| ||||||||
| ||||||||
Synopsis | ||||||||
Documentation | ||||||||
mkNop :: CmmAGraph | ||||||||
mkAssign :: CmmReg -> CmmExpr -> CmmAGraph | ||||||||
mkStore :: CmmExpr -> CmmExpr -> CmmAGraph | ||||||||
mkCall :: CmmExpr -> CCallConv -> CmmFormals -> CmmActuals -> C_SRT -> CmmAGraph | ||||||||
mkCmmCall :: CmmExpr -> CmmFormals -> CmmActuals -> C_SRT -> CmmAGraph | ||||||||
mkUnsafeCall :: CmmCallTarget -> CmmFormals -> CmmActuals -> CmmAGraph | ||||||||
mkFinalCall :: CmmExpr -> CCallConv -> CmmActuals -> CmmAGraph | ||||||||
mkJump :: Area -> CmmExpr -> CmmActuals -> CmmAGraph | ||||||||
mkCbranch :: CmmExpr -> BlockId -> BlockId -> CmmAGraph | ||||||||
mkSwitch :: CmmExpr -> [Maybe BlockId] -> CmmAGraph | ||||||||
mkReturn :: Area -> CmmActuals -> CmmAGraph | ||||||||
mkComment :: FastString -> CmmAGraph | ||||||||
copyIn :: Convention -> Area -> CmmFormals -> [Middle] | ||||||||
copyOut :: Convention -> Area -> CmmActuals -> [Middle] | ||||||||
mkEntry :: Area -> Convention -> CmmFormalsWithoutKinds -> [Middle] | ||||||||
mkCmmIfThenElse :: CmmExpr -> CmmAGraph -> CmmAGraph -> CmmAGraph | ||||||||
mkCmmIfThen :: CmmExpr -> CmmAGraph -> CmmAGraph | ||||||||
mkCmmWhileDo :: CmmExpr -> CmmAGraph -> CmmAGraph | ||||||||
mkAddToContext :: CmmExpr -> [CmmExpr] -> CmmAGraph | ||||||||
(<*>) :: AGraph m l -> AGraph m l -> AGraph m l | ||||||||
catAGraphs :: [AGraph m l] -> AGraph m l | ||||||||
mkLabel :: LastNode l => BlockId -> AGraph m l | ||||||||
mkBranch :: (Outputable m, Outputable l, LastNode l) => BlockId -> AGraph m l | ||||||||
emptyAGraph :: AGraph m l | ||||||||
A graph is built up by splicing together graphs each containing a single node (where a label is considered a first node. The empty graph is a left and right unit for splicing. All of the AGraph constructors (even complex ones like mkIfThenElse, as well as the splicing operation *, are constant-time operations. | ||||||||
withFreshLabel :: String -> (BlockId -> AGraph m l) -> AGraph m l | ||||||||
This function provides access to fresh labels without requiring clients to be programmed monadically. | ||||||||
withUnique :: (Unique -> AGraph m l) -> AGraph m l | ||||||||
outOfLine :: (LastNode l, Outputable m, Outputable l) => AGraph m l -> AGraph m l | ||||||||
The argument is an AGraph that has an empty entry sequence and no exit sequence. The result is a new AGraph that has an empty entry sequence connected to an empty exit sequence, with the original graph sitting to the side out-of-line. Example: mkMiddle (x = 3) *> outOfLine (mkLabel L <* ...stuff...) * mkMiddle (y = x) Control will flow directly from x=3 to y=x; the block starting with L is on the side. N.B. algebraically forall g g' : g *> outOfLine g' == outOfLine g' <* g | ||||||||
lgraphOfAGraph | ||||||||
| ||||||||
graphOfAGraph :: AGraph m l -> UniqSM (Graph m l) | ||||||||
Converting an abstract graph to a concrete form is expensive: the cost is linear in the number of nodes in the answer, plus N log N in the number of basic blocks. The conversion is also monadic because it may require the allocation of fresh, unique labels. | ||||||||
labelAGraph | ||||||||
| ||||||||
type CmmZ = GenCmm CmmStatic CmmInfo CmmGraph | ||||||||
type CmmTopZ = GenCmmTop CmmStatic CmmInfo CmmGraph | ||||||||
type CmmGraph = LGraph Middle Last | ||||||||
type CmmBlock = Block Middle Last | ||||||||
type CmmAGraph = AGraph Middle Last | ||||||||
data Middle | ||||||||
| ||||||||
data Last | ||||||||
| ||||||||
data Convention | ||||||||
| ||||||||
Produced by Haddock version 2.3.0 |