module Darcs.Test.Patch.Properties.GenericUnwitnessed where import qualified Darcs.Test.Patch.Properties.Generic as W ( permutivity, partialPermutivity , mergeConsistent, mergeArgumentsConsistent, mergeEitherWay , mergeCommute, patchAndInverseCommute, coalesceCommute, commuteInverses , recommute , show_read ) import Darcs.Test.Patch.Arbitrary.Generic ( Tree, MightBeEmptyHunk, MightHaveDuplicate ) import Darcs.Test.Patch.RepoModel( RepoModel, RepoState ) import Darcs.Test.Patch.WithState( WithStartState ) import qualified Darcs.Test.Patch.Properties.RepoPatchV2 as W ( propConsistentTreeFlattenings ) import Darcs.Test.Patch.WSub import Darcs.Test.Util.TestResult import Darcs.Patch.Prim.V1 ( Prim ) import Darcs.Patch.Patchy ( showPatch ) import Darcs.Patch.Read ( ReadPatch ) import Darcs.Patch.Show ( ShowPatchBasic ) import Darcs.Patch.Witnesses.Show import Darcs.Patch.Witnesses.Eq import Darcs.Patch.Witnesses.Sealed( Sealed ) import Darcs.Patch.Merge ( Merge ) import Darcs.Patch ( Patchy ) import Darcs.Util.Printer ( Doc, redText, ($$) ) import qualified Darcs.Util.Tree as T ( Tree ) permutivity :: (Patchy wp, ShowPatchBasic wp, MyEq wp, WSub wp p) => (forall wX wY . (p :> p) wX wY -> Maybe ((p :> p) wX wY)) -> (p :> p :> p) wA wB -> TestResult permutivity f = W.permutivity (fmap toW . f . fromW) . toW partialPermutivity :: (Patchy wp, ShowPatchBasic wp, MyEq wp, WSub wp p) => (forall wX wY . (p :> p) wX wY -> Maybe ((p :> p) wX wY)) -> (p :> p :> p) wA wB -> TestResult partialPermutivity f = W.partialPermutivity (fmap toW . f . fromW) . toW mergeEitherWay :: (Patchy wp, ShowPatchBasic wp, MyEq wp, Merge wp, WSub wp p) => (p :\/: p) wX wY -> TestResult mergeEitherWay = W.mergeEitherWay . toW commuteInverses :: (Patchy wp, ShowPatchBasic wp, MyEq wp, WSub wp p) => (forall wX wY . (p :> p) wX wY -> Maybe ((p :> p) wX wY)) -> (p :> p) wA wB -> TestResult commuteInverses f = W.commuteInverses (fmap toW . f . fromW) . toW recommute :: (Patchy wp, ShowPatchBasic wp, MightHaveDuplicate wp, MyEq wp, WSub wp p) => (forall wX wY . ((p :> p) wX wY -> Maybe ((p :> p) wX wY))) -> (p :> p) wA wB -> TestResult recommute f = W.recommute (fmap toW . f . fromW) . toW mergeCommute :: (Patchy wp, MightHaveDuplicate wp, ShowPatchBasic wp, MyEq wp, Merge wp, WSub wp p) => (p :\/: p) wX wY -> TestResult mergeCommute = W.mergeCommute . toW mergeConsistent :: (Patchy wp, Merge wp, ShowPatchBasic wp, WSub wp p) => (forall wX wY . p wX wY -> Maybe Doc) -> (p :\/: p) wA wB -> TestResult mergeConsistent f = W.mergeConsistent (f . fromW) . toW mergeArgumentsConsistent :: (Patchy wp, ShowPatchBasic wp, WSub wp p) => (forall wX wY . p wX wY -> Maybe Doc) -> (p :\/: p) wA wB -> TestResult mergeArgumentsConsistent f = W.mergeArgumentsConsistent (f . fromW) . toW show_read :: (Patchy p, ShowPatchBasic p, ReadPatch p, MyEq p, Show2 p) => p wX wY -> TestResult show_read = W.show_read patchAndInverseCommute :: (Patchy wp, ShowPatchBasic wp, MyEq wp, WSub wp p) => (forall wX wY . (p :> p) wX wY -> Maybe ((p :> p) wX wY)) -> (p :> p) wA wB -> TestResult patchAndInverseCommute f = W.patchAndInverseCommute (fmap toW . f . fromW) . toW coalesceCommute :: MightBeEmptyHunk Prim => (forall wX wY . (Prim :> Prim) wX wY -> Maybe (FL Prim wX wY)) -> (Prim :> Prim :> Prim) wA wB -> TestResult coalesceCommute f = W.coalesceCommute (fmap toW . f . fromW) . toW consistentTreeFlattenings :: (RepoState model ~ T.Tree, RepoModel model) => Sealed (WithStartState model (Tree Prim)) -> TestResult consistentTreeFlattenings = (\x -> if W.propConsistentTreeFlattenings x then succeeded else failed $ redText "oops") commuteFails :: (MyEq p, Patchy p, ShowPatchBasic p) => ((p :> p) wX wY -> Maybe ((p :> p) wX wY)) -> (p :> p) wX wY -> TestResult commuteFails c (x :> y) = case c (x :> y) of Nothing -> succeeded Just (y' :> x') -> failed $ redText "x" $$ showPatch x $$ redText ":> y" $$ showPatch y $$ redText "y'" $$ showPatch y' $$ redText ":> x'" $$ showPatch x'