput : String -> String) -> IO ()
repl prompt fn
= replWith () prompt (\x, s => Just (fn s, ()))

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@ -10,5 +10,6 @@ modules = Control.WellFounded,
System, System,
System.Concurrency.Raw, System.Concurrency.Raw,
System.File System.File,
System.REPL

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@ -1082,6 +1082,78 @@ export
printLn : Show a => a -> IO () printLn : Show a => a -> IO ()
printLn x = putStrLn $ show x printLn x = putStrLn $ show x
-----------------------
-- DOUBLE PRIMITIVES --
-----------------------
public export
pi : Double
pi = 3.14159265358979323846
public export
euler : Double
euler = 2.7182818284590452354
public export
exp : Double -> Double
exp x = prim__doubleExp x
public export
log : Double -> Double
log x = prim__doubleLog x
public export
pow : Double -> Double -> Double
pow x y = exp (y * log x)
public export
sin : Double -> Double
sin x = prim__doubleSin x
public export
cos : Double -> Double
cos x = prim__doubleCos x
public export
tan : Double -> Double
tan x = prim__doubleTan x
public export
asin : Double -> Double
asin x = prim__doubleASin x
public export
acos : Double -> Double
acos x = prim__doubleACos x
public export
atan : Double -> Double
atan x = prim__doubleATan x
public export
sinh : Double -> Double
sinh x = (exp x - exp (-x)) / 2
public export
cosh : Double -> Double
cosh x = (exp x + exp (-x)) / 2
public export
tanh : Double -> Double
tanh x = sinh x / cosh x
public export
sqrt : Double -> Double
sqrt x = prim__doubleSqrt x
public export
floor : Double -> Double
floor x = prim__doubleFloor x
public export
ceiling : Double -> Double
ceiling x = prim__doubleCeiling x
----------- -----------
-- CASTS -- -- CASTS --
----------- -----------
@ -1128,6 +1200,10 @@ export
Cast String Integer where Cast String Integer where
cast = prim__cast_StringInteger cast = prim__cast_StringInteger
export
Cast Nat Integer where
cast = natToInteger
-- To Int -- To Int
export export
@ -1146,6 +1222,10 @@ export
Cast String Int where Cast String Int where
cast = prim__cast_StringInt cast = prim__cast_StringInt
export
Cast Nat Int where
cast = fromInteger . natToInteger
-- To Char -- To Char
export export
@ -1165,3 +1245,8 @@ Cast Integer Double where
export export
Cast String Double where Cast String Double where
cast = prim__cast_StringDouble cast = prim__cast_StringDouble
export
Cast Nat Double where
cast = prim__cast_IntegerDouble . natToInteger

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@ -103,6 +103,18 @@ schOp StrAppend [x, y] = op "string-append" [x, y]
schOp StrReverse [x] = op "string-reverse" [x] schOp StrReverse [x] = op "string-reverse" [x]
schOp StrSubstr [x, y, z] = op "string-substr" [x, y, z] schOp StrSubstr [x, y, z] = op "string-substr" [x, y, z]
schOp DoubleExp [x] = op "exp" [x]
schOp DoubleLog [x] = op "log" [x]
schOp DoubleSin [x] = op "sin" [x]
schOp DoubleCos [x] = op "cos" [x]
schOp DoubleTan [x] = op "tan" [x]
schOp DoubleASin [x] = op "asin" [x]
schOp DoubleACos [x] = op "asin" [x]
schOp DoubleATan [x] = op "atan" [x]
schOp DoubleSqrt [x] = op "sqrt" [x]
schOp DoubleFloor [x] = op "floor" [x]
schOp DoubleCeiling [x] = op "ceiling" [x]
schOp (Cast IntType StringType) [x] = op "number->string" [x] schOp (Cast IntType StringType) [x] = op "number->string" [x]
schOp (Cast IntegerType StringType) [x] = op "number->string" [x] schOp (Cast IntegerType StringType) [x] = op "number->string" [x]
schOp (Cast DoubleType StringType) [x] = op "number->string" [x] schOp (Cast DoubleType StringType) [x] = op "number->string" [x]
@ -133,6 +145,7 @@ public export
data ExtPrim = CCall | SchemeCall | PutStr | GetStr data ExtPrim = CCall | SchemeCall | PutStr | GetStr
| FileOpen | FileClose | FileReadLine | FileWriteLine | FileEOF | FileOpen | FileClose | FileReadLine | FileWriteLine | FileEOF
| NewIORef | ReadIORef | WriteIORef | NewIORef | ReadIORef | WriteIORef
| Stdin | Stdout | Stderr
| Unknown Name | Unknown Name
export export
@ -149,6 +162,9 @@ Show ExtPrim where
show NewIORef = "NewIORef" show NewIORef = "NewIORef"
show ReadIORef = "ReadIORef" show ReadIORef = "ReadIORef"
show WriteIORef = "WriteIORef" show WriteIORef = "WriteIORef"
show Stdin = "Stdin"
show Stdout = "Stdout"
show Stderr = "Stderr"
show (Unknown n) = "Unknown " ++ show n show (Unknown n) = "Unknown " ++ show n
||| Match on a user given name to get the scheme primitive ||| Match on a user given name to get the scheme primitive
@ -165,7 +181,10 @@ toPrim pn@(NS _ n)
(n == UN "prim__eof", FileEOF), (n == UN "prim__eof", FileEOF),
(n == UN "prim__newIORef", NewIORef), (n == UN "prim__newIORef", NewIORef),
(n == UN "prim__readIORef", ReadIORef), (n == UN "prim__readIORef", ReadIORef),
(n == UN "prim__writeIORef", WriteIORef) (n == UN "prim__writeIORef", WriteIORef),
(n == UN "prim__stdin", Stdin),
(n == UN "prim__stdout", Stdout),
(n == UN "prim__stderr", Stderr)
] ]
(Unknown pn) (Unknown pn)
toPrim pn = Unknown pn toPrim pn = Unknown pn
@ -305,6 +324,9 @@ parameters (schExtPrim : {vars : _} -> Int -> SVars vars -> ExtPrim -> List (CEx
++ !(schExp i vs val) ++ ")" ++ !(schExp i vs val) ++ ")"
schExtCommon i vs (Unknown n) args schExtCommon i vs (Unknown n) args
= throw (InternalError ("Can't compile unknown external primitive " ++ show n)) = throw (InternalError ("Can't compile unknown external primitive " ++ show n))
schExtCommon i vs Stdin [] = pure "(current-input-port)"
schExtCommon i vs Stdout [] = pure "(current-output-port)"
schExtCommon i vs Stderr [] = pure "(current-error-port)"
schExtCommon i vs prim args schExtCommon i vs prim args
= throw (InternalError ("Badly formed external primitive " ++ show prim = throw (InternalError ("Badly formed external primitive " ++ show prim
++ " " ++ show args)) ++ " " ++ show args))

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@ -187,6 +187,43 @@ gt (Ch x) (Ch y) = pure $ toInt (x > y)
gt (Db x) (Db y) = pure $ toInt (x > y) gt (Db x) (Db y) = pure $ toInt (x > y)
gt _ _ = Nothing gt _ _ = Nothing
doubleOp : (Double -> Double) -> Vect 1 (NF vars) -> Maybe (NF vars)
doubleOp f [NPrimVal fc (Db x)] = Just (NPrimVal fc (Db (f x)))
doubleOp f _ = Nothing
doubleExp : Vect 1 (NF vars) -> Maybe (NF vars)
doubleExp = doubleOp exp
doubleLog : Vect 1 (NF vars) -> Maybe (NF vars)
doubleLog = doubleOp log
doubleSin : Vect 1 (NF vars) -> Maybe (NF vars)
doubleSin = doubleOp sin
doubleCos : Vect 1 (NF vars) -> Maybe (NF vars)
doubleCos = doubleOp cos
doubleTan : Vect 1 (NF vars) -> Maybe (NF vars)
doubleTan = doubleOp tan
doubleASin : Vect 1 (NF vars) -> Maybe (NF vars)
doubleASin = doubleOp asin
doubleACos : Vect 1 (NF vars) -> Maybe (NF vars)
doubleACos = doubleOp acos
doubleATan : Vect 1 (NF vars) -> Maybe (NF vars)
doubleATan = doubleOp atan
doubleSqrt : Vect 1 (NF vars) -> Maybe (NF vars)
doubleSqrt = doubleOp sqrt
doubleFloor : Vect 1 (NF vars) -> Maybe (NF vars)
doubleFloor = doubleOp floor
doubleCeiling : Vect 1 (NF vars) -> Maybe (NF vars)
doubleCeiling = doubleOp ceiling
-- Only reduce for concrete values -- Only reduce for concrete values
believeMe : Vect 3 (NF vars) -> Maybe (NF vars) believeMe : Vect 3 (NF vars) -> Maybe (NF vars)
believeMe [_, _, val@(NDCon _ _ _ _ _)] = Just val believeMe [_, _, val@(NDCon _ _ _ _ _)] = Just val
@ -215,6 +252,9 @@ arithTy t = constTy t t t
cmpTy : Constant -> ClosedTerm cmpTy : Constant -> ClosedTerm
cmpTy t = constTy t t IntType cmpTy t = constTy t t IntType
doubleTy : ClosedTerm
doubleTy = predTy DoubleType DoubleType
believeMeTy : ClosedTerm believeMeTy : ClosedTerm
believeMeTy believeMeTy
= Bind emptyFC (UN "a") (Pi Rig0 Explicit (TType emptyFC)) $ = Bind emptyFC (UN "a") (Pi Rig0 Explicit (TType emptyFC)) $
@ -255,6 +295,18 @@ getOp StrAppend = strAppend
getOp StrReverse = strReverse getOp StrReverse = strReverse
getOp StrSubstr = strSubstr getOp StrSubstr = strSubstr
getOp DoubleExp = doubleExp
getOp DoubleLog = doubleLog
getOp DoubleSin = doubleSin
getOp DoubleCos = doubleCos
getOp DoubleTan = doubleTan
getOp DoubleASin = doubleASin
getOp DoubleACos = doubleACos
getOp DoubleATan = doubleATan
getOp DoubleSqrt = doubleSqrt
getOp DoubleFloor = doubleFloor
getOp DoubleCeiling = doubleCeiling
getOp (Cast _ y) = castTo y getOp (Cast _ y) = castTo y
getOp BelieveMe = believeMe getOp BelieveMe = believeMe
@ -284,6 +336,17 @@ opName StrCons = prim "strCons"
opName StrAppend = prim "strAppend" opName StrAppend = prim "strAppend"
opName StrReverse = prim "strReverse" opName StrReverse = prim "strReverse"
opName StrSubstr = prim "strSubstr" opName StrSubstr = prim "strSubstr"
opName DoubleExp = prim "doubleExp"
opName DoubleLog = prim "doubleLog"
opName DoubleSin = prim "doubleSin"
opName DoubleCos = prim "doubleCos"
opName DoubleTan = prim "doubleTan"
opName DoubleASin = prim "doubleASin"
opName DoubleACos = prim "doubleACos"
opName DoubleATan = prim "doubleATan"
opName DoubleSqrt = prim "doubleSqrt"
opName DoubleFloor = prim "doubleFloor"
opName DoubleCeiling = prim "doubleCeiling"
opName (Cast x y) = prim $ "cast_" ++ show x ++ show y opName (Cast x y) = prim $ "cast_" ++ show x ++ show y
opName BelieveMe = prim $ "believe_me" opName BelieveMe = prim $ "believe_me"
@ -313,6 +376,18 @@ allPrimitives =
MkPrim StrSubstr (constTy3 IntType IntType StringType StringType) isTotal, MkPrim StrSubstr (constTy3 IntType IntType StringType StringType) isTotal,
MkPrim BelieveMe believeMeTy isTotal] ++ MkPrim BelieveMe believeMeTy isTotal] ++
[MkPrim DoubleExp doubleTy isTotal,
MkPrim DoubleLog doubleTy isTotal,
MkPrim DoubleSin doubleTy isTotal,
MkPrim DoubleCos doubleTy isTotal,
MkPrim DoubleTan doubleTy isTotal,
MkPrim DoubleASin doubleTy isTotal,
MkPrim DoubleACos doubleTy isTotal,
MkPrim DoubleATan doubleTy isTotal,
MkPrim DoubleSqrt doubleTy isTotal,
MkPrim DoubleFloor doubleTy isTotal,
MkPrim DoubleCeiling doubleTy isTotal] ++
map (\t => MkPrim (Cast t StringType) (predTy t StringType) isTotal) [IntType, IntegerType, CharType, DoubleType] ++ map (\t => MkPrim (Cast t StringType) (predTy t StringType) isTotal) [IntType, IntegerType, CharType, DoubleType] ++
map (\t => MkPrim (Cast t IntegerType) (predTy t IntegerType) isTotal) [StringType, IntType, CharType, DoubleType] ++ map (\t => MkPrim (Cast t IntegerType) (predTy t IntegerType) isTotal) [StringType, IntType, CharType, DoubleType] ++
map (\t => MkPrim (Cast t IntType) (predTy t IntType) isTotal) [StringType, IntegerType, CharType, DoubleType] ++ map (\t => MkPrim (Cast t IntType) (predTy t IntType) isTotal) [StringType, IntegerType, CharType, DoubleType] ++

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@ -126,6 +126,18 @@ data PrimFn : Nat -> Type where
StrReverse : PrimFn 1 StrReverse : PrimFn 1
StrSubstr : PrimFn 3 StrSubstr : PrimFn 3
DoubleExp : PrimFn 1
DoubleLog : PrimFn 1
DoubleSin : PrimFn 1
DoubleCos : PrimFn 1
DoubleTan : PrimFn 1
DoubleASin : PrimFn 1
DoubleACos : PrimFn 1
DoubleATan : PrimFn 1
DoubleSqrt : PrimFn 1
DoubleFloor : PrimFn 1
DoubleCeiling : PrimFn 1
Cast : Constant -> Constant -> PrimFn 1 Cast : Constant -> Constant -> PrimFn 1
BelieveMe : PrimFn 3 BelieveMe : PrimFn 3
@ -150,6 +162,17 @@ Show (PrimFn arity) where
show StrAppend = "++" show StrAppend = "++"
show StrReverse = "op_strrev" show StrReverse = "op_strrev"
show StrSubstr = "op_strsubstr" show StrSubstr = "op_strsubstr"
show DoubleExp = "op_doubleExp"
show DoubleLog = "op_doubleLog"
show DoubleSin = "op_doubleSin"
show DoubleCos = "op_doubleCos"
show DoubleTan = "op_doubleTan"
show DoubleASin = "op_doubleASin"
show DoubleACos = "op_doubleACos"
show DoubleATan = "op_doubleATan"
show DoubleSqrt = "op_doubleSqrt"
show DoubleFloor = "op_doubleFloor"
show DoubleCeiling = "op_doubleCeiling"
show (Cast x y) = "cast-" ++ show x ++ "-" ++ show y show (Cast x y) = "cast-" ++ show x ++ "-" ++ show y
show BelieveMe = "believe_me" show BelieveMe = "believe_me"

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@ -475,8 +475,21 @@ TTC (PrimFn n) where
toBuf b StrAppend = tag 16 toBuf b StrAppend = tag 16
toBuf b StrReverse = tag 17 toBuf b StrReverse = tag 17
toBuf b StrSubstr = tag 18 toBuf b StrSubstr = tag 18
toBuf b (Cast x y) = do tag 19; toBuf b x; toBuf b y
toBuf b BelieveMe = tag 20 toBuf b DoubleExp = tag 19
toBuf b DoubleLog = tag 20
toBuf b DoubleSin = tag 22
toBuf b DoubleCos = tag 23
toBuf b DoubleTan = tag 24
toBuf b DoubleASin = tag 25
toBuf b DoubleACos = tag 26
toBuf b DoubleATan = tag 27
toBuf b DoubleSqrt = tag 32
toBuf b DoubleFloor = tag 33
toBuf b DoubleCeiling = tag 34
toBuf b (Cast x y) = do tag 99; toBuf b x; toBuf b y
toBuf b BelieveMe = tag 100
fromBuf {n} b fromBuf {n} b
= case n of = case n of
@ -494,7 +507,19 @@ TTC (PrimFn n) where
12 => pure StrHead 12 => pure StrHead
13 => pure StrTail 13 => pure StrTail
17 => pure StrReverse 17 => pure StrReverse
19 => do x <- fromBuf b; y <- fromBuf b; pure (Cast x y) 19 => pure DoubleExp
20 => pure DoubleLog
22 => pure DoubleSin
23 => pure DoubleCos
24 => pure DoubleTan
25 => pure DoubleASin
26 => pure DoubleACos
27 => pure DoubleATan
32 => pure DoubleSqrt
33 => pure DoubleFloor
34 => pure DoubleCeiling
99 => do x <- fromBuf b; y <- fromBuf b; pure (Cast x y)
_ => corrupt "PrimFn 1" _ => corrupt "PrimFn 1"
fromBuf2 : Ref Bin Binary -> fromBuf2 : Ref Bin Binary ->
@ -521,7 +546,7 @@ TTC (PrimFn n) where
fromBuf3 b fromBuf3 b
= case !getTag of = case !getTag of
18 => pure StrSubstr 18 => pure StrSubstr
20 => pure BelieveMe 100 => pure BelieveMe
_ => corrupt "PrimFn 3" _ => corrupt "PrimFn 3"
mutual mutual

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@ -45,6 +45,10 @@ idrisTests
"total001", "total002", "total003", "total004", "total005", "total001", "total002", "total003", "total004", "total005",
"total006"] "total006"]
typeddTests : List String
typeddTests
= ["chapter001", "chapter002"]
chezTests : List String chezTests : List String
chezTests chezTests
= ["chez001", "chez002", "chez003", "chez004", = ["chez001", "chez002", "chez003", "chez004",
@ -99,16 +103,17 @@ main
| _ => do putStrLn "Usage: runtests [ttimp path]" | _ => do putStrLn "Usage: runtests [ttimp path]"
ttimps <- traverse (runTest "ttimp" idris2) ttimpTests ttimps <- traverse (runTest "ttimp" idris2) ttimpTests
idrs <- traverse (runTest "idris2" idris2) idrisTests idrs <- traverse (runTest "idris2" idris2) idrisTests
typedds <- traverse (runTest "typedd" idris2) typeddTests
chexec <- findChez chexec <- findChez
chezs <- maybe (do putStrLn "Chez Scheme not found" chezs <- maybe (do putStrLn "Chez Scheme not found"
pure []) pure [])
(\c => do putStrLn $ "Found Chez Scheme at " ++ c (\c => do putStrLn $ "Found Chez Scheme at " ++ c
traverse (runTest "chez" idris2) chezTests) traverse (runTest "chez" idris2) chezTests)
chexec chexec
let res = ttimps ++ idrs ++ chezs let res = ttimps ++ typedds ++ idrs ++ chezs
putStrLn (show (length (filter id res)) ++ "/" ++ show (length res) putStrLn (show (length (filter id res)) ++ "/" ++ show (length res)
++ " tests successful") ++ " tests successful")
if (any not (ttimps ++ idrs ++ chezs)) if (any not res)
then exitWith (ExitFailure 1) then exitWith (ExitFailure 1)
else exitWith ExitSuccess else exitWith ExitSuccess

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@ -19,9 +19,6 @@ badProcess : SP a b -> Stream a -> Stream b
badProcess (Get f) (x :: xs) = badProcess (f x) xs badProcess (Get f) (x :: xs) = badProcess (f x) xs
badProcess (Put b sp) xs = badProcess sp xs badProcess (Put b sp) xs = badProcess sp xs
Cast Nat Integer where
cast = natToInteger
doubleInt : SP Nat Integer doubleInt : SP Nat Integer
doubleInt = Get (\x => Put (the Integer (cast x)) doubleInt = Get (\x => Put (the Integer (cast x))
(Put (the Integer (cast x) * 2) doubleInt)) (Put (the Integer (cast x) * 2) doubleInt))

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@ -19,9 +19,6 @@ badProcess : SP a b -> Stream a -> Stream b
badProcess (Get f) (x :: xs) = badProcess (f x) xs badProcess (Get f) (x :: xs) = badProcess (f x) xs
badProcess (Put b sp) xs = badProcess sp xs badProcess (Put b sp) xs = badProcess sp xs
Cast Nat Integer where
cast = natToInteger
doubleInt : SP Nat Integer doubleInt : SP Nat Integer
doubleInt = Get (\x => Put (the Integer (cast x)) doubleInt = Get (\x => Put (the Integer (cast x))
(Put (the Integer (cast x) * 2) doubleInt)) (Put (the Integer (cast x) * 2) doubleInt))

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@ -2,5 +2,5 @@ Processing as TTImp
Written TTC Written TTC
Yaffle> ((Main.Just [Just a = ((Main.Vect.Vect (Main.S Main.Z)) Integer)]) ((((Main.Vect.Cons [Just k = Main.Z]) [Just a = Integer]) 1) (Main.Vect.Nil [Just a = Integer]))) Yaffle> ((Main.Just [Just a = ((Main.Vect.Vect (Main.S Main.Z)) Integer)]) ((((Main.Vect.Cons [Just k = Main.Z]) [Just a = Integer]) 1) (Main.Vect.Nil [Just a = Integer])))
Yaffle> ((Main.MkInfer [Just a = (Main.List.List Integer)]) (((Main.List.Cons [Just a = Integer]) 1) (Main.List.Nil [Just a = Integer]))) Yaffle> ((Main.MkInfer [Just a = (Main.List.List Integer)]) (((Main.List.Cons [Just a = Integer]) 1) (Main.List.Nil [Just a = Integer])))
Yaffle> (repl):1:9--1:12:Ambiguous elaboration [($resolved96 ?Main.{a:54}_[]), ($resolved78 ?Main.{a:54}_[])] Yaffle> (repl):1:9--1:12:Ambiguous elaboration [($resolved107 ?Main.{a:54}_[]), ($resolved89 ?Main.{a:54}_[])]
Yaffle> Bye for now! Yaffle> Bye for now!

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@ -2,9 +2,9 @@ Processing as TTImp
Written TTC Written TTC
Yaffle> Bye for now! Yaffle> Bye for now!
Processing as TTImp Processing as TTImp
Vect2.yaff:25:1--26:1:pat 0 {b:27} : Type => pat 0 {a:26} : Type => ($resolved95 {b:27}[1] {a:26}[0] $resolved77 ($resolved86 {a:26}[0]) ($resolved86 {b:27}[1])) is not a valid impossible pattern because it typechecks Vect2.yaff:25:1--26:1:pat 0 {b:27} : Type => pat 0 {a:26} : Type => ($resolved106 {b:27}[1] {a:26}[0] $resolved88 ($resolved97 {a:26}[0]) ($resolved97 {b:27}[1])) is not a valid impossible pattern because it typechecks
Yaffle> Bye for now! Yaffle> Bye for now!
Processing as TTImp Processing as TTImp
Vect3.yaff:25:1--26:1:Not a valid impossible pattern: Vect3.yaff:25:1--26:1:Not a valid impossible pattern:
Vect3.yaff:25:9--25:11:Type mismatch: $resolved76 and ($resolved84 ?Main.{n:21}_[] ?Main.{b:19}_[]) Vect3.yaff:25:9--25:11:Type mismatch: $resolved87 and ($resolved95 ?Main.{n:21}_[] ?Main.{b:19}_[])
Yaffle> Bye for now! Yaffle> Bye for now!

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@ -2,6 +2,6 @@ Processing as TTImp
Written TTC Written TTC
Yaffle> Main.lookup: All cases covered Yaffle> Main.lookup: All cases covered
Yaffle> Main.lookup': Yaffle> Main.lookup':
($resolved122 {arg:0} {arg:1} (Main.FZ {m:0}) {arg:3}) ($resolved133 {arg:0} {arg:1} (Main.FZ {m:0}) {arg:3})
Yaffle> Main.lookup'': Calls non covering function Main.lookup' Yaffle> Main.lookup'': Calls non covering function Main.lookup'
Yaffle> Bye for now! Yaffle> Bye for now!

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@ -3,13 +3,13 @@ Written TTC
Yaffle> Bye for now! Yaffle> Bye for now!
Processing as TTImp Processing as TTImp
Dot2.yaff:15:1--16:1:When elaborating left hand side of Main.half: Dot2.yaff:15:1--16:1:When elaborating left hand side of Main.half:
Dot2.yaff:15:10--15:15:Can't match on ($resolved73 ?{P:n:81}_[] ?{P:m:81}_[]) (Not a constructor application or primitive) - it elaborates to ($resolved73 ?{P:n:81}_[] ?{P:n:81}_[]) Dot2.yaff:15:10--15:15:Can't match on ($resolved84 ?{P:n:92}_[] ?{P:m:92}_[]) (Not a constructor application or primitive) - it elaborates to ($resolved84 ?{P:n:92}_[] ?{P:n:92}_[])
Yaffle> Bye for now! Yaffle> Bye for now!
Processing as TTImp Processing as TTImp
Dot3.yaff:18:1--20:1:When elaborating left hand side of Main.addBaz3: Dot3.yaff:18:1--20:1:When elaborating left hand side of Main.addBaz3:
Dot3.yaff:18:10--18:15:Can't match on ($resolved73 ?{P:x:86}_[] ?{P:y:86}_[]) (Not a constructor application or primitive) - it elaborates to ($resolved73 ?Main.{_:13}_[] ?Main.{_:14}_[]) Dot3.yaff:18:10--18:15:Can't match on ($resolved84 ?{P:x:97}_[] ?{P:y:97}_[]) (Not a constructor application or primitive) - it elaborates to ($resolved84 ?Main.{_:13}_[] ?Main.{_:14}_[])
Yaffle> Bye for now! Yaffle> Bye for now!
Processing as TTImp Processing as TTImp
Dot4.yaff:17:1--19:1:When elaborating left hand side of Main.addBaz4: Dot4.yaff:17:1--19:1:When elaborating left hand side of Main.addBaz4:
Dot4.yaff:17:10--17:15:Can't match on ($resolved73 ?Main.{_:13}_[] ?Main.{_:14}_[]) (Not a constructor application or primitive) - it elaborates to ($resolved73 ?{P:x:86}_[] ?{P:y:86}_[]) Dot4.yaff:17:10--17:15:Can't match on ($resolved84 ?Main.{_:13}_[] ?Main.{_:14}_[]) (Not a constructor application or primitive) - it elaborates to ($resolved84 ?{P:x:97}_[] ?{P:y:97}_[])
Yaffle> Bye for now! Yaffle> Bye for now!

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@ -1,5 +1,5 @@
Processing as TTImp Processing as TTImp
Eta.yaff:16:1--17:1:When elaborating right hand side of Main.etaBad: Eta.yaff:16:1--17:1:When elaborating right hand side of Main.etaBad:
Eta.yaff:16:10--17:1:When unifying: ($resolved78 ((x : Char) -> ((y : ?Main.{_:14}_[x[0]]) -> $resolved86)) ((x : Char) -> ((y : ?Main.{_:14}_[x[0]]) -> $resolved86)) ?Main.{x:18}_[] ?Main.{x:18}_[]) and ($resolved78 ((x : Char) -> ((y : ?Main.{_:14}_[x[0]]) -> $resolved86)) (({arg:10} : Integer) -> (({arg:11} : Integer) -> $resolved86)) $resolved87 \x : Char => \y : ?Main.{_:14}_[x[0]] => ($resolved87 ?Main.{_:15}_[x[1], y[0]] ?Main.{_:16}_[x[1], y[0]])) Eta.yaff:16:10--17:1:When unifying: ($resolved89 ((x : Char) -> ((y : ?Main.{_:14}_[x[0]]) -> $resolved97)) ((x : Char) -> ((y : ?Main.{_:14}_[x[0]]) -> $resolved97)) ?Main.{x:18}_[] ?Main.{x:18}_[]) and ($resolved89 ((x : Char) -> ((y : ?Main.{_:14}_[x[0]]) -> $resolved97)) (({arg:10} : Integer) -> (({arg:11} : Integer) -> $resolved97)) $resolved98 \x : Char => \y : ?Main.{_:14}_[x[0]] => ($resolved98 ?Main.{_:15}_[x[1], y[0]] ?Main.{_:16}_[x[1], y[0]]))
Eta.yaff:16:10--17:1:Type mismatch: Char and Integer Eta.yaff:16:10--17:1:Type mismatch: Char and Integer
Yaffle> Bye for now! Yaffle> Bye for now!

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@ -0,0 +1,14 @@
StringOrInt : Bool -> Type
StringOrInt x = case x of
True => Int
False => String
getStringOrInt : (x : Bool) -> StringOrInt x
getStringOrInt x = case x of
True => 94
False => "Ninety four"
valToString : (x : Bool) -> StringOrInt x -> String
valToString x val = case x of
True => cast val
False => val

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@ -0,0 +1,4 @@
module Main
main : IO ()
main = putStrLn "Hello, Idris world!"

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@ -0,0 +1,6 @@
module Main
main : IO ()
main = putStrLn ?greeting

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@ -0,0 +1,4 @@
module Main
main : IO ()
main = putStrLn (?convert 'x')

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@ -0,0 +1,8 @@
1/1: Building FCTypes (FCTypes.idr)
1/1: Building HelloHole (HelloHole.idr)
1/1: Building Hello (Hello.idr)
1/1: Building HoleFix (HoleFix.idr)
Welcome to Idris 2 version 0.0. Enjoy yourself!
Main> -------------------------------------
convert : Char -> String
Main> Bye for now!

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@ -0,0 +1,2 @@
:t convert
:q

6
tests/typedd/chapter001/run Executable file
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@ -0,0 +1,6 @@
$1 FCTypes.idr --check
$1 HelloHole.idr --check
$1 Hello.idr --check
$1 HoleFix.idr < input
rm -rf build

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@ -0,0 +1,11 @@
module Main
import System.REPL
import Average
showAverage : String -> String
showAverage str = "The average word length is: " ++
show (average str) ++ "\n"
main : IO ()
main = repl "Enter a string: " showAverage

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@ -0,0 +1,18 @@
module Average
import Data.Strings
import Data.List
||| Calculate the average length of words in a string.
||| @str a string containing words separated by whitespace.
export
average : (str : String) -> Double
average str = let numWords = wordCount str
totalLength = sum (allLengths (words str)) in
cast totalLength / cast numWords
where
wordCount : String -> Nat
wordCount str = length (words str)
allLengths : List String -> List Nat
allLengths strs = map length strs

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@ -0,0 +1,2 @@
double : Int -> Int
double x = x + x

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@ -0,0 +1,20 @@
identityInt : Int -> Int
identityInt x = x
identityString : String -> String
identityString x = x
identityBool : Bool -> Bool
identityBool x = x
identity : ty -> ty
identity x = x
doubleNat : Nat -> Nat
doubleNat x = x * x
doubleInteger : Integer -> Integer
doubleInteger x = x * x
double : Num ty => ty -> ty
double x = x * x

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@ -0,0 +1,14 @@
double : Num a => a -> a
double x = x * x
twice : (a -> a) -> a -> a
twice f x = f (f x)
Shape : Type
rotate : Shape -> Shape
quadruple : Num a => a -> a
quadruple = twice double
turn_around : Shape -> Shape
turn_around = twice rotate

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@ -0,0 +1,11 @@
longer : String -> String -> Nat
longer word1 word2
= let len1 = length word1
len2 = length word2 in
if len1 > len2 then len1 else len2
pythagoras : Double -> Double -> Double
pythagoras x y = sqrt (square x + square y)
where
square : Double -> Double
square x = x * x

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@ -0,0 +1,2 @@
add : Int -> Int -> Int
add x y = x + y

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@ -0,0 +1,6 @@
module Main
import System.REPL
main : IO ()
main = repl "> " reverse

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@ -0,0 +1,8 @@
1/1: Building Double (Double.idr)
1/1: Building Generic (Generic.idr)
1/1: Building HOF (HOF.idr)
1/1: Building Partial (Partial.idr)
1/1: Building Reverse (Reverse.idr)
1/2: Building Average (Average.idr)
2/2: Building AveMain (AveMain.idr)
1/1: Building Let_Where (Let_Where.idr)

9
tests/typedd/chapter002/run Executable file
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@ -0,0 +1,9 @@
$1 Double.idr --check
$1 Generic.idr --check
$1 HOF.idr --check
$1 Partial.idr --check
$1 Reverse.idr --check
$1 AveMain.idr --check
$1 Let_Where.idr --check
rm -rf build