linearscan-0.7.0: LinearScan/Blocks.hs
module LinearScan.Blocks where
import Debug.Trace (trace, traceShow)
import qualified Prelude
import qualified Data.IntMap
import qualified Data.IntSet
import qualified Data.List
import qualified Data.Ord
import qualified Data.Functor.Identity
import qualified Hask.Utils
import qualified LinearScan.Monad as Monad
import qualified LinearScan.UsePos as UsePos
type PhysReg = Prelude.Int
type VarId = Prelude.Int
data VarInfo =
Build_VarInfo (Prelude.Either PhysReg VarId) UsePos.VarKind Prelude.Bool
varId :: Prelude.Int -> VarInfo -> Prelude.Either PhysReg VarId
varId maxReg v =
case v of {
Build_VarInfo varId0 varKind0 regRequired0 -> varId0}
varKind :: Prelude.Int -> VarInfo -> UsePos.VarKind
varKind maxReg v =
case v of {
Build_VarInfo varId0 varKind0 regRequired0 -> varKind0}
regRequired :: Prelude.Int -> VarInfo -> Prelude.Bool
regRequired maxReg v =
case v of {
Build_VarInfo varId0 varKind0 regRequired0 -> regRequired0}
nat_of_varId :: Prelude.Int -> VarInfo -> Prelude.Int
nat_of_varId maxReg v =
case varId maxReg v of {
Prelude.Left n -> n;
Prelude.Right v0 -> (Prelude.+) v0 maxReg}
data OpKind =
IsNormal
| IsCall
| IsBranch
type OpId = Prelude.Int
data OpInfo m opType1 opType2 =
Build_OpInfo (opType1 -> OpKind) (opType1 -> [] VarInfo) (PhysReg -> VarId
-> PhysReg -> m)
(PhysReg -> VarId -> PhysReg -> VarId -> m) (PhysReg -> VarId -> m)
(VarId -> PhysReg -> m) (opType1 -> ([] ((,) VarId PhysReg)) -> m) (opType1
->
Prelude.String)
opKind :: Prelude.Int -> (Monad.Monad a1) -> (OpInfo a1 a2 a3) -> a2 ->
OpKind
opKind maxReg h o =
case o of {
Build_OpInfo opKind0 opRefs0 moveOp0 swapOp0 saveOp0 restoreOp0
applyAllocs0 showOp -> opKind0}
opRefs :: Prelude.Int -> (Monad.Monad a1) -> (OpInfo a1 a2 a3) -> a2 -> []
VarInfo
opRefs maxReg h o =
case o of {
Build_OpInfo opKind0 opRefs0 moveOp0 swapOp0 saveOp0 restoreOp0
applyAllocs0 showOp -> opRefs0}
moveOp :: Prelude.Int -> (Monad.Monad a1) -> (OpInfo a1 a2 a3) -> PhysReg ->
VarId -> PhysReg -> a1
moveOp maxReg h o =
case o of {
Build_OpInfo opKind0 opRefs0 moveOp0 swapOp0 saveOp0 restoreOp0
applyAllocs0 showOp -> moveOp0}
swapOp :: Prelude.Int -> (Monad.Monad a1) -> (OpInfo a1 a2 a3) -> PhysReg ->
VarId -> PhysReg -> VarId -> a1
swapOp maxReg h o =
case o of {
Build_OpInfo opKind0 opRefs0 moveOp0 swapOp0 saveOp0 restoreOp0
applyAllocs0 showOp -> swapOp0}
saveOp :: Prelude.Int -> (Monad.Monad a1) -> (OpInfo a1 a2 a3) -> PhysReg ->
VarId -> a1
saveOp maxReg h o =
case o of {
Build_OpInfo opKind0 opRefs0 moveOp0 swapOp0 saveOp0 restoreOp0
applyAllocs0 showOp -> saveOp0}
restoreOp :: Prelude.Int -> (Monad.Monad a1) -> (OpInfo a1 a2 a3) -> VarId ->
PhysReg -> a1
restoreOp maxReg h o =
case o of {
Build_OpInfo opKind0 opRefs0 moveOp0 swapOp0 saveOp0 restoreOp0
applyAllocs0 showOp -> restoreOp0}
applyAllocs :: Prelude.Int -> (Monad.Monad a1) -> (OpInfo a1 a2 a3) -> a2 ->
([] ((,) VarId PhysReg)) -> a1
applyAllocs maxReg h o =
case o of {
Build_OpInfo opKind0 opRefs0 moveOp0 swapOp0 saveOp0 restoreOp0
applyAllocs0 showOp -> applyAllocs0}
type BlockId = Prelude.Int
data BlockInfo m blockType1 blockType2 opType1 opType2 =
Build_BlockInfo (blockType1 -> m) (blockType1 -> m) (blockType1 ->
blockType1 -> m)
(blockType1 -> (,) ((,) ([] opType1) ([] opType1)) ([] opType1)) (blockType1
-> ([]
opType2) ->
([]
opType2) ->
([]
opType2) ->
blockType2)
blockId :: (Monad.Monad a1) -> (BlockInfo a1 a2 a3 a4 a5) -> a2 -> a1
blockId h b =
case b of {
Build_BlockInfo blockId0 blockSuccessors0 splitCriticalEdge0 blockOps0
setBlockOps0 -> blockId0}
blockSuccessors :: (Monad.Monad a1) -> (BlockInfo a1 a2 a3 a4 a5) -> a2 -> a1
blockSuccessors h b =
case b of {
Build_BlockInfo blockId0 blockSuccessors0 splitCriticalEdge0 blockOps0
setBlockOps0 -> blockSuccessors0}
splitCriticalEdge :: (Monad.Monad a1) -> (BlockInfo a1 a2 a3 a4 a5) -> a2 ->
a2 -> a1
splitCriticalEdge h b =
case b of {
Build_BlockInfo blockId0 blockSuccessors0 splitCriticalEdge0 blockOps0
setBlockOps0 -> splitCriticalEdge0}
blockOps :: (Monad.Monad a1) -> (BlockInfo a1 a2 a3 a4 a5) -> a2 -> (,)
((,) ([] a4) ([] a4)) ([] a4)
blockOps h b =
case b of {
Build_BlockInfo blockId0 blockSuccessors0 splitCriticalEdge0 blockOps0
setBlockOps0 -> blockOps0}
setBlockOps :: (Monad.Monad a1) -> (BlockInfo a1 a2 a3 a4 a5) -> a2 -> ([]
a5) -> ([] a5) -> ([] a5) -> a3
setBlockOps h b =
case b of {
Build_BlockInfo blockId0 blockSuccessors0 splitCriticalEdge0 blockOps0
setBlockOps0 -> setBlockOps0}
allBlockOps :: (Monad.Monad a5) -> (BlockInfo a5 a1 a2 a3 a4) -> a1 -> [] a3
allBlockOps mDict binfo block =
case blockOps mDict binfo block of {
(,) p c ->
case p of {
(,) a b -> (Prelude.++) a ((Prelude.++) b c)}}
blockSize :: (Monad.Monad a5) -> (BlockInfo a5 a1 a2 a3 a4) -> a1 ->
Prelude.Int
blockSize mDict binfo block =
Data.List.length (allBlockOps mDict binfo block)
foldOps :: (Monad.Monad a5) -> (BlockInfo a5 a1 a2 a3 a4) -> (a6 -> a3 -> a6)
-> a6 -> ([] a1) -> a6
foldOps mDict binfo f z =
Data.List.foldl' (\bacc blk ->
Data.List.foldl' f bacc (allBlockOps mDict binfo blk)) z
countOps :: (Monad.Monad a5) -> (BlockInfo a5 a1 a2 a3 a4) -> ([] a1) ->
Prelude.Int
countOps mDict binfo =
foldOps mDict binfo (\acc x -> (Prelude.succ) acc) 0