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1
.gitignore vendored
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@ -9,4 +9,3 @@
WD WD
bin/ bin/
dist* dist*
.tricu_history

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@ -11,11 +11,12 @@ tricu is the word for "tree" in Lojban: `(x1) is a tree of species/cultivar (x2)
## Features ## Features
- Tree Calculus operator: `t` - Tree Calculus operator: `t`
- Immutable definitions: `x = t t` - Assignments: `x = t t`
- Lambda abstraction: `id = (a : a)` - Immutable definitions
- Lambda abstraction syntax: `id = (\a : a)`
- List, Number, and String literals: `[(2) ("Hello")]` - List, Number, and String literals: `[(2) ("Hello")]`
- Function application: `not (not false)` - Function application: `not (not false)`
- Higher order/first-class functions: `map (a : append a "!") [("Hello")]` - Higher order/first-class functions: `map (\a : append a "!") [("Hello")]`
- Intensionality blurs the distinction between functions and data (see REPL examples) - Intensionality blurs the distinction between functions and data (see REPL examples)
- Simple module system for code organization - Simple module system for code organization
@ -23,15 +24,15 @@ tricu is the word for "tree" in Lojban: `(x1) is a tree of species/cultivar (x2)
``` ```
tricu < -- Anything after `--` on a single line is a comment tricu < -- Anything after `--` on a single line is a comment
tricu < id = (a : a) -- Lambda abstraction is eliminated to tree calculus terms tricu < id = (\a : a) -- Lambda abstraction is eliminated to tree calculus terms
tricu < head (map (i : append i " world!") [("Hello, ")]) tricu < head (map (\i : append i " world!") [("Hello, ")])
tricu > "Hello, world!" tricu > "Hello, world!"
tricu < id (head (map (i : append i " world!") [("Hello, ")])) tricu < id (head (map (\i : append i " world!") [("Hello, ")]))
tricu > "Hello, world!" tricu > "Hello, world!"
tricu < -- Intensionality! We can inspect the structure of a function or data. tricu < -- Intensionality! We can inspect the structure of a function or data.
tricu < triage = (a b c : t (t a b) c) tricu < triage = (\a b c : t (t a b) c)
tricu < test = triage "Leaf" (z : "Stem") (a b : "Fork") tricu < test = triage "Leaf" (\z : "Stem") (\a b : "Fork")
tricu < test (t t) tricu < test (t t)
tricu > "Stem" tricu > "Stem"
tricu < -- We can even convert a term back to source code (/demos/toSource.tri) tricu < -- We can even convert a term back to source code (/demos/toSource.tri)
@ -40,21 +41,13 @@ tricu > "(t (t (t t) (t t t)) (t t (t t t)))"
tricu < -- or calculate its size (/demos/size.tri) tricu < -- or calculate its size (/demos/size.tri)
tricu < size not? tricu < size not?
tricu > 12 tricu > 12
tricu < -- REPL Commands:
tricu < !definitions -- Lists all available definitions
tricu < !output -- Change output format (Tree, FSL, AST, etc.)
tricu < !import -- Import definitions from a file
tricu < !exit -- Exit the REPL
tricu < !clear -- ANSI screen clear
tricu < !save -- Save all REPL definitions to a file that you can !import
tricu < !reset -- Clear all REPL definitions
tricu < !version -- Print tricu version
``` ```
## Installation and Use ## Installation and Use
You can easily build and run this project using [Nix](https://nixos.org/download/). [Releases are available for Linux.](https://git.eversole.co/James/tricu/releases)
Or you can easily build and run this project using [Nix](https://nixos.org/download/).
- Quick Start (REPL): - Quick Start (REPL):
- `nix run git+https://git.eversole.co/James/tricu` - `nix run git+https://git.eversole.co/James/tricu`
@ -91,12 +84,6 @@ tricu decode [OPTIONS]
Defaults to stdin. Defaults to stdin.
``` ```
## Collaborating
I am happy to accept issue reports, pull requests, or questions about tricu [via email](mailto:james@eversole.co).
If you want to collaborate but don't want to email back-and-forth, please reach out via email once to let me know and I will provision a git.eversole.co account for you.
## Acknowledgements ## Acknowledgements
Tree Calculus was discovered by [Barry Jay](https://github.com/barry-jay-personal/blog). Tree Calculus was discovered by [Barry Jay](https://github.com/barry-jay-personal/blog).

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@ -1,5 +1,4 @@
!import "../lib/base.tri" !Local !import "lib/base.tri" !Local
!import "../lib/list.tri" !Local
main = lambdaEqualsTC main = lambdaEqualsTC
@ -11,17 +10,20 @@ demo_true = t t
not_TC? = t (t (t t) (t t t)) (t t (t t t)) not_TC? = t (t (t t) (t t t)) (t t (t t t))
-- /demos/toSource.tri contains an explanation of `triage` -- /demos/toSource.tri contains an explanation of `triage`
demo_triage = a b c : t (t a b) c demo_triage = \a b c : t (t a b) c
demo_matchBool = a b : demo_triage b (_ : a) (_ _ : a) demo_matchBool = (\ot of : demo_triage
of
(\_ : ot)
(\_ _ : ot)
)
-- Lambda representation of the Boolean `not` function -- Lambda representation of the Boolean `not` function
not_Lambda? = demo_matchBool demo_false demo_true not_Lambda? = demo_matchBool demo_false demo_true
-- As tricu eliminates Lambda terms to SKI combinators, the tree form of many -- Since tricu eliminates Lambda terms to SKI combinators, the tree form of many
-- functions defined via Lambda terms are larger than the most efficient TC -- functions defined via Lambda terms are larger than the most efficient TC
-- representation possible. Between different languages that evaluate to tree -- representation. Between different languages that evaluate to tree calculus
-- calculus terms, the exact implementation of Lambda elimination may differ -- terms, the exact implementation of Lambda elimination may differ and lead
-- and lead to different trees even if they share extensional behavior. -- to different tree representations even if they share extensional behavior.
-- Let's see if these are the same: -- Let's see if these are the same:
lambdaEqualsTC = equal? not_TC? not_Lambda? lambdaEqualsTC = equal? not_TC? not_Lambda?

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@ -1,5 +1,4 @@
!import "../lib/base.tri" Lib !import "lib/base.tri" !Local
!import "../lib/list.tri" !Local
main = exampleTwo main = exampleTwo
-- Level Order Traversal of a labelled binary tree -- Level Order Traversal of a labelled binary tree
@ -18,15 +17,15 @@ main = exampleTwo
-- / / \ -- / / \
-- 4 5 6 -- 4 5 6
label = node : head node label = \node : head node
left = node : (if (emptyList? node) left = (\node : if (emptyList? node)
[] []
(if (emptyList? (tail node)) (if (emptyList? (tail node))
[] []
(head (tail node)))) (head (tail node))))
right = node : (if (emptyList? node) right = (\node : if (emptyList? node)
[] []
(if (emptyList? (tail node)) (if (emptyList? (tail node))
[] []
@ -34,25 +33,25 @@ right = node : (if (emptyList? node)
[] []
(head (tail (tail node)))))) (head (tail (tail node))))))
processLevel = y (self queue : if (emptyList? queue) processLevel = y (\self queue : if (emptyList? queue)
[] []
(pair (map label queue) (self (filter (pair (map label queue) (self (filter
(node : not? (emptyList? node)) (\node : not? (emptyList? node))
(append (map left queue) (map right queue)))))) (append (map left queue) (map right queue))))))
levelOrderTraversal_ = a : processLevel (t a t) levelOrderTraversal_ = \a : processLevel (t a t)
toLineString = y (self levels : if (emptyList? levels) toLineString = y (\self levels : if (emptyList? levels)
"" ""
(append (append
(append (map (x : append x " ") (head levels)) "") (append (map (\x : append x " ") (head levels)) "")
(if (emptyList? (tail levels)) "" (append (t (t 10 t) t) (self (tail levels)))))) (if (emptyList? (tail levels)) "" (append (t (t 10 t) t) (self (tail levels))))))
levelOrderToString = s : toLineString (levelOrderTraversal_ s) levelOrderToString = \s : toLineString (levelOrderTraversal_ s)
flatten = foldl (acc x : append acc x) "" flatten = foldl (\acc x : append acc x) ""
levelOrderTraversal = s : append (t 10 t) (flatten (levelOrderToString s)) levelOrderTraversal = \s : append (t 10 t) (flatten (levelOrderToString s))
exampleOne = levelOrderTraversal [("1") exampleOne = levelOrderTraversal [("1")
[("2") [("4") t t] t] [("2") [("4") t t] t]

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@ -1,37 +0,0 @@
!import "../lib/patterns.tri" !Local
-- We can do conditional pattern matching by providing a list of lists, where
-- each sublist contains a boolean expression and a function to return if said
-- boolean expression evaluates to true.
value = 42
main = match value [[(equal? "Hello") (_ : ", world!")] [(equal? 42) (_ : "The answer.")]]
-- < main
-- > "The answer."
matchExample = (x : match x
[[(equal? 1) (_ : "one")]
[(equal? 2) (_ : "two")]
[(equal? 3) (_ : "three")]
[(equal? 4) (_ : "four")]
[(equal? 5) (_ : "five")]
[(equal? 6) (_ : "six")]
[(equal? 7) (_ : "seven")]
[(equal? 8) (_ : "eight")]
[(equal? 9) (_ : "nine")]
[(equal? 10) (_ : "ten")]
[ otherwise (_ : "I ran out of fingers!")]])
-- < matchExample 3
-- > "three"
-- < matchExample 5
-- > "five"
-- < matchExample 9
-- > "nine"
-- < matchExample 11
-- > "I ran out of fingers!"
-- < matchExample "three"
-- > "I ran out of fingers!"
-- < matchExample [("hello") ("world")]
-- > "I ran out of fingers!"

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@ -1,11 +1,12 @@
!import "../lib/base.tri" !Local !import "lib/base.tri" !Local
!import "../lib/list.tri" !Local
main = size size main = size size
size = x : y (self x : compose succ (triage size = (\x :
id (y (\self x :
self compose succ
(x y : compose (self x) (self y)) (triage
x) (\x : x)
) x 0 self
(\x y : compose (self x) (self y))
x)) x 0))

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@ -1,5 +1,4 @@
!import "../lib/base.tri" !Local !import "lib/base.tri" !Local
!import "../lib/list.tri" !Local
main = toSource not? main = toSource not?
-- Thanks to intensionality, we can inspect the structure of a given value -- Thanks to intensionality, we can inspect the structure of a given value
@ -18,25 +17,25 @@ main = toSource not?
sourceLeaf = t (head "t") sourceLeaf = t (head "t")
-- Stem case -- Stem case
sourceStem = convert : (a rest : sourceStem = (\convert : (\a rest :
t (head "(") -- Start with a left parenthesis "(". t (head "(") -- Start with a left parenthesis "(".
(t (head "t") -- Add a "t" (t (head "t") -- Add a "t"
(t (head " ") -- Add a space. (t (head " ") -- Add a space.
(convert a -- Recursively convert the argument. (convert a -- Recursively convert the argument.
(t (head ")") rest))))) -- Close with ")" and append the rest. (t (head ")") rest)))))) -- Close with ")" and append the rest.
-- Fork case -- Fork case
sourceFork = convert : (a b rest : sourceFork = (\convert : (\a b rest :
t (head "(") -- Start with a left parenthesis "(". t (head "(") -- Start with a left parenthesis "(".
(t (head "t") -- Add a "t" (t (head "t") -- Add a "t"
(t (head " ") -- Add a space. (t (head " ") -- Add a space.
(convert a -- Recursively convert the first arg. (convert a -- Recursively convert the first arg.
(t (head " ") -- Add another space. (t (head " ") -- Add another space.
(convert b -- Recursively convert the second arg. (convert b -- Recursively convert the second arg.
(t (head ")") rest))))))) -- Close with ")" and append the rest. (t (head ")") rest)))))))) -- Close with ")" and append the rest.
-- Wrapper around triage -- Wrapper around triage
toSource_ = y (self arg : toSource_ = y (\self arg :
triage triage
sourceLeaf -- `triage` "a" case, Leaf sourceLeaf -- `triage` "a" case, Leaf
(sourceStem self) -- `triage` "b" case, Stem (sourceStem self) -- `triage` "b" case, Stem
@ -44,7 +43,7 @@ toSource_ = y (self arg :
arg) -- The term to be inspected arg) -- The term to be inspected
-- toSource takes a single TC term and returns a String -- toSource takes a single TC term and returns a String
toSource = v : toSource_ v "" toSource = \v : toSource_ v ""
exampleOne = toSource true -- OUT: "(t t)" exampleOne = toSource true -- OUT: "(t t)"
exampleTwo = toSource not? -- OUT: "(t (t (t t) (t t t)) (t t (t t t)))" exampleTwo = toSource not? -- OUT: "(t (t (t t) (t t t)) (t t (t t t)))"

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@ -34,7 +34,6 @@
devShells.default = pkgs.mkShell { devShells.default = pkgs.mkShell {
buildInputs = with pkgs; [ buildInputs = with pkgs; [
haskellPackages.cabal-install haskellPackages.cabal-install
haskellPackages.ghc-events
haskellPackages.ghcid haskellPackages.ghcid
customGHC customGHC
upx upx

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@ -1,74 +1,150 @@
false = t false = t
_ = t _ = t
true = t t true = t t
id = a : a k = t t
const = a b : a i = t (t k) t
s = t (t (k t)) t
m = s i i
b = s (k s) k
c = s (s (k s) (s (k k) s)) (k k)
id = \a : a
pair = t pair = t
if = cond then else : t (t else (t t then)) t cond if = \cond then else : t (t else (t t then)) t cond
y = ((mut wait fun : wait mut (x : fun (wait mut x))) y = ((\mut wait fun : wait mut (\x : fun (wait mut x)))
(x : x x) (\x : x x)
(a0 a1 a2 : t (t a0) (t t a2) a1)) (\a0 a1 a2 : t (t a0) (t t a2) a1))
compose = f g x : f (g x) compose = \f g x : f (g x)
triage = leaf stem fork : t (t leaf stem) fork triage = \leaf stem fork : t (t leaf stem) fork
test = triage "Leaf" (_ : "Stem") (_ _ : "Fork") test = triage "Leaf" (\_ : "Stem") (\_ _ : "Fork")
matchBool = (ot of : triage matchBool = (\ot of : triage
of of
(_ : ot) (\_ : ot)
(_ _ : ot) (\_ _ : ot)
) )
lAnd = (triage matchList = \a b : triage a _ b
(_ : false)
(_ x : x)
(_ _ x : x))
lOr = (triage matchPair = \a : triage _ _ a
(x : x)
(_ _ : true)
(_ _ _ : true))
matchPair = a : triage _ _ a
not? = matchBool false true not? = matchBool false true
and? = matchBool id (_ : false) and? = matchBool id (\_ : false)
emptyList? = matchList true (\_ _ : false)
or? = (x z : head = matchList t (\head _ : head)
matchBool tail = matchList t (\_ tail : tail)
(matchBool true true z)
(matchBool true false z)
x)
xor? = (x z : or? = (\x y :
matchBool matchBool
(matchBool false true z) (matchBool (t t) (t t) y)
(matchBool true false z) (matchBool (t t) 0 y)
x) x)
xor? = matchBool id not?
equal? = y (self : triage append = y (\self : matchList
(\k : k)
(\h r k : pair h (self r k)))
lAnd = (triage
(\_ : false)
(\_ x : x)
(\_ _ x : x))
lOr = (triage
(\x : x)
(\_ _ : true)
(\_ _ _ : true))
map_ = y (\self :
matchList
(\_ : t)
(\head tail f : pair (f head) (self tail f)))
map = \f l : map_ l f
equal? = y (\self : triage
(triage (triage
true true
(_ : false) (\_ : false)
(_ _ : false)) (\_ _ : false))
(ax : (\ax :
triage triage
false false
(self ax) (self ax)
(_ _ : false)) (\_ _ : false))
(ax ay : (\ax ay :
triage triage
false false
(_ : false) (\_ : false)
(bx by : lAnd (self ax bx) (self ay by)))) (\bx by : lAnd (self ax bx) (self ay by))))
succ = y (self : lExist? = y (\self x : matchList
false
(\h z : or? (equal? x h) (self x z)))
filter_ = y (\self : matchList
(\_ : t)
(\head tail f : matchBool (t head) i (f head) (self tail f)))
filter = \f l : filter_ l f
foldl_ = y (\self f l x : matchList (\acc : acc) (\head tail acc : self f tail (f acc head)) l x)
foldl = \f x l : foldl_ f l x
foldr_ = y (\self x f l : matchList x (\head tail : f (self x f tail) head) l)
foldr = \f x l : foldr_ x f l
succ = y (\self :
triage triage
1 1
t t
(triage (triage
(t (t t)) (t (t t))
(_ tail : t t (self tail)) (\_ tail : t t (self tail))
t)) t))
length = y (\self : matchList
0
(\_ tail : succ (self tail)))
reverse = y (\self : matchList
t
(\head tail : append (self tail) (pair head t)))
snoc = y (\self x : matchList
(pair x t)
(\h z : pair h (self x z)))
count = y (\self x : matchList
0
(\h z : matchBool
(succ (self x z))
(self x z)
(equal? x h)))
last = y (\self : matchList
t
(\hd tl : matchBool
hd
(self tl)
(emptyList? tl)))
all? = y (\self pred : matchList
true
(\h z : and? (pred h) (self pred z)))
any? = y (\self pred : matchList
false
(\h z : or? (pred h) (self pred z)))
unique_ = y (\self seen : matchList
t
(\head rest : matchBool
(self seen rest)
(pair head (self (pair head seen) rest))
(lExist? head seen)))
unique = \xs : unique_ t xs
intersect = \xs ys : filter (\x : lExist? x ys) xs
union = \xs ys : unique (append xs ys)

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@ -1,70 +0,0 @@
!import "base.tri" !Local
_ = t
matchList = a b : triage a _ b
emptyList? = matchList true (_ _ : false)
head = matchList t (head _ : head)
tail = matchList t (_ tail : tail)
append = y (self : matchList
(k : k)
(h r k : pair h (self r k)))
lExist? = y (self x : matchList
false
(h z : or? (equal? x h) (self x z)))
map_ = y (self :
matchList
(_ : t)
(head tail f : pair (f head) (self tail f)))
map = f l : map_ l f
filter_ = y (self : matchList
(_ : t)
(head tail f : matchBool (t head) id (f head) (self tail f)))
filter = f l : filter_ l f
foldl_ = y (self f l x : matchList (acc : acc) (head tail acc : self f tail (f acc head)) l x)
foldl = f x l : foldl_ f l x
foldr_ = y (self x f l : matchList x (head tail : f (self x f tail) head) l)
foldr = f x l : foldr_ x f l
length = y (self : matchList
0
(_ tail : succ (self tail)))
reverse = y (self : matchList
t
(head tail : append (self tail) (pair head t)))
snoc = y (self x : matchList
(pair x t)
(h z : pair h (self x z)))
count = y (self x : matchList
0
(h z : matchBool
(succ (self x z))
(self x z)
(equal? x h)))
last = y (self : matchList
t
(hd tl : matchBool
hd
(self tl)
(emptyList? tl)))
all? = y (self pred : matchList
true
(h z : and? (pred h) (self pred z)))
any? = y (self pred : matchList
false
(h z : or? (pred h) (self pred z)))
intersect = xs ys : filter (x : lExist? x ys) xs

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@ -1,24 +0,0 @@
!import "base.tri" !Local
!import "list.tri" List
match_ = y (self value patterns :
triage
t
(_ : t)
(pattern rest :
triage
t
(_ : t)
(test result :
if (test value)
(result value)
(self value rest))
pattern)
patterns)
match = (value patterns :
match_ value (List.map (sublist :
pair (List.head sublist) (List.head (List.tail sublist)))
patterns))
otherwise = const (t t)

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@ -75,9 +75,6 @@ elimLambda = go
go (SLambda [f] (SLambda [g] (SLambda [x] body))) go (SLambda [f] (SLambda [g] (SLambda [x] body)))
| body == SApp (SVar f) (SApp (SVar g) (SVar x)) = _B | body == SApp (SVar f) (SApp (SVar g) (SVar x)) = _B
-- General elimination -- General elimination
go (SLambda [v] (SList xs))
= elimLambda (SLambda [v] (foldr wrapTLeaf TLeaf xs))
where wrapTLeaf m r = SApp (SApp TLeaf m) r
go (SLambda (v:vs) body) go (SLambda (v:vs) body)
| null vs = toSKI v (elimLambda body) | null vs = toSKI v (elimLambda body)
| otherwise = elimLambda (SLambda [v] (SLambda vs body)) | otherwise = elimLambda (SLambda [v] (SLambda vs body))
@ -144,23 +141,18 @@ reorderDefs env defs
buildDepGraph :: [TricuAST] -> Map.Map String (Set.Set String) buildDepGraph :: [TricuAST] -> Map.Map String (Set.Set String)
buildDepGraph topDefs buildDepGraph topDefs
| not (null conflictingDefs) = | not (null duplicateNames) =
errorWithoutStackTrace $ errorWithoutStackTrace $
"Conflicting definitions detected: " ++ show conflictingDefs "Duplicate definitions detected: " ++ show duplicateNames
| otherwise = | otherwise =
Map.fromList Map.fromList
[ (name, depends topDefs (SDef name [] body)) [ (name, depends topDefs (SDef name [] body))
| SDef name _ body <- topDefs] | SDef name _ body <- topDefs]
where where
defsMap = Map.fromListWith (++) names = [name | SDef name _ _ <- topDefs]
[(name, [(name, body)]) | SDef name _ body <- topDefs] duplicateNames =
[ name | (name, count) <- Map.toList (countOccurrences names) , count > 1]
conflictingDefs = countOccurrences = foldr (\x -> Map.insertWith (+) x 1) Map.empty
[ name
| (name, defs) <- Map.toList defsMap
, let bodies = map snd defs
, not $ all (== head bodies) (tail bodies)
]
sortDeps :: Map.Map String (Set.Set String) -> [String] sortDeps :: Map.Map String (Set.Set String) -> [String]
sortDeps graph = go [] Set.empty (Map.keys graph) sortDeps graph = go [] Set.empty (Map.keys graph)

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@ -6,34 +6,12 @@ import Parser
import Research import Research
import Data.List (partition) import Data.List (partition)
import Data.Maybe (mapMaybe)
import Control.Monad (foldM) import Control.Monad (foldM)
import System.IO import System.IO
import System.FilePath (takeDirectory, normalise, (</>))
import qualified Data.Map as Map import qualified Data.Map as Map
import qualified Data.Set as Set import qualified Data.Set as Set
extractMain :: Env -> Either String T
extractMain env =
case Map.lookup "main" env of
Just result -> Right result
Nothing -> Left "No `main` function detected"
processImports :: Set.Set FilePath -> FilePath -> FilePath -> [TricuAST]
-> Either String ([TricuAST], [(FilePath, String, FilePath)])
processImports seen base currentPath asts =
let (imports, nonImports) = partition isImp asts
importPaths = mapMaybe getImportInfo imports
in if currentPath `Set.member` seen
then Left $ "Encountered cyclic import: " ++ currentPath
else Right (nonImports, importPaths)
where
isImp (SImport _ _) = True
isImp _ = False
getImportInfo (SImport p n) = Just (p, n, makeRelativeTo currentPath p)
getImportInfo _ = Nothing
evaluateFileResult :: FilePath -> IO T evaluateFileResult :: FilePath -> IO T
evaluateFileResult filePath = do evaluateFileResult filePath = do
contents <- readFile filePath contents <- readFile filePath
@ -41,11 +19,11 @@ evaluateFileResult filePath = do
case parseProgram tokens of case parseProgram tokens of
Left err -> errorWithoutStackTrace (handleParseError err) Left err -> errorWithoutStackTrace (handleParseError err)
Right ast -> do Right ast -> do
processedAst <- preprocessFile filePath ast <- preprocessFile filePath
let finalEnv = evalTricu Map.empty processedAst let finalEnv = evalTricu Map.empty ast
case extractMain finalEnv of case Map.lookup "main" finalEnv of
Right result -> return result Just finalResult -> return finalResult
Left err -> errorWithoutStackTrace err Nothing -> errorWithoutStackTrace "No `main` function detected"
evaluateFile :: FilePath -> IO Env evaluateFile :: FilePath -> IO Env
evaluateFile filePath = do evaluateFile filePath = do
@ -68,33 +46,38 @@ evaluateFileWithContext env filePath = do
pure $ evalTricu env ast pure $ evalTricu env ast
preprocessFile :: FilePath -> IO [TricuAST] preprocessFile :: FilePath -> IO [TricuAST]
preprocessFile p = preprocessFile' Set.empty p p preprocessFile = preprocessFile' Set.empty
preprocessFile' :: Set.Set FilePath -> FilePath -> FilePath -> IO [TricuAST] preprocessFile' :: Set.Set FilePath -> FilePath -> IO [TricuAST]
preprocessFile' seen base currentPath = do preprocessFile' inProgress filePath
contents <- readFile currentPath | filePath `Set.member` inProgress =
let tokens = lexTricu contents errorWithoutStackTrace $ "Encountered cyclic import: " ++ filePath
case parseProgram tokens of | otherwise = do
Left err -> errorWithoutStackTrace (handleParseError err) contents <- readFile filePath
Right ast -> let tokens = lexTricu contents
case processImports seen base currentPath ast of case parseProgram tokens of
Left err -> errorWithoutStackTrace err Left err -> errorWithoutStackTrace (handleParseError err)
Right (nonImports, importPaths) -> do Right asts -> do
let seen' = Set.insert currentPath seen let (imports, nonImports) = partition isImport asts
imported <- concat <$> mapM (processImportPath seen' base) importPaths let newInProgress = Set.insert filePath inProgress
pure $ imported ++ nonImports importedASTs <- concat <$>
mapM (processImport newInProgress "") imports
pure $ importedASTs ++ nonImports
where where
processImportPath seen base (path, name, importPath) = do isImport :: TricuAST -> Bool
ast <- preprocessFile' seen base importPath isImport (SImport _ _) = True
pure $ map (nsDefinition (if name == "!Local" then "" else name)) isImport _ = False
$ filter (not . isImp) ast
isImp (SImport _ _) = True
isImp _ = False
makeRelativeTo :: FilePath -> FilePath -> FilePath processImport :: Set.Set FilePath -> String -> TricuAST -> IO [TricuAST]
makeRelativeTo f i = processImport prog currentModule (SImport path "!Local") = do
let d = takeDirectory f ast <- preprocessFile' prog path
in normalise $ d </> i let defs = filter (not . isImport) ast
pure $ map (nsDefinition currentModule) defs
processImport prog _ (SImport path name) = do
ast <- preprocessFile' prog path
let defs = filter (not . isImport) ast
pure $ map (nsDefinition name) defs
processImport _ _ _ = error "Unexpected non-import in processImport"
nsDefinitions :: String -> [TricuAST] -> [TricuAST] nsDefinitions :: String -> [TricuAST] -> [TricuAST]
nsDefinitions moduleName = map (nsDefinition moduleName) nsDefinitions moduleName = map (nsDefinition moduleName)

View File

@ -3,7 +3,6 @@ module Lexer where
import Research import Research
import Control.Monad (void) import Control.Monad (void)
import Data.Functor (($>))
import Data.Void import Data.Void
import Text.Megaparsec import Text.Megaparsec
import Text.Megaparsec.Char hiding (space) import Text.Megaparsec.Char hiding (space)
@ -41,6 +40,7 @@ tricuLexer = do
, try stringLiteral , try stringLiteral
, assign , assign
, colon , colon
, backslash
, openParen , openParen
, closeParen , closeParen
, openBracket , openBracket
@ -54,7 +54,7 @@ lexTricu input = case runParser tricuLexer "" input of
keywordT :: Lexer LToken keywordT :: Lexer LToken
keywordT = string "t" *> notFollowedBy alphaNumChar $> LKeywordT keywordT = string "t" *> notFollowedBy alphaNumChar *> pure LKeywordT
identifier :: Lexer LToken identifier :: Lexer LToken
identifier = do identifier = do
@ -63,7 +63,7 @@ identifier = do
<|> digitChar <|> char '_' <|> char '-' <|> char '?' <|> digitChar <|> char '_' <|> char '-' <|> char '?'
<|> char '$' <|> char '#' <|> char '@' <|> char '%' <|> char '$' <|> char '#' <|> char '@' <|> char '%'
let name = first : rest let name = first : rest
if name == "t" || name == "!result" if (name == "t" || name == "!result")
then fail "Keywords (`t`, `!result`) cannot be used as an identifier" then fail "Keywords (`t`, `!result`) cannot be used as an identifier"
else return (LIdentifier name) else return (LIdentifier name)
@ -76,7 +76,7 @@ namespace = do
return (LNamespace name) return (LNamespace name)
dot :: Lexer LToken dot :: Lexer LToken
dot = char '.' $> LDot dot = char '.' *> pure LDot
lImport :: Lexer LToken lImport :: Lexer LToken
lImport = do lImport = do
@ -88,25 +88,28 @@ lImport = do
return (LImport path name) return (LImport path name)
assign :: Lexer LToken assign :: Lexer LToken
assign = char '=' $> LAssign assign = char '=' *> pure LAssign
colon :: Lexer LToken colon :: Lexer LToken
colon = char ':' $> LColon colon = char ':' *> pure LColon
backslash :: Lexer LToken
backslash = char '\\' *> pure LBackslash
openParen :: Lexer LToken openParen :: Lexer LToken
openParen = char '(' $> LOpenParen openParen = char '(' *> pure LOpenParen
closeParen :: Lexer LToken closeParen :: Lexer LToken
closeParen = char ')' $> LCloseParen closeParen = char ')' *> pure LCloseParen
openBracket :: Lexer LToken openBracket :: Lexer LToken
openBracket = char '[' $> LOpenBracket openBracket = char '[' *> pure LOpenBracket
closeBracket :: Lexer LToken closeBracket :: Lexer LToken
closeBracket = char ']' $> LCloseBracket closeBracket = char ']' *> pure LCloseBracket
lnewline :: Lexer LToken lnewline :: Lexer LToken
lnewline = char '\n' $> LNewline lnewline = char '\n' *> pure LNewline
sc :: Lexer () sc :: Lexer ()
sc = space sc = space
@ -122,22 +125,7 @@ integerLiteral = do
stringLiteral :: Lexer LToken stringLiteral :: Lexer LToken
stringLiteral = do stringLiteral = do
char '"' char '"'
content <- manyTill Lexer.charLiteral (char '"') content <- many (noneOf ['"'])
char '"' --"
return (LStringLiteral content) return (LStringLiteral content)
charLiteral :: Lexer Char
charLiteral = escapedChar <|> normalChar
where
normalChar = noneOf ['"', '\\']
escapedChar = do
void $ char '\\'
c <- oneOf ['n', 't', 'r', 'f', 'b', '\\', '"', '\'']
return $ case c of
'n' -> '\n'
't' -> '\t'
'r' -> '\r'
'f' -> '\f'
'b' -> '\b'
'\\' -> '\\'
'"' -> '"'
'\'' -> '\''

View File

@ -3,12 +3,12 @@ module Parser where
import Lexer import Lexer
import Research import Research
import Control.Monad (void) import Control.Monad (void)
import Control.Monad.State import Control.Monad.State
import Data.List.NonEmpty (toList) import Data.List.NonEmpty (toList)
import Data.Void (Void) import Data.Void (Void)
import Text.Megaparsec import Text.Megaparsec
import Text.Megaparsec.Error (ParseErrorBundle, errorBundlePretty) import Text.Megaparsec.Error (ParseErrorBundle, errorBundlePretty)
import qualified Data.Set as Set import qualified Data.Set as Set
data PState = PState data PState = PState
@ -130,6 +130,7 @@ parseFunctionM = do
parseLambdaM :: ParserM TricuAST parseLambdaM :: ParserM TricuAST
parseLambdaM = do parseLambdaM = do
let ident = (\case LIdentifier _ -> True; _ -> False) let ident = (\case LIdentifier _ -> True; _ -> False)
_ <- satisfyM (== LBackslash)
params <- some (satisfyM ident) params <- some (satisfyM ident)
_ <- satisfyM (== LColon) _ <- satisfyM (== LColon)
scnParserM scnParserM
@ -144,11 +145,11 @@ parseLambdaExpressionM = choice
parseAtomicLambdaM :: ParserM TricuAST parseAtomicLambdaM :: ParserM TricuAST
parseAtomicLambdaM = choice parseAtomicLambdaM = choice
[ try parseLambdaM [ parseVarM
, parseVarM
, parseTreeLeafM , parseTreeLeafM
, parseLiteralM , parseLiteralM
, parseListLiteralM , parseListLiteralM
, try parseLambdaM
, between (satisfyM (== LOpenParen)) (satisfyM (== LCloseParen)) parseLambdaExpressionM , between (satisfyM (== LOpenParen)) (satisfyM (== LCloseParen)) parseLambdaExpressionM
] ]
@ -204,8 +205,7 @@ parseTreeLeafOrParenthesizedM = choice
parseAtomicM :: ParserM TricuAST parseAtomicM :: ParserM TricuAST
parseAtomicM = choice parseAtomicM = choice
[ try parseLambdaM [ parseVarM
, parseVarM
, parseTreeLeafM , parseTreeLeafM
, parseListLiteralM , parseListLiteralM
, parseGroupedM , parseGroupedM

View File

@ -6,153 +6,68 @@ import Lexer
import Parser import Parser
import Research import Research
import Control.Exception (IOException, SomeException, catch import Control.Exception (SomeException, catch)
, displayException) import Control.Monad.IO.Class (liftIO)
import Control.Monad (forM_) import Control.Monad.Catch (handle, MonadCatch)
import Control.Monad.Catch (handle, MonadCatch) import Data.Char (isSpace)
import Control.Monad.IO.Class (liftIO) import Data.List ( dropWhile
import Control.Monad.Trans.Class (lift) , dropWhileEnd
import Control.Monad.Trans.Maybe (MaybeT(..), runMaybeT) , intercalate
import Data.Char (isSpace, isUpper) , isPrefixOf)
import Data.List (dropWhile, dropWhileEnd, isPrefixOf)
import Data.Version (showVersion)
import Paths_tricu (version)
import System.Console.Haskeline import System.Console.Haskeline
import qualified Data.Map as Map import qualified Data.Map as Map
import qualified Data.Text as T
import qualified Data.Text.IO as T
repl :: Env -> IO () repl :: Env -> IO ()
repl env = runInputT settings (withInterrupt (loop env Decode)) repl env = runInputT defaultSettings (withInterrupt (loop env True))
where where
settings :: Settings IO loop :: Env -> Bool -> InputT IO ()
settings = Settings loop env decode = handle (interruptHandler env decode) $ do
{ complete = completeWord Nothing " \t" completeCommands
, historyFile = Just "~/.local/state/tricu/history"
, autoAddHistory = True
}
completeCommands :: String -> IO [Completion]
completeCommands str = return $ map simpleCompletion $
filter (str `isPrefixOf`) commands
where
commands = [ "!exit"
, "!output"
, "!definitions"
, "!import"
, "!clear"
, "!save"
, "!reset"
, "!version"
]
loop :: Env -> EvaluatedForm -> InputT IO ()
loop env form = handle (interruptHandler env form) $ do
minput <- getInputLine "tricu < " minput <- getInputLine "tricu < "
case minput of case minput of
Nothing -> outputStrLn "Exiting tricu" Nothing -> outputStrLn "Exiting tricu"
Just s Just s
| strip s == "" -> loop env form | strip s == "" -> loop env decode
| strip s == "!exit" -> outputStrLn "Exiting tricu" | strip s == "!exit" -> outputStrLn "Exiting tricu"
| strip s == "!clear" -> do | strip s == "!decode" -> do
liftIO $ putStr "\ESC[2J\ESC[H" outputStrLn $ "Decoding " ++ (if decode then "disabled" else "enabled")
loop env form loop env (not decode)
| strip s == "!reset" -> do | "!import" `isPrefixOf` strip s -> do
outputStrLn "Environment reset to initial state" let afterImport = dropWhile (== ' ') $ drop (length ("!import" :: String)) (strip s)
loop Map.empty form if not (null afterImport)
| strip s == "!version" -> do then outputStrLn "Warning: REPL imports are interactive; \
outputStrLn $ "tricu version " ++ showVersion version \additional arguments are ignored."
loop env form else pure ()
| "!save" `isPrefixOf` strip s -> handleSave env form path <- getInputLine "File path to load < "
| strip s == "!output" -> handleOutput env form case path of
| strip s == "!definitions" -> do Nothing -> do
let defs = Map.keys $ Map.delete "!result" env outputStrLn "No input received; stopping import."
if null defs loop env decode
then outputStrLn "No definitions discovered." Just p -> do
else do loadedEnv <- liftIO $ evaluateFileWithContext env
outputStrLn "Available definitions:" (strip p) `catch` \e -> errorHandler env e
mapM_ outputStrLn defs loop (Map.delete "!result" (Map.union loadedEnv env)) decode
loop env form | take 2 s == "--" -> loop env decode
| "!import" `isPrefixOf` strip s -> handleImport env form
| take 2 s == "--" -> loop env form
| otherwise -> do | otherwise -> do
newEnv <- liftIO $ processInput env s form `catch` errorHandler env newEnv <- liftIO $ processInput env s decode `catch` errorHandler env
loop newEnv form loop newEnv decode
handleOutput :: Env -> EvaluatedForm -> InputT IO () interruptHandler :: Env -> Bool -> Interrupt -> InputT IO ()
handleOutput env currentForm = do interruptHandler env decode _ = do
let formats = [Decode, TreeCalculus, FSL, AST, Ternary, Ascii]
outputStrLn "Available output formats:"
mapM_ (\(i, f) -> outputStrLn $ show i ++ ". " ++ show f)
(zip [1..] formats)
result <- runMaybeT $ do
input <- MaybeT $ getInputLine "Select output format (1-6) < "
case reads input of
[(n, "")] | n >= 1 && n <= 6 ->
return $ formats !! (n-1)
_ -> MaybeT $ return Nothing
case result of
Nothing -> do
outputStrLn "Invalid selection. Keeping current output format."
loop env currentForm
Just newForm -> do
outputStrLn $ "Output format changed to: " ++ show newForm
loop env newForm
handleImport :: Env -> EvaluatedForm -> InputT IO ()
handleImport env form = do
res <- runMaybeT $ do
let fset = setComplete completeFilename defaultSettings
path <- MaybeT $ runInputT fset $
getInputLineWithInitial "File path to load < " ("", "")
text <- MaybeT $ liftIO $ handle (\e -> do
putStrLn $ "Error reading file: " ++ displayException (e :: IOException)
return Nothing
) $ Just <$> readFile (strip path)
case parseProgram (lexTricu text) of
Left err -> do
lift $ outputStrLn $ "Parse error: " ++ handleParseError err
MaybeT $ return Nothing
Right ast -> do
ns <- MaybeT $ runInputT defaultSettings $
getInputLineWithInitial "Namespace (or !Local for no namespace) < " ("", "")
let name = strip ns
if (name /= "!Local" && (null name || not (isUpper (head name)))) then do
lift $ outputStrLn "Namespace must start with an uppercase letter"
MaybeT $ return Nothing
else do
prog <- liftIO $ preprocessFile (strip path)
let code = case name of
"!Local" -> prog
_ -> nsDefinitions name prog
env' = evalTricu env code
return env'
case res of
Nothing -> do
outputStrLn "Import cancelled"
loop env form
Just env' ->
loop (Map.delete "!result" env') form
interruptHandler :: Env -> EvaluatedForm -> Interrupt -> InputT IO ()
interruptHandler env form _ = do
outputStrLn "Interrupted with CTRL+C\n\ outputStrLn "Interrupted with CTRL+C\n\
\You can use the !exit command or CTRL+D to exit" \You can use the !exit command or CTRL+D to exit"
loop env form loop env decode
processInput :: Env -> String -> EvaluatedForm -> IO Env processInput :: Env -> String -> Bool -> IO Env
processInput env input form = do processInput env input decode = do
let asts = parseTricu input let asts = parseTricu input
newEnv = evalTricu env asts newEnv = evalTricu env asts
case Map.lookup "!result" newEnv of case Map.lookup "!result" newEnv of
Just r -> do Just r -> do
putStrLn $ "tricu > " ++ formatResult form r putStrLn $ "tricu > " ++
if decode
then decodeResult r
else show r
Nothing -> pure () Nothing -> pure ()
return newEnv return newEnv
@ -163,28 +78,3 @@ repl env = runInputT settings (withInterrupt (loop env Decode))
strip :: String -> String strip :: String -> String
strip = dropWhileEnd isSpace . dropWhile isSpace strip = dropWhileEnd isSpace . dropWhile isSpace
handleSave :: Env -> EvaluatedForm -> InputT IO ()
handleSave env form = do
let fset = setComplete completeFilename defaultSettings
path <- runInputT fset $
getInputLineWithInitial "File to save < " ("", "")
case path of
Nothing -> do
outputStrLn "Save cancelled"
loop env form
Just p -> do
let definitions = Map.toList $ Map.delete "!result" env
filepath = strip p
outputStrLn "Starting save..."
liftIO $ writeFile filepath ""
outputStrLn "File created..."
forM_ definitions $ \(name, value) -> do
let content = name ++ " = " ++ formatResult TreeCalculus value ++ "\n"
outputStrLn $ "Writing definition: " ++ name ++ " with length " ++ show (length content)
liftIO $ appendFile filepath content
outputStrLn $ "Saved " ++ show (length definitions) ++ " definitions to " ++ p
loop env form

View File

@ -1,5 +1,6 @@
module Research where module Research where
import Control.Monad.State
import Data.List (intercalate) import Data.List (intercalate)
import Data.Map (Map) import Data.Map (Map)
import Data.Text (Text, replace) import Data.Text (Text, replace)
@ -38,6 +39,7 @@ data LToken
| LAssign | LAssign
| LColon | LColon
| LDot | LDot
| LBackslash
| LOpenParen | LOpenParen
| LCloseParen | LCloseParen
| LOpenBracket | LOpenBracket
@ -53,24 +55,15 @@ data EvaluatedForm = TreeCalculus | FSL | AST | Ternary | Ascii | Decode
-- Environment containing previously evaluated TC terms -- Environment containing previously evaluated TC terms
type Env = Map.Map String T type Env = Map.Map String T
-- Tree Calculus Reduction Rules -- Tree Calculus Reduction
{-
The t operator is left associative.
1. t t a b -> a
2. t (t a) b c -> a c (b c)
3a. t (t a b) c t -> a
3b. t (t a b) c (t u) -> b u
3c. t (t a b) c (t u v) -> c u v
-}
apply :: T -> T -> T apply :: T -> T -> T
apply (Fork Leaf a) _ = a apply Leaf b = Stem b
apply (Fork (Stem a) b) c = apply (apply a c) (apply b c) apply (Stem a) b = Fork a b
apply (Fork (Fork a b) c) Leaf = a apply (Fork Leaf a) _ = a
apply (Fork (Fork a b) c) (Stem u) = apply b u apply (Fork (Stem a1) a2) b = apply (apply a1 b) (apply a2 b)
apply (Fork (Fork a b) c) (Fork u v) = apply (apply c u) v apply (Fork (Fork a1 a2) a3) Leaf = a1
-- Left associative `t` apply (Fork (Fork a1 a2) a3) (Stem u) = apply a2 u
apply Leaf b = Stem b apply (Fork (Fork a1 a2) a3) (Fork u v) = apply (apply a3 u) v
apply (Stem a) b = Fork a b
-- Booleans -- Booleans
_false :: T _false :: T
@ -84,7 +77,7 @@ _not = Fork (Fork _true (Fork Leaf _false)) Leaf
-- Marshalling -- Marshalling
ofString :: String -> T ofString :: String -> T
ofString str = ofList $ map (ofNumber . fromEnum) str ofString str = ofList (map ofNumber (map fromEnum str))
ofNumber :: Int -> T ofNumber :: Int -> T
ofNumber 0 = Leaf ofNumber 0 = Leaf
@ -94,7 +87,8 @@ ofNumber n =
(ofNumber (n `div` 2)) (ofNumber (n `div` 2))
ofList :: [T] -> T ofList :: [T] -> T
ofList = foldr Fork Leaf ofList [] = Leaf
ofList (x:xs) = Fork x (ofList xs)
toNumber :: T -> Either String Int toNumber :: T -> Either String Int
toNumber Leaf = Right 0 toNumber Leaf = Right 0
@ -132,7 +126,7 @@ toSimpleT s = T.unpack
$ replace "Fork" "t" $ replace "Fork" "t"
$ replace "Stem" "t" $ replace "Stem" "t"
$ replace "Leaf" "t" $ replace "Leaf" "t"
$ T.pack s $ (T.pack s)
toTernaryString :: T -> String toTernaryString :: T -> String
toTernaryString Leaf = "0" toTernaryString Leaf = "0"
@ -159,18 +153,8 @@ toAscii tree = go tree "" True
++ go right (prefix ++ (if isLast then " " else "| ")) True ++ go right (prefix ++ (if isLast then " " else "| ")) True
decodeResult :: T -> String decodeResult :: T -> String
decodeResult Leaf = "t" decodeResult tc
decodeResult tc = | Right num <- toNumber tc = show num
case (toString tc, toList tc, toNumber tc) of | Right str <- toString tc = "\"" ++ str ++ "\""
(Right s, _, _) | all isCommonChar s -> "\"" ++ s ++ "\"" | Right list <- toList tc = "[" ++ intercalate ", " (map decodeResult list) ++ "]"
(_, _, Right n) -> show n | otherwise = formatResult TreeCalculus tc
(_, Right xs@(_:_), _) -> "[" ++ intercalate ", " (map decodeResult xs) ++ "]"
(_, Right [], _) -> "[]"
_ -> formatResult TreeCalculus tc
where
isCommonChar c =
let n = fromEnum c
in (n >= 32 && n <= 126)
|| n == 9
|| n == 10
|| n == 13

View File

@ -30,11 +30,10 @@ tests = testGroup "Tricu Tests"
, parser , parser
, simpleEvaluation , simpleEvaluation
, lambdas , lambdas
, providedLibraries , baseLibrary
, fileEval , fileEval
, modules , modules
, demos , demos
, decoding
] ]
lexer :: TestTree lexer :: TestTree
@ -51,22 +50,7 @@ lexer = testGroup "Lexer Tests"
, testCase "Lex escaped characters in strings" $ do , testCase "Lex escaped characters in strings" $ do
let input = "\"hello\\nworld\"" let input = "\"hello\\nworld\""
expect = Right [LStringLiteral "hello\nworld"] expect = Right [LStringLiteral "hello\\nworld"]
runParser tricuLexer "" input @?= expect
, testCase "Lex multiple escaped characters in strings" $ do
let input = "\"tab:\\t newline:\\n quote:\\\" backslash:\\\\\""
expect = Right [LStringLiteral "tab:\t newline:\n quote:\" backslash:\\"]
runParser tricuLexer "" input @?= expect
, testCase "Lex escaped characters in string literals" $ do
let input = "x = \"line1\\nline2\\tindented\""
expect = Right [LIdentifier "x", LAssign, LStringLiteral "line1\nline2\tindented"]
runParser tricuLexer "" input @?= expect
, testCase "Lex empty string with escape sequence" $ do
let input = "\"\\\"\""
expect = Right [LStringLiteral "\""]
runParser tricuLexer "" input @?= expect runParser tricuLexer "" input @?= expect
, testCase "Lex mixed literals" $ do , testCase "Lex mixed literals" $ do
@ -102,7 +86,7 @@ parser = testGroup "Parser Tests"
Right _ -> assertFailure "Expected failure when trying to assign the value of T" Right _ -> assertFailure "Expected failure when trying to assign the value of T"
, testCase "Parse function definitions" $ do , testCase "Parse function definitions" $ do
let input = "x = (a b c : a)" let input = "x = (\\a b c : a)"
expect = SDef "x" [] (SLambda ["a"] (SLambda ["b"] (SLambda ["c"] (SVar "a")))) expect = SDef "x" [] (SLambda ["a"] (SLambda ["b"] (SLambda ["c"] (SVar "a"))))
parseSingle input @?= expect parseSingle input @?= expect
@ -122,7 +106,7 @@ parser = testGroup "Parser Tests"
parseSingle input @?= expect parseSingle input @?= expect
, testCase "Parse function with applications" $ do , testCase "Parse function with applications" $ do
let input = "f = (x : t x)" let input = "f = (\\x : t x)"
expect = SDef "f" [] (SLambda ["x"] (SApp TLeaf (SVar "x"))) expect = SDef "f" [] (SLambda ["x"] (SApp TLeaf (SVar "x")))
parseSingle input @?= expect parseSingle input @?= expect
@ -164,22 +148,22 @@ parser = testGroup "Parser Tests"
parseSingle input @?= expect parseSingle input @?= expect
, testCase "Parse nested parentheses in function body" $ do , testCase "Parse nested parentheses in function body" $ do
let input = "f = (x : t (t (t t)))" let input = "f = (\\x : t (t (t t)))"
expect = SDef "f" [] (SLambda ["x"] (SApp TLeaf (SApp TLeaf (SApp TLeaf TLeaf)))) expect = SDef "f" [] (SLambda ["x"] (SApp TLeaf (SApp TLeaf (SApp TLeaf TLeaf))))
parseSingle input @?= expect parseSingle input @?= expect
, testCase "Parse lambda abstractions" $ do , testCase "Parse lambda abstractions" $ do
let input = "(a : a)" let input = "(\\a : a)"
expect = (SLambda ["a"] (SVar "a")) expect = (SLambda ["a"] (SVar "a"))
parseSingle input @?= expect parseSingle input @?= expect
, testCase "Parse multiple arguments to lambda abstractions" $ do , testCase "Parse multiple arguments to lambda abstractions" $ do
let input = "x = (a b : a)" let input = "x = (\\a b : a)"
expect = SDef "x" [] (SLambda ["a"] (SLambda ["b"] (SVar "a"))) expect = SDef "x" [] (SLambda ["a"] (SLambda ["b"] (SVar "a")))
parseSingle input @?= expect parseSingle input @?= expect
, testCase "Grouping T terms with parentheses in function application" $ do , testCase "Grouping T terms with parentheses in function application" $ do
let input = "x = (a : a)\nx (t)" let input = "x = (\\a : a)\nx (t)"
expect = [SDef "x" [] (SLambda ["a"] (SVar "a")),SApp (SVar "x") TLeaf] expect = [SDef "x" [] (SLambda ["a"] (SVar "a")),SApp (SVar "x") TLeaf]
parseTricu input @?= expect parseTricu input @?= expect
@ -274,7 +258,7 @@ simpleEvaluation = testGroup "Evaluation Tests"
, testCase "Apply identity to Boolean Not" $ do , testCase "Apply identity to Boolean Not" $ do
let not = "(t (t (t t) (t t t)) t)" let not = "(t (t (t t) (t t t)) t)"
let input = "x = (a : a)\nx " ++ not let input = "x = (\\a : a)\nx " ++ not
env = evalTricu Map.empty (parseTricu input) env = evalTricu Map.empty (parseTricu input)
result env @?= Fork (Fork (Stem Leaf) (Fork Leaf Leaf)) Leaf result env @?= Fork (Fork (Stem Leaf) (Fork Leaf Leaf)) Leaf
] ]
@ -282,182 +266,214 @@ simpleEvaluation = testGroup "Evaluation Tests"
lambdas :: TestTree lambdas :: TestTree
lambdas = testGroup "Lambda Evaluation Tests" lambdas = testGroup "Lambda Evaluation Tests"
[ testCase "Lambda Identity Function" $ do [ testCase "Lambda Identity Function" $ do
let input = "id = (x : x)\nid t" let input = "id = (\\x : x)\nid t"
runTricu input @?= "Leaf" runTricu input @?= "Leaf"
, testCase "Lambda Constant Function (K combinator)" $ do , testCase "Lambda Constant Function (K combinator)" $ do
let input = "k = (x y : x)\nk t (t t)" let input = "k = (\\x y : x)\nk t (t t)"
runTricu input @?= "Leaf" runTricu input @?= "Leaf"
, testCase "Lambda Application with Variable" $ do , testCase "Lambda Application with Variable" $ do
let input = "id = (x : x)\nval = t t\nid val" let input = "id = (\\x : x)\nval = t t\nid val"
runTricu input @?= "Stem Leaf" runTricu input @?= "Stem Leaf"
, testCase "Lambda Application with Multiple Arguments" $ do , testCase "Lambda Application with Multiple Arguments" $ do
let input = "apply = (f x y : f x y)\nk = (a b : a)\napply k t (t t)" let input = "apply = (\\f x y : f x y)\nk = (\\a b : a)\napply k t (t t)"
runTricu input @?= "Leaf" runTricu input @?= "Leaf"
, testCase "Nested Lambda Application" $ do , testCase "Nested Lambda Application" $ do
let input = "apply = (f x y : f x y)\nid = (x : x)\napply (f x : f x) id t" let input = "apply = (\\f x y : f x y)\nid = (\\x : x)\napply (\\f x : f x) id t"
runTricu input @?= "Leaf" runTricu input @?= "Leaf"
, testCase "Lambda with a complex body" $ do , testCase "Lambda with a complex body" $ do
let input = "f = (x : t (t x))\nf t" let input = "f = (\\x : t (t x))\nf t"
runTricu input @?= "Stem (Stem Leaf)" runTricu input @?= "Stem (Stem Leaf)"
, testCase "Lambda returning a function" $ do , testCase "Lambda returning a function" $ do
let input = "f = (x : (y : x))\ng = f t\ng (t t)" let input = "f = (\\x : (\\y : x))\ng = f t\ng (t t)"
runTricu input @?= "Leaf" runTricu input @?= "Leaf"
, testCase "Lambda with Shadowing" $ do , testCase "Lambda with Shadowing" $ do
let input = "f = (x : (x : x))\nf t (t t)" let input = "f = (\\x : (\\x : x))\nf t (t t)"
runTricu input @?= "Stem Leaf" runTricu input @?= "Stem Leaf"
, testCase "Lambda returning another lambda" $ do , testCase "Lambda returning another lambda" $ do
let input = "k = (x : (y : x))\nk_app = k t\nk_app (t t)" let input = "k = (\\x : (\\y : x))\nk_app = k t\nk_app (t t)"
runTricu input @?= "Leaf" runTricu input @?= "Leaf"
, testCase "Lambda with free variables" $ do , testCase "Lambda with free variables" $ do
let input = "y = t t\nf = (x : y)\nf t" let input = "y = t t\nf = (\\x : y)\nf t"
runTricu input @?= "Stem Leaf" runTricu input @?= "Stem Leaf"
, testCase "SKI Composition" $ do , testCase "SKI Composition" $ do
let input = "s = (x y z : x z (y z))\nk = (x y : x)\ni = (x : x)\ncomp = s k i\ncomp t (t t)" let input = "s = (\\x y z : x z (y z))\nk = (\\x y : x)\ni = (\\x : x)\ncomp = s k i\ncomp t (t t)"
runTricu input @?= "Stem (Stem Leaf)" runTricu input @?= "Stem (Stem Leaf)"
, testCase "Lambda with multiple parameters and application" $ do , testCase "Lambda with multiple parameters and application" $ do
let input = "f = (a b c : t a b c)\nf t (t t) (t t t)" let input = "f = (\\a b c : t a b c)\nf t (t t) (t t t)"
runTricu input @?= "Stem Leaf" runTricu input @?= "Stem Leaf"
, testCase "Lambda with nested application in the body" $ do , testCase "Lambda with nested application in the body" $ do
let input = "f = (x : t (t (t x)))\nf t" let input = "f = (\\x : t (t (t x)))\nf t"
runTricu input @?= "Stem (Stem (Stem Leaf))" runTricu input @?= "Stem (Stem (Stem Leaf))"
, testCase "Lambda returning a function and applying it" $ do , testCase "Lambda returning a function and applying it" $ do
let input = "f = (x : (y : t x y))\ng = f t\ng (t t)" let input = "f = (\\x : (\\y : t x y))\ng = f t\ng (t t)"
runTricu input @?= "Fork Leaf (Stem Leaf)" runTricu input @?= "Fork Leaf (Stem Leaf)"
, testCase "Lambda applying a variable" $ do , testCase "Lambda applying a variable" $ do
let input = "id = (x : x)\na = t t\nid a" let input = "id = (\\x : x)\na = t t\nid a"
runTricu input @?= "Stem Leaf" runTricu input @?= "Stem Leaf"
, testCase "Nested lambda abstractions in the same expression" $ do , testCase "Nested lambda abstractions in the same expression" $ do
let input = "f = (x : (y : x y))\ng = (z : z)\nf g t" let input = "f = (\\x : (\\y : x y))\ng = (\\z : z)\nf g t"
runTricu input @?= "Leaf" runTricu input @?= "Leaf"
, testCase "Lambda applied to string literal" $ do , testCase "Lambda with a string literal" $ do
let input = "f = (x : x)\nf \"hello\"" let input = "f = (\\x : x)\nf \"hello\""
runTricu input @?= "Fork (Fork Leaf (Fork Leaf (Fork Leaf (Fork (Stem Leaf) (Fork Leaf (Fork (Stem Leaf) (Fork (Stem Leaf) Leaf))))))) (Fork (Fork (Stem Leaf) (Fork Leaf (Fork (Stem Leaf) (Fork Leaf (Fork Leaf (Fork (Stem Leaf) (Fork (Stem Leaf) Leaf))))))) (Fork (Fork Leaf (Fork Leaf (Fork (Stem Leaf) (Fork (Stem Leaf) (Fork Leaf (Fork (Stem Leaf) (Fork (Stem Leaf) Leaf))))))) (Fork (Fork Leaf (Fork Leaf (Fork (Stem Leaf) (Fork (Stem Leaf) (Fork Leaf (Fork (Stem Leaf) (Fork (Stem Leaf) Leaf))))))) (Fork (Fork (Stem Leaf) (Fork (Stem Leaf) (Fork (Stem Leaf) (Fork (Stem Leaf) (Fork Leaf (Fork (Stem Leaf) (Fork (Stem Leaf) Leaf))))))) Leaf))))" runTricu input @?= "Fork (Fork Leaf (Fork Leaf (Fork Leaf (Fork (Stem Leaf) (Fork Leaf (Fork (Stem Leaf) (Fork (Stem Leaf) Leaf))))))) (Fork (Fork (Stem Leaf) (Fork Leaf (Fork (Stem Leaf) (Fork Leaf (Fork Leaf (Fork (Stem Leaf) (Fork (Stem Leaf) Leaf))))))) (Fork (Fork Leaf (Fork Leaf (Fork (Stem Leaf) (Fork (Stem Leaf) (Fork Leaf (Fork (Stem Leaf) (Fork (Stem Leaf) Leaf))))))) (Fork (Fork Leaf (Fork Leaf (Fork (Stem Leaf) (Fork (Stem Leaf) (Fork Leaf (Fork (Stem Leaf) (Fork (Stem Leaf) Leaf))))))) (Fork (Fork (Stem Leaf) (Fork (Stem Leaf) (Fork (Stem Leaf) (Fork (Stem Leaf) (Fork Leaf (Fork (Stem Leaf) (Fork (Stem Leaf) Leaf))))))) Leaf))))"
, testCase "Lambda applied to integer literal" $ do , testCase "Lambda with an integer literal" $ do
let input = "f = (x : x)\nf 42" let input = "f = (\\x : x)\nf 42"
runTricu input @?= "Fork Leaf (Fork (Stem Leaf) (Fork Leaf (Fork (Stem Leaf) (Fork Leaf (Fork (Stem Leaf) Leaf)))))" runTricu input @?= "Fork Leaf (Fork (Stem Leaf) (Fork Leaf (Fork (Stem Leaf) (Fork Leaf (Fork (Stem Leaf) Leaf)))))"
, testCase "Lambda applied to list literal" $ do , testCase "Lambda with a list literal" $ do
let input = "f = (x : x)\nf [t (t t)]" let input = "f = (\\x : x)\nf [t (t t)]"
runTricu input @?= "Fork Leaf (Fork (Stem Leaf) Leaf)" runTricu input @?= "Fork Leaf (Fork (Stem Leaf) Leaf)"
, testCase "Lambda containing list literal" $ do
let input = "(a : [(a)]) 1"
runTricu input @?= "Fork (Fork (Stem Leaf) Leaf) Leaf"
] ]
providedLibraries :: TestTree baseLibrary :: TestTree
providedLibraries = testGroup "Library Tests" baseLibrary = testGroup "Library Tests"
[ testCase "Triage test Leaf" $ do [ testCase "K combinator 1" $ do
library <- evaluateFile "./lib/list.tri" library <- evaluateFile "./lib/base.tri"
let input = "k (t) (t t)"
env = evalTricu library (parseTricu input)
result env @?= Leaf
, testCase "K combinator 2" $ do
library <- evaluateFile "./lib/base.tri"
let input = "k (t t) (t)"
env = evalTricu library (parseTricu input)
result env @?= Stem Leaf
, testCase "K combinator 3" $ do
library <- evaluateFile "./lib/base.tri"
let input = "k (t t t) (t)"
env = evalTricu library (parseTricu input)
result env @?= Fork Leaf Leaf
, testCase "S combinator" $ do
library <- evaluateFile "./lib/base.tri"
let input = "s (t) (t) (t)"
env = evalTricu library (parseTricu input)
result env @?= Fork Leaf (Stem Leaf)
, testCase "SKK == I (fully expanded)" $ do
library <- evaluateFile "./lib/base.tri"
let input = "s k k"
env = evalTricu library (parseTricu input)
result env @?= Fork (Stem (Stem Leaf)) (Stem Leaf)
, testCase "I combinator" $ do
library <- evaluateFile "./lib/base.tri"
let input = "i not?"
env = evalTricu library (parseTricu input)
result env @?= Fork (Fork (Stem Leaf) (Fork Leaf Leaf)) (Fork Leaf (Fork Leaf Leaf))
, testCase "Triage test Leaf" $ do
library <- evaluateFile "./lib/base.tri"
let input = "test t" let input = "test t"
env = decodeResult $ result $ evalTricu library (parseTricu input) env = decodeResult $ result $ evalTricu library (parseTricu input)
env @?= "\"Leaf\"" env @?= "\"Leaf\""
, testCase "Triage test (Stem Leaf)" $ do , testCase "Triage test (Stem Leaf)" $ do
library <- evaluateFile "./lib/list.tri" library <- evaluateFile "./lib/base.tri"
let input = "test (t t)" let input = "test (t t)"
env = decodeResult $ result $ evalTricu library (parseTricu input) env = decodeResult $ result $ evalTricu library (parseTricu input)
env @?= "\"Stem\"" env @?= "\"Stem\""
, testCase "Triage test (Fork Leaf Leaf)" $ do , testCase "Triage test (Fork Leaf Leaf)" $ do
library <- evaluateFile "./lib/list.tri" library <- evaluateFile "./lib/base.tri"
let input = "test (t t t)" let input = "test (t t t)"
env = decodeResult $ result $ evalTricu library (parseTricu input) env = decodeResult $ result $ evalTricu library (parseTricu input)
env @?= "\"Fork\"" env @?= "\"Fork\""
, testCase "Boolean NOT: true" $ do , testCase "Boolean NOT: true" $ do
library <- evaluateFile "./lib/list.tri" library <- evaluateFile "./lib/base.tri"
let input = "not? true" let input = "not? true"
env = result $ evalTricu library (parseTricu input) env = result $ evalTricu library (parseTricu input)
env @?= Leaf env @?= Leaf
, testCase "Boolean NOT: false" $ do , testCase "Boolean NOT: false" $ do
library <- evaluateFile "./lib/list.tri" library <- evaluateFile "./lib/base.tri"
let input = "not? false" let input = "not? false"
env = result $ evalTricu library (parseTricu input) env = result $ evalTricu library (parseTricu input)
env @?= Stem Leaf env @?= Stem Leaf
, testCase "Boolean AND TF" $ do , testCase "Boolean AND TF" $ do
library <- evaluateFile "./lib/list.tri" library <- evaluateFile "./lib/base.tri"
let input = "and? (t t) (t)" let input = "and? (t t) (t)"
env = evalTricu library (parseTricu input) env = evalTricu library (parseTricu input)
result env @?= Leaf result env @?= Leaf
, testCase "Boolean AND FT" $ do , testCase "Boolean AND FT" $ do
library <- evaluateFile "./lib/list.tri" library <- evaluateFile "./lib/base.tri"
let input = "and? (t) (t t)" let input = "and? (t) (t t)"
env = evalTricu library (parseTricu input) env = evalTricu library (parseTricu input)
result env @?= Leaf result env @?= Leaf
, testCase "Boolean AND FF" $ do , testCase "Boolean AND FF" $ do
library <- evaluateFile "./lib/list.tri" library <- evaluateFile "./lib/base.tri"
let input = "and? (t) (t)" let input = "and? (t) (t)"
env = evalTricu library (parseTricu input) env = evalTricu library (parseTricu input)
result env @?= Leaf result env @?= Leaf
, testCase "Boolean AND TT" $ do , testCase "Boolean AND TT" $ do
library <- evaluateFile "./lib/list.tri" library <- evaluateFile "./lib/base.tri"
let input = "and? (t t) (t t)" let input = "and? (t t) (t t)"
env = evalTricu library (parseTricu input) env = evalTricu library (parseTricu input)
result env @?= Stem Leaf result env @?= Stem Leaf
, testCase "List head" $ do , testCase "List head" $ do
library <- evaluateFile "./lib/list.tri" library <- evaluateFile "./lib/base.tri"
let input = "head [(t) (t t) (t t t)]" let input = "head [(t) (t t) (t t t)]"
env = evalTricu library (parseTricu input) env = evalTricu library (parseTricu input)
result env @?= Leaf result env @?= Leaf
, testCase "List tail" $ do , testCase "List tail" $ do
library <- evaluateFile "./lib/list.tri" library <- evaluateFile "./lib/base.tri"
let input = "head (tail (tail [(t) (t t) (t t t)]))" let input = "head (tail (tail [(t) (t t) (t t t)]))"
env = evalTricu library (parseTricu input) env = evalTricu library (parseTricu input)
result env @?= Fork Leaf Leaf result env @?= Fork Leaf Leaf
, testCase "List map" $ do , testCase "List map" $ do
library <- evaluateFile "./lib/list.tri" library <- evaluateFile "./lib/base.tri"
let input = "head (tail (map (a : (t t t)) [(t) (t) (t)]))" let input = "head (tail (map (\\a : (t t t)) [(t) (t) (t)]))"
env = evalTricu library (parseTricu input) env = evalTricu library (parseTricu input)
result env @?= Fork Leaf Leaf result env @?= Fork Leaf Leaf
, testCase "Empty list check" $ do , testCase "Empty list check" $ do
library <- evaluateFile "./lib/list.tri" library <- evaluateFile "./lib/base.tri"
let input = "emptyList? []" let input = "emptyList? []"
env = evalTricu library (parseTricu input) env = evalTricu library (parseTricu input)
result env @?= Stem Leaf result env @?= Stem Leaf
, testCase "Non-empty list check" $ do , testCase "Non-empty list check" $ do
library <- evaluateFile "./lib/list.tri" library <- evaluateFile "./lib/base.tri"
let input = "not? (emptyList? [(1) (2) (3)])" let input = "not? (emptyList? [(1) (2) (3)])"
env = evalTricu library (parseTricu input) env = evalTricu library (parseTricu input)
result env @?= Stem Leaf result env @?= Stem Leaf
, testCase "Concatenate strings" $ do , testCase "Concatenate strings" $ do
library <- evaluateFile "./lib/list.tri" library <- evaluateFile "./lib/base.tri"
let input = "append \"Hello, \" \"world!\"" let input = "append \"Hello, \" \"world!\""
env = decodeResult $ result $ evalTricu library (parseTricu input) env = decodeResult $ result $ evalTricu library (parseTricu input)
env @?= "\"Hello, world!\"" env @?= "\"Hello, world!\""
, testCase "Verifying Equality" $ do , testCase "Verifying Equality" $ do
library <- evaluateFile "./lib/list.tri" library <- evaluateFile "./lib/base.tri"
let input = "equal? (t t t) (t t t)" let input = "equal? (t t t) (t t t)"
env = evalTricu library (parseTricu input) env = evalTricu library (parseTricu input)
result env @?= Stem Leaf result env @?= Stem Leaf
@ -474,12 +490,12 @@ fileEval = testGroup "File evaluation tests"
res @?= Fork (Stem Leaf) Leaf res @?= Fork (Stem Leaf) Leaf
, testCase "Mapping and Equality" $ do , testCase "Mapping and Equality" $ do
library <- liftIO $ evaluateFile "./lib/list.tri" library <- liftIO $ evaluateFile "./lib/base.tri"
fEnv <- liftIO $ evaluateFileWithContext library "./test/map.tri" fEnv <- liftIO $ evaluateFileWithContext library "./test/map.tri"
(mainResult fEnv) @?= Stem Leaf (mainResult fEnv) @?= Stem Leaf
, testCase "Eval and decoding string" $ do , testCase "Eval and decoding string" $ do
library <- liftIO $ evaluateFile "./lib/list.tri" library <- liftIO $ evaluateFile "./lib/base.tri"
res <- liftIO $ evaluateFileWithContext library "./test/string.tri" res <- liftIO $ evaluateFileWithContext library "./test/string.tri"
decodeResult (result res) @?= "\"String test!\"" decodeResult (result res) @?= "\"String test!\""
] ]
@ -538,35 +554,3 @@ demos = testGroup "Test provided demo functionality"
res <- liftIO $ evaluateFileResult "./demos/levelOrderTraversal.tri" res <- liftIO $ evaluateFileResult "./demos/levelOrderTraversal.tri"
decodeResult res @?= "\"\n1 \n2 3 \n4 5 6 7 \n8 11 10 9 12 \"" decodeResult res @?= "\"\n1 \n2 3 \n4 5 6 7 \n8 11 10 9 12 \""
] ]
decoding :: TestTree
decoding = testGroup "Decoding Tests"
[ testCase "Decode Leaf" $ do
decodeResult Leaf @?= "t"
, testCase "Decode list of non-ASCII numbers" $ do
let input = ofList [ofNumber 1, ofNumber 14, ofNumber 6]
decodeResult input @?= "[1, 14, 6]"
, testCase "Decode list of ASCII numbers as a string" $ do
let input = ofList [ofNumber 97, ofNumber 98, ofNumber 99]
decodeResult input @?= "\"abc\""
, testCase "Decode small number" $ do
decodeResult (ofNumber 42) @?= "42"
, testCase "Decode large number" $ do
decodeResult (ofNumber 9999) @?= "9999"
, testCase "Decode string in list" $ do
let input = ofList [ofString "hello", ofString "world"]
decodeResult input @?= "[\"hello\", \"world\"]"
, testCase "Decode mixed list with strings" $ do
let input = ofList [ofString "hello", ofNumber 42, ofString "world"]
decodeResult input @?= "[\"hello\", 42, \"world\"]"
, testCase "Decode nested lists with strings" $ do
let input = ofList [ofList [ofString "nested"], ofString "string"]
decodeResult input @?= "[[\"nested\"], \"string\"]"
]

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@ -1,9 +1,9 @@
-- This is a tricu comment! -- This is a tricu comment!
-- t (t t) (t (t t t)) -- t (t t) (t (t t t))
-- t (t t t) (t t) -- t (t t t) (t t)
-- x = (a : a) -- x = (\a : a)
main = t (t t) t -- Fork (Stem Leaf) Leaf main = t (t t) t -- Fork (Stem Leaf) Leaf
-- t t -- t t
-- x -- x
-- x = (a : a) -- x = (\a : a)
-- t -- t

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@ -1,4 +1,4 @@
!import "cycle-2.tri" Cycle2 !import "test/cycle-2.tri" Cycle2
cycle1 = t Cycle2.cycle2 cycle1 = t Cycle2.cycle2

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@ -1,4 +1,4 @@
!import "cycle-1.tri" Cycle1 !import "test/cycle-1.tri" Cycle1
cycle2 = t Cycle1.cycle1 cycle2 = t Cycle1.cycle1

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@ -1 +1 @@
main = (x : x) t main = (\x : x) t

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@ -1,4 +1,4 @@
!import "2.tri" Two !import "test/local-ns/2.tri" Two
main = Two.x main = Two.x

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@ -1,2 +1,2 @@
!import "3.tri" !Local !import "test/local-ns/3.tri" !Local

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@ -1 +1,2 @@
x = 3 x = 3

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@ -1,2 +1,2 @@
x = map (i : append "Successfully concatenated " i) [("two strings!")] x = map (\i : append "Successfully concatenated " i) [("two strings!")]
main = equal? x [("Successfully concatenated two strings!")] main = equal? x [("Successfully concatenated two strings!")]

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@ -1,2 +1,2 @@
!import "multi-level-B.tri" B !import "./test/multi-level-B.tri" B
main = B.main main = B.main

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@ -1,2 +1,2 @@
!import "multi-level-C.tri" C !import "./test/multi-level-C.tri" C
main = C.val main = C.val

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@ -1,2 +1,2 @@
!import "namespace-B.tri" B !import "./test/namespace-B.tri" B
main = B.x main = B.x

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@ -1,21 +1,21 @@
compose = f g x : f (g x) compose = \f g x : f (g x)
succ = y (self : succ = y (\self :
triage triage
1 1
t t
(triage (triage
(t (t t)) (t (t t))
(_ tail : t t (self tail)) (\_ tail : t t (self tail))
t)) t))
size = (x : size = (\x :
(y (self x : (y (\self x :
compose succ compose succ
(triage (triage
(x : x) (\x : x)
self self
(x y : compose (self x) (self y)) (\x y : compose (self x) (self y))
x)) x 0)) x)) x 0))
size size size size

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@ -1 +1 @@
head (map (i : append "String " i) [("test!")]) head (map (\i : append "String " i) [("test!")])

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@ -1,6 +1,6 @@
!import "vars-B.tri" B !import "./test/vars-B.tri" B
!import "vars-C.tri" C !import "./test/vars-C.tri" C
main = B.y (C.z) main = B.y (C.z)

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@ -1 +1 @@
y = x : x y = \x : x

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@ -1,7 +1,7 @@
cabal-version: 1.12 cabal-version: 1.12
name: tricu name: tricu
version: 0.18.1 version: 0.13.0
description: A micro-language for exploring Tree Calculus description: A micro-language for exploring Tree Calculus
author: James Eversole author: James Eversole
maintainer: james@eversole.co maintainer: james@eversole.co
@ -27,12 +27,10 @@ executable tricu
, cmdargs , cmdargs
, containers , containers
, exceptions , exceptions
, filepath
, haskeline , haskeline
, megaparsec , megaparsec
, mtl , mtl
, text , text
, transformers
other-modules: other-modules:
Eval Eval
FileEval FileEval
@ -56,7 +54,6 @@ test-suite tricu-tests
, cmdargs , cmdargs
, containers , containers
, exceptions , exceptions
, filepath
, haskeline , haskeline
, megaparsec , megaparsec
, mtl , mtl
@ -64,7 +61,6 @@ test-suite tricu-tests
, tasty-hunit , tasty-hunit
, tasty-quickcheck , tasty-quickcheck
, text , text
, transformers
default-language: Haskell2010 default-language: Haskell2010
other-modules: other-modules:
Eval Eval