module Cli.Compiler (
LoadedTests(..),
ModuleSpec(..),
compileModule,
createModuleTemplates,
runModuleTests,
) where
import Control.Monad (foldM,when)
import Data.Either (partitionEithers)
import Data.List (isSuffixOf,nub,sort)
import System.Directory
import System.Exit
import System.FilePath
import System.Posix.Temp (mkstemps)
import System.IO
import Text.Parsec (SourcePos)
import qualified Data.Set as Set
import Base.CompileError
import Cli.CompileMetadata
import Cli.CompileOptions
import Cli.ProcessMetadata
import Cli.TestRunner
import Compilation.CompileInfo
import CompilerCxx.Category
import CompilerCxx.Naming
import Config.LoadConfig
import Config.Paths
import Config.Programs
import Parser.SourceFile
import Types.Builtin
import Types.DefinedCategory
import Types.Pragma
import Types.TypeCategory
import Types.TypeInstance
data ModuleSpec =
ModuleSpec {
msRoot :: FilePath,
msPath :: FilePath,
msPublicDeps :: [FilePath],
msPrivateDeps :: [FilePath],
msPublicFiles :: [FilePath],
msPrivateFiles :: [FilePath],
msTestFiles :: [FilePath],
msExtraFiles :: [ExtraSource],
msExtraPaths :: [FilePath],
msMode :: CompileMode,
msForce :: ForceMode
}
deriving (Show)
data LoadedTests =
LoadedTests {
ltRoot :: FilePath,
ltPath :: FilePath,
ltMetadata :: CompileMetadata,
ltPublicDeps :: [CompileMetadata],
ltPrivateDeps :: [CompileMetadata]
}
deriving (Show)
compileModule :: ModuleSpec -> IO ()
compileModule (ModuleSpec p d is is2 ps xs ts es ep m f) = do
(backend,resolver) <- loadConfig
let hash = getCompilerHash backend
as <- fmap fixPaths $ sequence $ map (resolveModule resolver (p </> d)) is
as2 <- fmap fixPaths $ sequence $ map (resolveModule resolver (p </> d)) is2
(fr1,deps1) <- loadPublicDeps hash as
checkAllowedStale fr1 f
(fr2,deps2) <- loadPublicDeps hash as2
checkAllowedStale fr2 f
base <- resolveBaseModule resolver
actual <- resolveModule resolver p d
isBase <- isBaseModule resolver actual
deps1' <- if isBase
then return deps1
else do
(fr3,bpDeps) <- loadPublicDeps hash [base]
checkAllowedStale fr3 f
return $ bpDeps ++ deps1
ns0 <- createPublicNamespace p d
let ex = concat $ map getSourceCategories es
cm <- loadLanguageModule p ns0 ex ps deps1' deps2
xa <- fmap collectAllOrErrorM $ sequence $ map (loadPrivateSource p) xs
let fs = compileAll cm xa
eraseCachedData (p </> d)
when (isCompileError fs) $ do
formatWarnings fs
hPutStr stderr $ "Compiler errors:\n" ++ (show $ getCompileError fs)
hPutStrLn stderr $ "Zeolite compilation failed."
exitFailure
formatWarnings fs
let (pc,tc,mf,fs') = getCompileSuccess fs
let ps2 = map takeFileName ps
let xs2 = map takeFileName xs
let ts2 = map takeFileName ts
let paths = map (\ns -> getCachedPath (p </> d) ns "") $ nub $ filter (not . null) $ map show $ [ns0] ++ map coNamespace fs'
paths' <- sequence $ map canonicalizePath paths
s0 <- canonicalizePath $ getCachedPath (p </> d) (show ns0) ""
let paths2 = base:(getIncludePathsForDeps (deps1' ++ deps2)) ++ ep' ++ paths'
let hxx = filter (isSuffixOf ".hpp" . coFilename) fs'
let other = filter (not . isSuffixOf ".hpp" . coFilename) fs'
os1 <- sequence $ map (writeOutputFile backend (show ns0) paths2) $ hxx ++ other
let files = map (\f2 -> getCachedPath (p </> d) (show $ coNamespace f2) (coFilename f2)) fs' ++
map (\f2 -> p </> getSourceFile f2) es
files' <- sequence $ map checkOwnedFile files
os2 <- fmap concat $ sequence $ map (compileExtraSource backend (show ns0) paths2) es
let (hxx',cxx,os') = sortCompiledFiles files'
let (osCat,osOther) = partitionEithers os2
path <- canonicalizePath $ p </> d
let os1' = resolveObjectDeps (deps1' ++ deps2) path path (os1 ++ osCat)
let cm2 = CompileMetadata {
cmVersionHash = hash,
cmPath = path,
cmNamespace = ns0,
cmPublicDeps = as,
cmPrivateDeps = as2,
cmPublicCategories = sort pc,
cmPrivateCategories = sort tc,
cmSubdirs = [s0],
cmPublicFiles = sort ps2,
cmPrivateFiles = sort xs2,
cmTestFiles = sort ts2,
cmHxxFiles = sort hxx',
cmCxxFiles = sort cxx,
cmBinaries = [],
cmLinkFlags = getLinkFlags m,
cmObjectFiles = os1' ++ osOther ++ map OtherObjectFile os'
}
bs <- createBinary backend resolver paths' (cm2:(deps1' ++ deps2)) m mf
let cm2' = CompileMetadata {
cmVersionHash = cmVersionHash cm2,
cmPath = cmPath cm2,
cmNamespace = cmNamespace cm2,
cmPublicDeps = cmPublicDeps cm2,
cmPrivateDeps = cmPrivateDeps cm2,
cmPublicCategories = cmPublicCategories cm2,
cmPrivateCategories = cmPrivateCategories cm2,
cmSubdirs = cmSubdirs cm2,
cmPublicFiles = cmPublicFiles cm2,
cmPrivateFiles = cmPrivateFiles cm2,
cmTestFiles = cmTestFiles cm2,
cmHxxFiles = cmHxxFiles cm2,
cmCxxFiles = cmCxxFiles cm2,
cmBinaries = bs,
cmLinkFlags = cmLinkFlags cm2,
cmObjectFiles = cmObjectFiles cm2
}
writeMetadata (p </> d) cm2'
hPutStrLn stderr $ "Zeolite compilation succeeded." where
compileAll cm xa = do
(cm',(pc,tc)) <- cm
xa' <- xa
(xx1,xx2) <- compileLanguageModule cm' xa'
ms <- maybeCreateMain cm' xa' m
return (pc,tc,ms,xx1++xx2)
ep' = fixPaths $ map (p </>) ep
writeOutputFile b ns0 paths ca@(CxxOutput _ f2 ns _ _ content) = do
hPutStrLn stderr $ "Writing file " ++ f2
writeCachedFile (p </> d) (show ns) f2 $ concat $ map (++ "\n") content
if isSuffixOf ".cpp" f2 || isSuffixOf ".cc" f2
then do
let f2' = getCachedPath (p </> d) (show ns) f2
let p0 = getCachedPath (p </> d) "" ""
let p1 = getCachedPath (p </> d) (show ns) ""
createCachePath (p </> d)
let ns' = if isStaticNamespace ns then show ns else show ns0
let command = CompileToObject f2' (getCachedPath (p </> d) ns' "") dynamicNamespaceName "" (p0:p1:paths) False
o2 <- runCxxCommand b command
return $ ([o2],ca)
else return ([],ca)
compileExtraSource b ns0 paths (CategorySource f2 cs ds2) = do
f2' <- compileExtraFile False b ns0 paths f2
let ds2' = nub $ cs ++ ds2
case f2' of
Nothing -> return []
Just o -> return $ map (\c -> Left $ ([o],fakeCxxForSource ns0 ds2' c)) cs
compileExtraSource b ns0 paths (OtherSource f2) = do
f2' <- compileExtraFile True b ns0 paths f2
case f2' of
Just o -> return [Right $ OtherObjectFile o]
Nothing -> return []
fakeCxxForSource ns ds2 c = CxxOutput {
coCategory = Just c,
coFilename = "",
coNamespace = ns',
coUsesNamespace = [ns'],
coUsesCategory = ds2,
coOutput = []
} where
ns' = if null ns then NoNamespace else StaticNamespace ns
checkOwnedFile f2 = do
exists <- doesFileExist f2
when (not exists) $ do
hPutStrLn stderr $ "Owned file " ++ f2 ++ " does not exist."
hPutStrLn stderr $ "Zeolite compilation failed."
exitFailure
canonicalizePath f2
compileExtraFile e b ns0 paths f2
| isSuffixOf ".cpp" f2 || isSuffixOf ".cc" f2 = do
let f2' = p </> f2
createCachePath (p </> d)
let command = CompileToObject f2' (getCachedPath (p </> d) "" "") dynamicNamespaceName ns0 paths e
fmap Just $ runCxxCommand b command
| isSuffixOf ".a" f2 || isSuffixOf ".o" f2 = return (Just f2)
| otherwise = return Nothing
createBinary b r paths deps (CompileBinary n _ o lf) ms
| length ms > 1 = do
hPutStrLn stderr $ "Multiple matches for main category " ++ show n ++ "."
exitFailure
| length ms == 0 = do
hPutStrLn stderr $ "Main category " ++ show n ++ " not found."
exitFailure
| otherwise = do
f0 <- if null o
then canonicalizePath $ p </> d </> show n
else canonicalizePath $ p </> d </> o
let (CxxOutput _ _ _ ns2 req content) = head ms
(o',h) <- mkstemps "/tmp/zmain_" ".cpp"
hPutStr h $ concat $ map (++ "\n") content
hClose h
base <- resolveBaseModule r
(fr,deps2) <- loadPrivateDeps (getCompilerHash b) deps
checkAllowedStale fr f
let lf' = lf ++ getLinkFlagsForDeps deps2
let paths' = fixPaths $ paths ++ base:(getIncludePathsForDeps deps)
let os = getObjectFilesForDeps deps2
let ofr = getObjectFileResolver os
let os' = ofr ns2 req
let command = CompileToBinary o' os' f0 paths' lf'
hPutStrLn stderr $ "Creating binary " ++ f0
_ <- runCxxCommand b command
removeFile o'
return [f0]
createBinary _ _ _ _ _ _ = return []
maybeCreateMain cm2 xs2 (CompileBinary n f2 _ _) =
fmap (:[]) $ compileModuleMain cm2 xs2 n f2
maybeCreateMain _ _ _ = return []
createModuleTemplates :: FilePath -> FilePath -> [CompileMetadata] -> [CompileMetadata] -> IO ()
createModuleTemplates p d deps1 deps2 = do
ns0 <- createPublicNamespace p d
(ps,xs,_) <- findSourceFiles p d
cm <- fmap (fmap fst) $ loadLanguageModule p ns0 [] ps deps1 deps2
xs' <- zipWithContents p xs
let ts = createTemplates cm xs'
if isCompileError ts
then do
formatWarnings ts
hPutStr stderr $ "Compiler errors:\n" ++ (show $ getCompileError ts)
hPutStrLn stderr $ "Zeolite compilation failed."
exitFailure
else do
formatWarnings ts
sequence_ $ map writeTemplate $ getCompileSuccess ts where
createTemplates cm xs = do
(LanguageModule _ _ _ cs0 ps0 ts0 cs1 ps1 ts1 _) <- cm
ds <- collectAllOrErrorM $ map parseInternalSource xs
let ds2 = concat $ map (\(_,_,d2) -> d2) ds
tm <- foldM includeNewTypes defaultCategories [cs0,cs1,ps0,ps1,ts0,ts1]
let cs = filter isValueConcrete $ cs1++ps1++ts1
let ca = Set.fromList $ map getCategoryName $ filter isValueConcrete cs
let ca' = foldr Set.delete ca $ map dcName ds2
collectAllOrErrorM $ map (compileConcreteTemplate tm) $ Set.toList ca'
writeTemplate (CxxOutput _ n _ _ _ content) = do
let n' = p </> d </> n
exists <- doesFileExist n'
if exists
then hPutStrLn stderr $ "Skipping existing file " ++ n
else do
hPutStrLn stderr $ "Writing file " ++ n
writeFile n' $ concat $ map (++ "\n") content
runModuleTests :: CompilerBackend b => b -> FilePath -> [FilePath] -> LoadedTests -> IO [((Int,Int),CompileInfo ())]
runModuleTests b base tp (LoadedTests p d m deps1 deps2) = do
let paths = base:(getIncludePathsForDeps deps1)
mapM_ showSkipped $ filter (not . isTestAllowed) $ cmTestFiles m
ts' <- zipWithContents p $ map (d </>) $ filter isTestAllowed $ cmTestFiles m
path <- canonicalizePath (p </> d)
cm <- fmap (fmap fst) $ loadLanguageModule path NoNamespace [] [] deps1 []
if isCompileError cm
then return [((0,0),cm >> return ())]
else sequence $ map (runSingleTest b (getCompileSuccess cm) path paths (m:deps2)) ts' where
allowTests = Set.fromList tp
isTestAllowed t = if null allowTests then True else t `Set.member` allowTests
showSkipped f = do
hPutStrLn stderr $ "Skipping tests in " ++ f ++ " due to explicit test filter."
createPublicNamespace :: FilePath -> FilePath -> IO Namespace
createPublicNamespace p d = canonicalizePath (p </> d) >>= return . StaticNamespace . publicNamespace
createPrivateNamespace :: FilePath -> FilePath -> IO Namespace
createPrivateNamespace p f = canonicalizePath (p </> f) >>= return . StaticNamespace . publicNamespace
formatWarnings :: CompileInfo a -> IO ()
formatWarnings c
| null $ getCompileWarnings c = return ()
| otherwise = hPutStr stderr $ "Compiler warnings:\n" ++ (concat $ map (++ "\n") (getCompileWarnings c))
zipWithContents :: FilePath -> [FilePath] -> IO [(FilePath,String)]
zipWithContents p fs = fmap (zip $ map fixPath fs) $ sequence $ map (readFile . (p </>)) fs
loadPrivateSource :: CompileErrorM m => FilePath -> FilePath -> IO (m (PrivateSource SourcePos))
loadPrivateSource p f = do
[f'] <- zipWithContents p [f]
ns <- createPrivateNamespace p f
return $ do
(pragmas,cs,ds) <- parseInternalSource f'
let cs' = map (setCategoryNamespace ns) cs
let testing = any isTestsOnly pragmas
return $ PrivateSource ns testing cs' ds
loadLanguageModule :: CompileErrorM m => FilePath -> Namespace -> [CategoryName] ->
[FilePath] -> [CompileMetadata] -> [CompileMetadata] ->
IO (m (LanguageModule SourcePos,([CategoryName],[CategoryName])))
loadLanguageModule p ns2 ex fs deps1 deps2 = do
m0 <- fmap merge $ sequence $ map processAll deps1
m1 <- fmap merge $ sequence $ map processAll deps2
m2 <- loadAllPublic "" fs
return $ construct m0 m1 m2 where
ns0 = filter (not . isNoNamespace) $ getNamespacesForDeps deps1
ns1 = filter (not . isNoNamespace) $ getNamespacesForDeps deps2
construct m0 m1 m2 = do
(ps0,_,tsA0,_) <- m0
(ps1,_,tsA1,_) <- m1
(ps2,xs2,tsA2,tsB2) <- m2
let cm = LanguageModule {
lmPublicNamespaces = ns0,
lmPrivateNamespaces = ns1,
lmLocalNamespaces = [ns2],
lmPublicDeps = ps0,
lmPrivateDeps = ps1,
lmTestingDeps = tsA0++tsA1,
lmPublicLocal = map (setCategoryNamespace ns2) ps2,
lmPrivateLocal = map (setCategoryNamespace ns2) xs2,
lmTestingLocal = map (setCategoryNamespace ns2) $ tsA2 ++ tsB2,
lmExternal = ex
}
return (cm,(map getCategoryName $ ps2++tsA2,map getCategoryName $ xs2++tsB2))
loadPublic p2 p3 = parsePublicSource p3 >>= return . uncurry (partition p2)
partition p2 pragmas cs
| p2 == p && (any isTestsOnly pragmas) = ([],[],cs,[])
| p2 == p = (cs,[],[],[])
| (any isModuleOnly pragmas) && (any isTestsOnly pragmas) = ([],[],[],cs)
| (any isTestsOnly pragmas) = ([],[],cs,[])
| (any isModuleOnly pragmas) = ([],cs,[],[])
| otherwise = (cs,[],[],[])
processAll dep = do
let dep' = getSourceFilesForDeps [dep]
loadAllPublic (cmPath dep) dep'
merge as = do
as' <- collectAllOrErrorM as
return $ foldl merge4 ([],[],[],[]) as'
loadAllPublic p2 fs2 = do
fs2' <- zipWithContents p fs2
return $ do
as <- collectAllOrErrorM $ map (loadPublic p2) fs2'
return $ foldl merge4 ([],[],[],[]) as
merge4 (ps1,xs1,tsA1,tsB1) (ps2,xs2,tsA2,tsB2) = (ps1++ps2,xs1++xs2,tsA1++tsA2,tsB1++tsB2)