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VirtualMachine.hs
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VirtualMachine.hs
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{-# LANGUAGE DeriveFunctor #-}
{-# LANGUAGE GeneralizedNewtypeDeriving #-}
{-# LANGUAGE ScopedTypeVariables #-}
{-# LANGUAGE FlexibleInstances #-}
{-# LANGUAGE MultiParamTypeClasses #-}
{-# LANGUAGE FlexibleContexts #-}
{-# LANGUAGE UndecidableInstances #-}
module VirtualMachine where
import Control.Monad.RWS
import Control.Monad.Reader
import Control.Monad.Writer
import Control.Monad.State
import Control.Monad.Except
import Control.Monad.Trans.Except
import Control.Monad.Identity
import Control.Monad.Trans
import Control.Monad
import Control.Monad.Cont
import Control.Exception
import Data.Stack as Stack
import Data.Maybe
import Data.List (intercalate,findIndex)
import Quadruple
import DataTypes
import MemoryLimits
import CodeGenDataTypes
import Data.Decimal
import Text.Show.Pretty
import qualified Data.HashMap.Strict as Map
import System.CPUTime
import Text.Printf
import System.Console.Pretty (Color (..), Style (..), bgColor, color,
style, supportsPretty)
import System.IO
import Control.Concurrent
data VMValue
= VMInteger Integer
| VMDecimal Decimal
| VMString String
| VMBool Bool
| VMEmpty
deriving (Eq)
instance Show VMValue where
show val = case val of
VMInteger int -> id $ show int
VMDecimal dec -> id $ show dec
VMString str -> id str
VMBool bool -> id $ show bool
VMEmpty -> id "~~~"
instance ExpressionOperation VMValue where
(VMInteger int1) |+| (VMInteger int2) = (VMInteger (int1 + int2))
(VMInteger int1) |+| (VMDecimal dec2) = (VMDecimal ((intToDecimal int1) + dec2))
(VMDecimal dec1) |+| (VMInteger int2) = (VMDecimal (dec1 + (intToDecimal int2)))
(VMDecimal dec1) |+| (VMDecimal dec2) = (VMDecimal (dec1 + dec2))
(VMString str1) |+| (VMString str2) = (VMString (str1 ++ str2))
(VMInteger int1) |-| (VMInteger int2) = (VMInteger (int1 - int2))
(VMInteger int1) |-| (VMDecimal dec2) = (VMDecimal ((intToDecimal int1) - dec2))
(VMDecimal dec1) |-| (VMInteger int2) = (VMDecimal (dec1 - (intToDecimal int2)))
(VMDecimal dec1) |-| (VMDecimal dec2) = (VMDecimal (dec1 - dec2))
(VMInteger int1) |*| (VMInteger int2) = (VMInteger (int1 * int2))
(VMInteger int1) |*| (VMDecimal dec2) = (VMDecimal ((intToDecimal int1) * dec2))
(VMDecimal dec1) |*| (VMInteger int2) = (VMDecimal (dec1 * (intToDecimal int2)))
(VMDecimal dec1) |*| (VMDecimal dec2) = (VMDecimal (dec1 * dec2))
(VMInteger int1) |/| (VMInteger int2) = (VMInteger ( decToInt $ (intToDecimal int1) / (intToDecimal int2) ))
(VMInteger int1) |/| (VMDecimal dec2) = (VMDecimal ((intToDecimal int1) / dec2))
(VMDecimal dec1) |/| (VMInteger int2) = (VMDecimal (dec1 / (intToDecimal int2)))
(VMDecimal dec1) |/| (VMDecimal dec2) = (VMDecimal (dec1 / dec2))
(VMInteger int1) |%| (VMInteger int2) = (VMInteger (int1 `mod` int2))
(VMInteger int1) |^| (VMInteger int2) = (VMInteger (int1 ^ int2))
(VMInteger int1) |^| (VMDecimal dec2) = (VMDecimal (doubleToDecimal ((intToDouble int1) ** (decToDouble dec2))))
(VMDecimal dec1) |^| (VMInteger int2) = (VMDecimal (doubleToDecimal ((decToDouble dec1) ** (intToDouble int2))))
(VMDecimal dec1) |^| (VMDecimal dec2) = (VMDecimal (doubleToDecimal ((decToDouble dec1) ** (decToDouble dec2))))
(VMInteger int1) |==| (VMInteger int2) = (VMBool (int1 == int2))
(VMDecimal dec1) |==| (VMDecimal dec2) = (VMBool (dec1 == dec2))
(VMBool bool1) |==| (VMBool bool2) = (VMBool (bool1 == bool2))
(VMString str1) |==| (VMString str2) = (VMBool (str1 == str2))
(VMInteger _) |==| VMEmpty = (VMBool False)
(VMDecimal _) |==| VMEmpty = (VMBool False)
(VMString _) |==| VMEmpty = (VMBool False)
(VMBool _) |==| VMEmpty = (VMBool False)
VMEmpty |==| (VMInteger _) = (VMBool False)
VMEmpty |==| (VMDecimal _) = (VMBool False)
VMEmpty |==| (VMString _) = (VMBool False)
VMEmpty |==| (VMBool _) = (VMBool False)
(VMEmpty) |==| (VMEmpty) = (VMBool (True))
(VMInteger int1) |!=| (VMInteger int2) = (VMBool (int1 /= int2))
(VMDecimal dec1) |!=| (VMDecimal dec2) = (VMBool (dec1 /= dec2))
(VMBool bool1) |!=| (VMBool bool2) = (VMBool (bool1 /= bool2))
(VMString str1) |!=| (VMString str2) = (VMBool (str1 /= str2))
(VMInteger _) |!=| VMEmpty = (VMBool True)
(VMDecimal _) |!=| VMEmpty = (VMBool True)
(VMString _) |!=| VMEmpty = (VMBool True)
(VMBool _) |!=| VMEmpty = (VMBool True)
VMEmpty |!=| (VMInteger _) = (VMBool True)
VMEmpty |!=| (VMDecimal _) = (VMBool True)
VMEmpty |!=| (VMString _) = (VMBool True)
VMEmpty |!=| (VMBool _) = (VMBool True)
(VMEmpty) |!=| (VMEmpty) = (VMBool (False))
(VMBool bool1) |&&| (VMBool bool2) = (VMBool (bool1 && bool2))
(VMBool bool1) |-||-| (VMBool bool2) = (VMBool (bool1 || bool2))
(VMInteger int1) |>| (VMInteger int2) = (VMBool (int1 > int2))
(VMDecimal dec1) |>| (VMDecimal dec2) = (VMBool (dec1 > dec2))
(VMInteger int1) |<| (VMInteger int2) = (VMBool (int1 < int2))
(VMDecimal dec1) |<| (VMDecimal dec2) = (VMBool (dec1 < dec2))
(VMInteger int1) |>=| (VMInteger int2) = (VMBool (int1 >= int2))
(VMDecimal dec1) |>=| (VMDecimal dec2) = (VMBool (dec1 >= dec2))
(VMInteger int1) |<=| (VMInteger int2) = (VMBool (int1 <= int2))
(VMDecimal dec1) |<=| (VMDecimal dec2) = (VMBool (dec1 <= dec2))
(|!|) (VMBool bool) = (VMBool (not bool))
data ExitState = PANIC
| HALT
| OK
deriving (Show,Eq)
data CPUState = CPUState
{ exitState :: ExitState,
ip :: Int,
globalMemory :: Memory,
localMemory :: Memory,
objectMemory :: ObjectMemory,
typeMap :: TypeMap,
returnAddresses :: [Address] -- Cuando se retornan valores en una funcion, se llena este arreglo
}
deriving (Show)
data CPUContext = CPUContext
{ currentInstructions :: [Quadruple],
functionDirectory :: FunctionMemoryMap,
isMainContext :: Bool,
currentClass :: String
}
deriving (Show)
data FunctionMemory = FunctionMemory
{ instructions :: [Quadruple],
funcMainMemory :: Memory,
funcObjectMemory :: ObjectMemory,
funcTypeMapMemory :: TypeMap
} deriving (Show)
type Memory = Map.HashMap Address VMValue
-- La memoria de un objeto puede verse como una relación unos a muchos: un sólo registro está ligado a muchos otros, que son sus atributos
type ObjectMemory = Map.HashMap Address [Address]
type FunctionMemoryMap = Map.HashMap String FunctionMemory
type Output = String
type VirtualMachine a = RWST CPUContext [String] (CPUState) IO a
type VM = VirtualMachine ()
printMessage :: String -> IO ()
printMessage str = putStrLn $ (color Cyan $ style Bold $ "[VM] ") ++ str
startVM :: [Quadruple] -> Memory -> Memory -> ObjectMemory -> FunctionMemoryMap -> TypeMap -> IO ()
startVM quads globalMemory localMemory objectMemory funcMemMap typeMap =
do
printMessage $ color White $ style Bold $ "Execution in process..."
start <- getCPUTime
(a,w) <- evalRWST (runVM) (CPUContext quads funcMemMap True "") (setInitialCPUState globalMemory localMemory objectMemory typeMap [] )
end <- getCPUTime
mapM_ (putStrLn) $ w
let diff = (fromIntegral (end - start)) / (10^12)
let msg1 = style Bold $ "Finished" ++ " in " ++ ( show (diff::Decimal) ) ++ " sec"
printMessage msg1
-- putStrLn $ msg1
setInitialCPUState :: Memory -> Memory -> ObjectMemory -> TypeMap -> [Address] -> CPUState
setInitialCPUState globalMem localMem objMemory typeMap returnAddresses = CPUState OK 0 globalMem localMem objMemory typeMap returnAddresses
getCPUState :: CPUState -> (ExitState,Int,Memory,Memory,ObjectMemory,TypeMap,[Address])
getCPUState (CPUState eState ip globalMemory localMemory objectMemory typeMap returnAddresses) = (eState,ip,globalMemory,localMemory,objectMemory,typeMap,returnAddresses)
runVM :: VM
runVM = do
context <- ask
let quadruples = (currentInstructions context)
cpuState <- get
let (exitState,currentInstructionPointer,globalMemory,localMemory,objectMemory,_,_) = getCPUState cpuState
if (exitState == PANIC)
then do
tell $ [("Ended execution with an error at quadruple number " ++ (style Bold (show currentInstructionPointer)) )]
return ()
else if (exitState == HALT)
then return ()
else do
if currentInstructionPointer < (length quadruples) then do
let currentInstruction = quadruples !! currentInstructionPointer
(runInstruction currentInstruction)
runVM
return ()
else do
return ()
runInstruction :: Quadruple -> VM
-- Si es un NOP, solamente aumentamos a uno el instruction pointer
runInstruction (QuadrupleEmpty _ _) = do
cpuState <- get
let (_,currentIP,_,_,_,_,_) = getCPUState cpuState
let s' = (cpuState { ip = (ip cpuState) + 1 })
put s'
return ()
runInstruction (QuadrupleThreeAddresses quadNum ADD_ a1 a2 a3) = do doAbstractOperation (|+|) a1 a2 a3
runInstruction (QuadrupleThreeAddresses quadNum SUB_ a1 a2 a3) = do doAbstractOperation (|-|) a1 a2 a3
runInstruction (QuadrupleThreeAddresses quadNum MULTIPLY_ a1 a2 a3) = do doAbstractOperation (|*|) a1 a2 a3
runInstruction (QuadrupleThreeAddresses quadNum DIVIDE_ a1 a2 a3) = do doAbstractOperation (|/|) a1 a2 a3
runInstruction (QuadrupleThreeAddresses quadNum MOD_ a1 a2 a3) = do doAbstractOperation (|%|) a1 a2 a3
runInstruction (QuadrupleThreeAddresses quadNum POWER_ a1 a2 a3) = do doAbstractOperation (|^|) a1 a2 a3
runInstruction (QuadrupleThreeAddresses quadNum GT_ a1 a2 a3) = do doAbstractOperation (|>|) a1 a2 a3
runInstruction (QuadrupleThreeAddresses quadNum LT_ a1 a2 a3) = do doAbstractOperation (|<|) a1 a2 a3
runInstruction (QuadrupleThreeAddresses quadNum GTEQ_ a1 a2 a3) = do doAbstractOperation (|>=|) a1 a2 a3
runInstruction (QuadrupleThreeAddresses quadNum LTEQ_ a1 a2 a3) = do doAbstractOperation (|<=|) a1 a2 a3
runInstruction (QuadrupleThreeAddresses quadNum EQ_ a1 a2 a3) |
a1 >= startObjectLocalMemory && a1 <= endObjectLocalMemory
|| a1 >= startObjectGlobalMemory && a1 <= endObjectGlobalMemory = do
insertValueInAddress (VMBool True) a3
doDeepEqualityOperation (|==|) (|&&|) a1 a2 a3
modify $ \s -> (s { ip = (ip s) + 1 })
| otherwise = do
doAbstractOperation (|==|) a1 a2 a3
runInstruction (QuadrupleThreeAddresses quadNum NOTEQ_ a1 a2 a3) |
a1 >= startObjectLocalMemory && a1 <= endObjectLocalMemory
|| a1 >= startObjectGlobalMemory && a1 <= endObjectGlobalMemory = do
insertValueInAddress (VMBool False) a3
doDeepEqualityOperation (|!=|) (|-||-|) a1 a2 a3
modify $ \s -> (s { ip = (ip s) + 1 })
| otherwise = do
do doAbstractOperation (|!=|) a1 a2 a3
runInstruction (QuadrupleThreeAddresses quadNum AND_ a1 a2 a3) = do doAbstractOperation (|&&|) a1 a2 a3
runInstruction (QuadrupleThreeAddresses quadNum OR_ a1 a2 a3) = do doAbstractOperation (|-||-|) a1 a2 a3
runInstruction (QuadrupleTwoAddresses quadNum NOT_ a1 a2) = do doAbstractUnaryOp (|!|) a1 a2
runInstruction (QuadrupleTwoAddresses quadNum NEG_ a1 a2) = do cpuState <- get
let (_,currentIP,globalMemory,localMemory,_,_,_) = getCPUState cpuState
case (Map.lookup a1 (Map.union globalMemory localMemory)) of
Just (VMInteger int) ->
do
insertValueInAddress (VMInteger (negate int)) a2
modify $ \s -> (s { ip = (ip s) + 1 })
Just (VMDecimal dec) ->
do
insertValueInAddress (VMDecimal (negate dec)) a2
modify $ \s -> (s { ip = (ip s) + 1 })
runInstruction (QuadrupleTwoAddresses quadNum ASSIGNMENT a1 a2) = do
doAssignment a1 a2
modify $ \s -> (s { ip = (ip s) + 1 })
runInstruction (QuadrupleOneAddressOneQuad quadNum GOTO_IF_FALSE a1 quadNumToJump) = do doGotoIfCondition (not) a1 quadNumToJump
runInstruction (QuadrupleOneAddressOneQuad quadNum GOTO_IF_TRUE a1 quadNumToJump) = do doGotoIfCondition (\l -> l == True) a1 quadNumToJump
runInstruction (QuadrupleOneQuad quadNum GOTO quadNumToJump) =
do
cpuState <- get
let (_,currentIP,_,_,_,_,_) = getCPUState cpuState
modify $ \s -> (cpuState { ip = fromIntegral quadNumToJump })
runInstruction (QuadrupleOneAddress quadNum READ a1)
| a1 >= startIntGlobalMemory && a1 <= endIntGlobalMemory
|| a1 >= startIntLocalMemory && a1 <= endIntLocalMemory =
do
cpuState <- get
context <- ask
let quadruples = (currentInstructions context)
tty <- liftIO $ openFile "/dev/tty" ReadMode
liftIO $ printMessage $ (style SlowBlink $ "<") ++ (style Bold $ "Expected input type: Integer" ) ++ (style SlowBlink $ ">")
x <- liftIO $ hGetLine tty
-- lift $ catch (seq (read x :: Integer) $ return()) showError
case (checkInt x) of
Just int -> do
insertValueInAddress (VMInteger int) a1
modify $ \s -> (s { ip = (ip s) + 1 })
Nothing -> do
liftIO $ printMessage $ color Yellow . style Bold $ ("Runtime Recovery: Please enter an Integer number")
return()
liftIO $ hClose tty
| a1 >= startDecimalGlobalMemory && a1 <= endDecimalGlobalMemory
|| a1 >= startDecimalLocalMemory && a1 <= endDecimalLocalMemory =
do
tty <- liftIO $ openFile "/dev/tty" ReadMode
liftIO $ printMessage $ (style SlowBlink $ "<") ++ (style Bold $ "Expected input type: Decimal" ) ++ (style SlowBlink $ ">")
x <- liftIO $ hGetLine tty
-- lift $ catch (seq (read x :: Integer) $ return()) showError
case (checkDecimal x) of
Just dec -> do
insertValueInAddress (VMDecimal dec) a1
modify $ \s -> (s { ip = (ip s) + 1 })
Nothing -> do
liftIO $ printMessage $ color Yellow . style Bold $ ("Runtime Recovery: Please enter a Decimal number")
return()
liftIO $ hClose tty
| a1 >= startStringGlobalMemory && a1 <= endStringGlobalMemory
|| a1 >= startStringLocalMemory && a1 <= endStringLocalMemory =
do
tty <- liftIO $ openFile "/dev/tty" ReadMode
liftIO $ printMessage $ (style SlowBlink $ "<") ++ (style Bold $ "Expected input type: String" ) ++ (style SlowBlink $ ">")
x <- liftIO $ hGetLine tty
-- lift $ catch (seq (read x :: Integer) $ return()) showError
insertValueInAddress (VMString x) a1
modify $ \s -> (s { ip = (ip s) + 1 })
liftIO $ hClose tty
| a1 >= startBoolGlobalMemory && a1 <= endBoolGlobalMemory
|| a1 >= startBoolLocalMemory && a1 <= endBoolLocalMemory =
do
tty <- liftIO $ openFile "/dev/tty" ReadMode
liftIO $ printMessage $ (style SlowBlink $ "<") ++ (style Bold $ "Expected input type: True | False" ) ++ (style SlowBlink $ ">")
x <- liftIO $ hGetLine tty
-- lift $ catch (seq (read x :: Integer) $ return()) showError
case (checkBool x) of
Just bool -> do
insertValueInAddress (VMBool bool) a1
modify $ \s -> (s { ip = (ip s) + 1 })
Nothing -> do
liftIO $ putStrLn $ color Yellow . style Bold $ ("Runtime Recovery: Please enter a Bool")
return()
liftIO $ hClose tty
| otherwise = do
modify $ \s -> (s { exitState = PANIC })
tell $ [color Red $ "BAD ADDRESS : " ++ show a1]
return ()
runInstruction (QuadrupleOneAddress quadNum DISPLAY a1) = do
doDisplay a1 0
modify $ \s -> (s { ip = (ip s) + 1 })
runInstruction (QuadrupleOneAddress quadNum DISPLAY_LINE a1) = do
doDisplay a1 0
liftIO $ putStrLn $ ""
modify $ \s -> (s { ip = (ip s) + 1 })
runInstruction (QuadrupleOneAddress quadNum DISPLAY_VALUE_IN_INDEX a1) = do
cpuState <- get
let (_,currentIP,globalMemory,localMemory,_,_,_) = getCPUState cpuState
case (Map.lookup a1 (Map.union globalMemory localMemory)) of
Just (VMInteger addressFromArray) -> do
doDisplay addressFromArray 0
modify $ \s -> (s { ip = (ip s) + 1 })
runInstruction (QuadrupleOneAddress quadNum DOUBLE a1) = do
cpuState <- get
let (_,currentIP,globalMemory,localMemory,_,_,_) = getCPUState cpuState
case (Map.lookup a1 (Map.union globalMemory localMemory)) of
Just (VMDecimal dec) ->
let roundedDec = roundTo' (ceiling) 16 dec
in insertValueInAddress (VMDecimal roundedDec) a1
modify $ \s -> (s { ip = (ip s) + 1 })
runInstruction (QuadrupleOneAddress quadNum INT_64 a1) = do
cpuState <- get
let (_,currentIP,globalMemory,localMemory,_,_,_) = getCPUState cpuState
case (Map.lookup a1 (Map.union globalMemory localMemory)) of
Just (VMInteger int) ->
do
let maxInt64 = maxBound :: Int
let minInt64 = minBound :: Int
if (int < (fromIntegral minInt64) || int > (fromIntegral maxInt64))
then do
modify $ \s -> (s { exitState = PANIC })
liftIO $ printMessage $ (color Red . style Bold $ ("Int underflowed/overflowed with value: " )) ++ (color White . style Bold $ (show int))
liftIO $ printMessage $ color Magenta . style Bold $ ("Consider using an Integer instead" )
insertValueInAddress (VMInteger 0) a1
else return ()
modify $ \s -> (s { ip = (ip s) + 1 })
runInstruction (QuadrupleThreeAddresses quadNum ADD_INDEX index value a3) = do
cpuState <- get
let (_,currentIP,globalMemory,localMemory,_,_,_) = getCPUState cpuState
case (Map.lookup value (Map.union globalMemory localMemory)) of
Just (VMInteger int) -> do
-- liftIO $ putStrLn $ (show (index + int)) ++ " " ++ (show a3)
insertValueInAddress (VMInteger (index + int)) a3
modify $ \s -> (s { ip = (ip s) + 1 })
runInstruction (QuadrupleTwoAddresses quadNum ACCESS_INDEX addressThatHasIndex a2) = do
cpuState <- get
let (_,currentIP,globalMemory,localMemory,_,_,_) = getCPUState cpuState
case (Map.lookup addressThatHasIndex (Map.union globalMemory localMemory)) of
Just (VMInteger addressFromArray) -> do
-- liftIO $ putStrLn $ (show addressFromArray) ++ " " ++ (show a2)
-- liftIO $ putStrLn.ppShow $ globalMemory
doAssignment addressFromArray a2
modify $ \s -> (s { ip = (ip s) + 1 })
runInstruction (QuadrupleTwoAddresses quadNum PUT_INDEX a1 addressThatHasIndex) = do
cpuState <- get
let (_,currentIP,globalMemory,localMemory,_,_,_) = getCPUState cpuState
case (Map.lookup addressThatHasIndex (Map.union globalMemory localMemory)) of
Just (VMInteger addressFromArray) ->
do
-- liftIO $ putStrLn.show $ addressFromArray
doAssignment a1 addressFromArray
modify $ \s -> (s { ip = (ip s) + 1 })
runInstruction (QuadrupleTwoAddresses quadNum BOUNDS a1 a2) = do
cpuState <- get
let (_,currentIP,globalMemory,localMemory,_,_,_) = getCPUState cpuState
case (Map.lookup a1 (Map.union globalMemory localMemory)) of
Just (VMInteger val) ->
do
case (Map.lookup a2 (Map.union globalMemory localMemory)) of
Just (VMInteger upperBound) ->
if (val >= upperBound || val < 0) then
do
modify $ \s -> (s { exitState = PANIC })
liftIO $ printMessage $ (color Red . style Bold $ ("Index out of bounds with value: " )) ++ (color White . style Bold $ (show val))
else do
modify $ \s -> (s { ip = (ip s) + 1 })
runInstruction (QuadrupleReturn quadNum RETURN addressesToReturn) = do
modify $ \s -> (s { returnAddresses = addressesToReturn })
modify $ \s -> (s { exitState = HALT })
runInstruction (QuadrupleFunctionCall quadNum GO_SUB addressesObjParams addressesParams funcName) =
do
context <- ask
cpuState <- get
let funcMap = (functionDirectory context)
-- Buscar aqui que tipo de objeto es el de objParams
-- liftIO $ putStrLn $ funcName
let (classTypeOfCallingObj, updatedFuncName) = getClassNameAndFunctionName funcName (currentClass context) (typeMap cpuState)
-- liftIO $ putStrLn $ classTypeOfCallingObj
-- liftIO $ putStrLn $ updatedFuncName
case (Map.lookup updatedFuncName funcMap) of
Just (FunctionMemory funcInstructions funcIdMem funcObjMem typeMapFunc) ->
do
let (_,currentIP,globalMemory,currentLocalMem,currentObjMem,currentTypeMap,_) = getCPUState cpuState
-- A continuacion se sustituira la currentLocalMemory por la local memory de la funcion. Sin embargo, se guarda el currentLocalMemory
let addressesCurrentContext = (map (\f-> fst f) addressesParams)
let addressesFuncContext = (map (\f-> snd f) addressesParams)
let addressesObjParamsCurrentContext = (map (\f-> fst f) addressesObjParams)
let addressesObjFuncContext = (map (\f-> snd f) addressesObjParams)
let (newTypeMapFunc,localMemFunc) = doDeepAssignmentMemories (Map.union globalMemory currentLocalMem) funcIdMem currentObjMem funcObjMem currentTypeMap typeMapFunc addressesCurrentContext addressesFuncContext
let (finalTypeMapFunc,localMemFuncNew) = doDeepAssignmentMemories (Map.union globalMemory currentLocalMem) localMemFunc currentObjMem funcObjMem currentTypeMap newTypeMapFunc addressesObjParamsCurrentContext addressesObjFuncContext
(stateAfterFunc,logs) <- liftIO $ execRWST (runVM) (CPUContext funcInstructions funcMap False classTypeOfCallingObj) (setInitialCPUState globalMemory localMemFuncNew funcObjMem finalTypeMapFunc [])
let (funcCPUState,_,_,localMemAfterFunc,objMemAfterFunc,typeMapAfterFunc,returnAddresses) = getCPUState stateAfterFunc
case funcCPUState of
PANIC -> do
modify $ \s -> (s { exitState = PANIC })
tell $ logs
return ()
_ -> do
-- Se sustituyen
if (currentIP + 1) < (length (currentInstructions context)) then do
let returnInstruction = (currentInstructions context) !! (currentIP + 1)
case returnInstruction of
(QuadrupleReturnSet quadNum RETURN_SET addressesCurrentContext) ->
if ((isMainContext context)) then
do
-- El orden es MUUUY importante, porque primero se deben actualizar los atributos de los objetos, y hasta el final
-- los return addresses, porque puede darse el caso que se este asignando un atributo de un objeto a la llamada de funcion
-- por lo que tendria que cambiarse de nuevo ese atributo de objeto
let (newTypeMap,newGlobalMemoryWithObjectAttributes) = doDeepAssignmentMemories localMemAfterFunc globalMemory objMemAfterFunc currentObjMem typeMapAfterFunc currentTypeMap addressesObjFuncContext addressesObjParamsCurrentContext
let (finalTypeMap,newGlobalMemory) = doDeepAssignmentMemories localMemAfterFunc newGlobalMemoryWithObjectAttributes objMemAfterFunc currentObjMem typeMapAfterFunc newTypeMap returnAddresses addressesCurrentContext
modify $ \s -> (s { globalMemory = newGlobalMemory })
modify $ \s -> (s { typeMap = finalTypeMap })
modify $ \s -> (s { ip = (ip s) + 1 })
else do
-- El orden es MUUUY importante, porque primero se deben actualizar los atributos de los objetos, y hasta el final
-- los return addresses, porque puede darse el caso que se este asignando un atributo de un objeto a la llamada de funcion
-- por lo que tendria que cambiarse de nuevo ese atributo de objeto
let (newTypeMap,newLocalMemoryWithObjectAttributes) = doDeepAssignmentMemories localMemAfterFunc currentLocalMem objMemAfterFunc currentObjMem typeMapAfterFunc currentTypeMap addressesObjFuncContext addressesObjParamsCurrentContext
let (finalTypeMap,newLocalMemory) = doDeepAssignmentMemories localMemAfterFunc newLocalMemoryWithObjectAttributes objMemAfterFunc currentObjMem typeMapAfterFunc newTypeMap returnAddresses addressesCurrentContext
modify $ \s -> (s { localMemory = newLocalMemory })
modify $ \s -> (s { typeMap = finalTypeMap })
modify $ \s -> (s { ip = (ip s) + 1 })
_ -> do
if ((isMainContext context)) then
do
let (finalTypeMap,newGlobalMemoryWithObjectAttributes) = doDeepAssignmentMemories localMemAfterFunc globalMemory objMemAfterFunc currentObjMem typeMapAfterFunc currentTypeMap addressesObjFuncContext addressesObjParamsCurrentContext
modify $ \s -> (s { globalMemory = newGlobalMemoryWithObjectAttributes })
modify $ \s -> (s { typeMap = finalTypeMap })
modify $ \s -> (s { ip = (ip s) + 1 })
else do
let (finalTypeMap,newLocalMemoryWithObjectAttributes) = doDeepAssignmentMemories localMemAfterFunc currentLocalMem objMemAfterFunc currentObjMem typeMapAfterFunc currentTypeMap addressesObjFuncContext addressesObjParamsCurrentContext
modify $ \s -> (s { localMemory = newLocalMemoryWithObjectAttributes })
modify $ \s -> (s { typeMap = finalTypeMap })
modify $ \s -> (s { ip = (ip s) + 1 })
else
do
if ((isMainContext context)) then
do
let (finalTypeMap,newGlobalMemoryWithObjectAttributes) = doDeepAssignmentMemories localMemAfterFunc globalMemory objMemAfterFunc currentObjMem typeMapAfterFunc currentTypeMap addressesObjFuncContext addressesObjParamsCurrentContext
modify $ \s -> (s { globalMemory = newGlobalMemoryWithObjectAttributes })
modify $ \s -> (s { typeMap = finalTypeMap })
modify $ \s -> (s { ip = (ip s) + 1 })
else do
let (finalTypeMap,newLocalMemoryWithObjectAttributes) = doDeepAssignmentMemories localMemAfterFunc currentLocalMem objMemAfterFunc currentObjMem typeMapAfterFunc currentTypeMap addressesObjFuncContext addressesObjParamsCurrentContext
modify $ \s -> (s { localMemory = newLocalMemoryWithObjectAttributes })
modify $ \s -> (s { typeMap = finalTypeMap })
modify $ \s -> (s { ip = (ip s) + 1 })
runInstruction _ = do
modify $ \s -> (s { ip = (ip s) + 1 })
return ()
-- Se consigue la clase y la llamada a funcion
getClassNameAndFunctionName :: String -> String -> TypeMap -> (String,String)
getClassNameAndFunctionName funcNameString currentClass typeMap
| (getClassNameFromCurrentModule funcNameString) == "main" = ("",funcNameString)
| otherwise =
let indexEnd = findIndex(`elem` "_") funcNameString
in case (checkInt (take (fromJust indexEnd) funcNameString)) of
Just objAddress ->
-- + 1 porque despues de la direccion del objeto viene un _... ej: 13002_Point_setPoint
let newFuncString = drop ((fromJust indexEnd) + 1) funcNameString
indexEndClass = findIndex(`elem` "_") newFuncString
funcStringOnly = drop ((fromJust indexEndClass)) newFuncString
currentTypeOfObject = (fromJust (Map.lookup objAddress typeMap))
in (currentTypeOfObject,(currentTypeOfObject ++ (drop 1 funcStringOnly)))
-- Si no es un objeto que est'a llamando la funcion, y se esta haciendo adentro de una funcion miembro
Nothing ->
let className = (getClassNameFromCurrentModule funcNameString)
funcStringOnly = drop ((length className) + 2) funcNameString
in (currentClass,(currentClass ++ funcStringOnly))
doDisplay :: Address -> Int -> VM
doDisplay a1 nestFactor
-- Si es un objeto, la asignacion debe hacerse considerando todos sus atributos
| a1 >= startObjectLocalMemory && a1 <= endObjectLocalMemory
|| a1 >= startObjectGlobalMemory && a1 <= endObjectGlobalMemory = do
cpuState <- get
liftIO $ putStr $ take nestFactor $ cycle "\t"
liftIO $ putStrLn $ (color Black . style Bold $ "<object>" ) ++ (color White $ "{")
let (panic,currentIP,globalMemory,localMemory,objectMemory,_,_) = getCPUState cpuState
case (Map.lookup a1 objectMemory) of
Just addressesFromObject -> do
doDeepDisplay addressesFromObject (nestFactor + 1)
liftIO $ putStrLn $ ""
liftIO $ putStr $ take nestFactor $ cycle "\t"
liftIO $ putStrLn $ color White $ "}"
| otherwise = do
cpuState <- get
let (_,currentIP,globalMemory,localMemory,_,_,_) = getCPUState cpuState
let memories = (Map.union globalMemory localMemory)
liftIO $ putStr $ take nestFactor $ cycle "\t"
case (Map.lookup a1 memories) of
Just (VMString val) -> do
liftIO $ putStr $ color Yellow $ val ++ " "
Just (VMInteger int) -> do
liftIO $ putStr $ color Magenta $ (show $ int) ++ " "
Just (VMDecimal dec) -> do
liftIO $ putStr $ color Green $ (show $ dec) ++ " "
-- tell $ [show val]
Just (VMBool bool) -> do
case bool of
True -> liftIO $ putStr $ color Cyan $ (show $ bool) ++ " "
False -> liftIO $ putStr $ color Red $ (show $ bool) ++ " "
-- tell $ [show val]
Just VMEmpty ->
-- do liftIO $ putStr $ " "
return ()
_ -> do
return ()
return ()
doDeepEqualityOperation :: (VMValue -> VMValue -> VMValue) -> (VMValue -> VMValue -> VMValue) -> Address -> Address -> Address -> VM
doDeepEqualityOperation f f2 a1 a2 a3
-- Si es un objeto, la asignacion debe hacerse considerando todos sus atributos
| a1 >= startObjectLocalMemory && a1 <= endObjectLocalMemory
|| a1 >= startObjectGlobalMemory && a1 <= endObjectGlobalMemory = do
cpuState <- get
let (panic,currentIP,globalMemory,localMemory,objectMemory,_,_) = getCPUState cpuState
case (Map.lookup a1 objectMemory) of
Just addresses1 ->
case (Map.lookup a2 objectMemory) of
Just addresses2 -> do
-- liftIO $ putStrLn.show $ addresses1
-- liftIO $ putStrLn.show $ addresses2
doDeepEqualityOperation2 f f2 addresses1 addresses2 a3
| otherwise = do
cpuState <- get
let (_,currentIP,globalMemory,localMemory,_,_,_) = getCPUState cpuState
let memories = (Map.union globalMemory localMemory)
case (Map.lookup a1 memories) of
Just val1 -> do
case (Map.lookup a2 memories) of
Just val2 ->
case (Map.lookup a3 memories) of
Just val3 -> do
let val = (f2 (f val1 val2) val3)
insertValueInAddress val a3
_ -> do
return ()
return ()
doDeepEqualityOperation2 :: (VMValue -> VMValue -> VMValue) -> (VMValue -> VMValue -> VMValue) -> [Address] -> [Address] -> Address -> VM
doDeepEqualityOperation2 f f2 [] [] a3 = return ()
doDeepEqualityOperation2 f f2 (a1:a1s) (a2:a2s) a3 =
do
doDeepEqualityOperation f f2 a1 a2 a3
doDeepEqualityOperation2 f f2 a1s a2s a3
doAssignment :: Address -> Address -> VM
doAssignment a1 a2
-- Si es un objeto, la asignacion debe hacerse considerando todos sus atributos
| a1 >= startObjectLocalMemory && a1 <= endObjectLocalMemory
|| a1 >= startObjectGlobalMemory && a1 <= endObjectGlobalMemory = do
-- liftIO $ putStrLn $ "khe"
cpuState <- get
let (panic,currentIP,globalMemory,localMemory,objectMemory,typeMap,_) = getCPUState cpuState
-- Primero hay que cambiar su tipo en el type map
case (Map.lookup a1 typeMap) of
Just typeClassGiver ->
do
let newTypeMap = (Map.insert a2 typeClassGiver typeMap)
modify $ \s -> (s { typeMap = newTypeMap })
case (Map.lookup a1 objectMemory) of
Just addressesAttributesGiver ->
do
case (Map.lookup a2 objectMemory) of
Just addressesAttributesReceiver ->
do
doDeepAssignment addressesAttributesGiver addressesAttributesReceiver
_ -> -- Si no se encontro, se crea el object memory del atributo on the fly
do
let newObjMap = (Map.insert a2 addressesAttributesGiver objectMemory)
modify $ \s -> (s { objectMemory = newObjMap })
| otherwise = do
cpuState <- get
let (panic,currentIP,globalMemory,localMemory,_,_,_) = getCPUState cpuState
let memories = (Map.union globalMemory localMemory)
case (Map.lookup a1 memories) of
Just val -> do
insertValueInAddress val a2
_ -> do
-- tell $ ["Address " ++ show a1 ++ " was not found in any memory"]
return ()
doDeepAssignment :: [Address] -> [Address] -> VM
doDeepAssignment [] [] = do return ()
doDeepAssignment a [] = do return ()
doDeepAssignment [] a = do return ()
doDeepAssignment (addrGiver : addressesGiver ) (addrReceiver : addressesReceiver ) = do
doAssignment addrGiver addrReceiver
doDeepAssignment addressesGiver addressesReceiver
return ()
doAssignmentMemories :: Memory -> Memory -> ObjectMemory -> ObjectMemory -> TypeMap -> TypeMap -> Address -> Address -> (TypeMap,Memory)
doAssignmentMemories memBase memDestiny objMemBase objMemDestiny typeMapBase typeMapDestiny a1 a2
-- Si es un objeto, la asignacion debe hacerse considerando todos sus atributos
| a1 >= startObjectLocalMemory && a1 <= endObjectLocalMemory
|| a1 >= startObjectGlobalMemory && a1 <= endObjectGlobalMemory = case (Map.lookup a1 objMemBase) of
Just addressesAttributesGiver ->
case (Map.lookup a2 objMemDestiny) of
Just addressesAttributesReceiver ->
case (Map.lookup a1 typeMapBase) of
Just typeClassGiver ->
let newTypeMapDestiny = (Map.insert a2 typeClassGiver typeMapDestiny)
in doDeepAssignmentMemories memBase memDestiny objMemBase objMemDestiny typeMapBase newTypeMapDestiny addressesAttributesGiver addressesAttributesReceiver
| otherwise = case (Map.lookup a1 memBase) of
Just valBase ->
let newDestinyMemory = (Map.insert a2 valBase memDestiny)
in (typeMapDestiny,newDestinyMemory)
doDeepAssignmentMemories :: Memory -> Memory -> ObjectMemory -> ObjectMemory -> TypeMap -> TypeMap -> [Address] -> [Address] -> (TypeMap,Memory)
doDeepAssignmentMemories _ memoryDestiny _ _ _ typeMapDestiny [] [] = (typeMapDestiny,memoryDestiny)
doDeepAssignmentMemories _ memoryDestiny _ _ _ typeMapDestiny a [] = (typeMapDestiny,memoryDestiny)
doDeepAssignmentMemories _ memoryDestiny _ _ _ typeMapDestiny [] a = (typeMapDestiny,memoryDestiny)
doDeepAssignmentMemories memBase memDestiny objMemBase objMemDestiny typeMapBase typeMapDestiny (addrGiver : addressesGiver ) (addrReceiver : addressesReceiver ) =
let (newTypeMapDestiny, memDestinyNew) = doAssignmentMemories memBase memDestiny objMemBase objMemDestiny typeMapBase typeMapDestiny addrGiver addrReceiver
in doDeepAssignmentMemories memBase memDestinyNew objMemBase objMemDestiny typeMapBase newTypeMapDestiny addressesGiver addressesReceiver
doDeepDisplay :: [Address] -> Int -> VM
doDeepDisplay [] _ = do return ()
doDeepDisplay (addr : addresses ) nestFactor = do
liftIO $ putStr $ take (nestFactor) $ cycle "\t"
liftIO $ putStrLn $ (color Blue . style Bold $ "<attribute>" ) ++ (color White $ "{")
doDisplay addr (nestFactor + 1)
liftIO $ putStrLn $ ""
liftIO $ putStr $ take nestFactor $ cycle "\t"
liftIO $ putStrLn $ color White $ "}"
doDeepDisplay addresses nestFactor
return ()
doAbstractOperation :: (VMValue -> VMValue -> VMValue) -> Address -> Address -> Address -> VM
doAbstractOperation f a1 a2 a3 = do
cpuState <- get
let (_,_,globalMemory,localMemory,_,_,_) = getCPUState cpuState
memories = (Map.union globalMemory localMemory)
valResult = doOperation f a1 a2 memories
case valResult of
Left err ->
do
modify $ \s -> (cpuState { exitState = PANIC })
tell $ [color Red $ err]
Right val -> do
insertValueInAddress val a3
modify $ \s -> (s { ip = (ip s) + 1 })
doOperation :: (VMValue -> VMValue -> VMValue) -> Address -> Address -> Memory -> (Either String VMValue)
doOperation f a1 a2 memory = case (Map.lookup a1 memory) of
Just VMEmpty -> (Left "ERROR: Variable in expression was never initialized")
Just vmVal1 -> do
case (Map.lookup a2 memory) of
Just VMEmpty -> (Left "ERROR: Variable in expression was never initialized")
Just vmVal2 -> (Right $ f vmVal1 vmVal2)
insertValueInAddress :: VMValue -> Address -> VM
insertValueInAddress val address = do
cpuState <- get
let (_,currentIP,globalMemory,localMemory,_,_,_) = getCPUState cpuState
if (address >= startIntGlobalMemory && address <= endBoolGlobalMemory)
then do
let newGlobalMemory = (Map.insert address val globalMemory)
modify $ \s -> (cpuState { globalMemory = newGlobalMemory})
else do
if (address >= startIntLocalMemory && address <= endBoolLocalMemory) then do
let newLocalMemory = (Map.insert address val localMemory)
modify $ \s -> (cpuState { localMemory = newLocalMemory})
else do
modify $ \s -> (cpuState { exitState = PANIC})
tell $ [("Address " ++ show address ++ " assignment underflow/overflow ")]
return ()
doGotoIfCondition ::(Bool -> Bool) -> Address -> QuadNum -> VM
doGotoIfCondition f a1 quadNum = do
cpuState <- get
let (_,currentIP,globalMemory,localMemory,_,_,_) = getCPUState cpuState
let memories = (Map.union globalMemory localMemory)
case (Map.lookup a1 memories) of
Just (VMBool bool) -> do
-- Si es falso, entonces si hago el jump
if (f bool) then
modify $ \s -> (cpuState { ip = fromIntegral quadNum })
-- Si no solo sigo al siguiente cuadruplo
else modify $ \s -> (cpuState { ip = currentIP + 1 })
Just _ -> do
modify $ \s -> (cpuState { exitState = PANIC})
tell $ ["Address " ++ show a1 ++ " was not a boolean"]
_ -> do
modify $ \s -> (cpuState { exitState = PANIC})
tell $ ["Address " ++ show a1 ++ " not found"]
doAbstractUnaryOp :: (VMValue -> VMValue) -> Address -> Address -> VM
doAbstractUnaryOp f a1 a2 = do
cpuState <- get
let (_,_,globalMemory,localMemory,_,_,_) = getCPUState cpuState
let memories = (Map.union globalMemory localMemory)
case (Map.lookup a1 memories) of
Just val ->
do
let valResult = f val
insertValueInAddress valResult a2
modify $ \s -> (s { ip = (ip s) + 1 })
_ -> do
modify $ \s -> (cpuState { exitState = PANIC})
tell $ ["Address " ++ show a1 ++ " not found"]
checkInt :: String -> Maybe Integer
checkInt str =
case reads str of
[(i, [])] -> Just i
_ -> Nothing
checkDecimal :: String -> Maybe Decimal
checkDecimal str =
case reads str of
[(i, [])] -> Just i
_ -> Nothing
checkBool :: String -> Maybe Bool
checkBool str =
case reads str of
[(i, [])] -> Just i
_ -> Nothing