- Seq instead of Vector

- fixed bugs
- Wood 1

haskell/code-of-kutulu/app/Main.hs

@@ -4,7 +4,7 @@ import System.Environment
 import Codingame
 import Simulation.Board
 import Simulation.Data
-import Data.Vector as V
+import qualified Data.Sequence as S
 
 main :: IO ()
 main = do
@@ -27,15 +27,12 @@ loop1 pos depth acc
         in loop1 sim (depth - 1) acc'
 
 sim1 :: Pos -> (Int, Pos)
-sim1 pos = (\(val, (Explorer _ pos _ _, _)) -> (val, pos)) (simulate board1 (Explorer 0 (0,0) 100 2, V.empty))
+sim1 pos = (\(val, (Explorer _ pos _ _, _)) -> (val, pos)) (simulate board1 (Explorer 0 (0,0) 100 2, S.empty))
 
 board1 :: Board
-board1 = fromList $ fmap fromList
+board1 = S.fromList $ fmap S.fromList
            [[Empty, Empty, Empty, Empty, Empty],
             [Empty, Empty, Empty, Empty, Empty],
             [Empty, Empty, Empty, Empty, Empty],
             [Empty, Empty, Empty, Empty, Empty],
             [Empty, Empty, Empty, Empty, Empty]]
-
-emptyBoard :: Board
-emptyBoard = V.generate 5 (\_ -> V.replicate 5 Empty) 

haskell/code-of-kutulu/src/Graph.hs

@@ -1,99 +0,0 @@
-{-# LANGUAGE ScopedTypeVariables #-}
-module Graph where
-
-import Prelude
-import qualified Data.Map as M
-import qualified Data.Set as S
-import Data.Maybe
-import qualified Data.Sequence as Seq
-
-newtype Graph v = Graph (M.Map v (Seq.Seq v))
-
-empty :: forall v. Graph v
-empty = Graph M.empty
-
-addNode :: forall v. Ord v => Graph v -> v -> Graph v
-addNode (Graph m) v = Graph $ M.insert v Seq.empty m
-
--- adds an Edge from Node "from" to Node "to"
--- returns the graph unmodified if "to" does not exist
-addEdge :: forall v. Ord v => Graph v -> v -> v -> Graph v
-addEdge g@(Graph m) from to = Graph $ M.update updateVal from m
-    where
-        updateVal :: Seq.Seq v -> Maybe (Seq.Seq v)
-        updateVal nodes
-            | g `contains` to = Just $ to Seq.<| nodes
-            | otherwise = Just nodes
-
-toMap :: forall v. Graph v -> M.Map v (Seq.Seq v)
-toMap (Graph m) = m
-
-adjacentEdges :: forall v. Ord v => Graph v -> v -> Seq.Seq v
-adjacentEdges (Graph m) nodeId = fromMaybe Seq.empty $ M.lookup nodeId m
-
-contains :: forall v. Ord v => Graph v -> v -> Bool
-contains (Graph m) key = case M.lookup key m of
-    Just _  -> True
-    Nothing -> False
-
--- shortestPath :: forall v. Ord v => Graph v -> v -> v -> Seq v
--- shortestPath g@(Graph m) from to = reverse $ shortestPath' (from, Seq.empty) Seq.empty S.empty
---     where
---         shortestPath' :: (v, Seq v) -> [(v, Seq v)] -> S.Set v-> Seq v
---         shortestPath' from queue visited
---             | fst from == to = snd from
---             | length newQueue == 0 = Seq.empty
---             | otherwise = shortestPath' (head newQueue) newQueue (S.insert (fst from) visited)
---             where
---                 adjacent :: S.Set v
---                 adjacent = S.fromList $ adjacentEdges g (fst from)
---                 newQueue :: [(v, Seq v)]
---                 newQueue = drop 1 queue <> ( map (\x -> (x, fst from : snd from)) (S.toList $ S.difference adjacent visited) )
-
-shortestPathList :: forall v. Ord v => Graph v -> v -> v -> Seq.Seq v
-shortestPathList g@(Graph m) from to = Seq.reverse $ shortestPath' (from, Seq.empty) Seq.empty Seq.empty
-    where
-        shortestPath' :: (v, Seq.Seq v) -> Seq.Seq (v, Seq.Seq v) -> Seq.Seq v-> Seq.Seq v
-        shortestPath' from queue visited
-            | fst from == to = snd from
-            | otherwise = case Seq.viewl newQueue of
-                n Seq.:< _ -> shortestPath' n newQueue (fst from Seq.<| visited)
-                Seq.EmptyL -> Seq.empty
-            where
-                adjacent :: Seq.Seq v
-                adjacent = adjacentEdges g (fst from)
-                newQueue :: Seq.Seq (v, Seq.Seq v)
-                newQueue = Seq.drop 1 queue <> (fmap (\x -> (x, fst from Seq.<| snd from)) (adjacent `without` visited) )
-
-without :: Eq a => Seq.Seq a -> Seq.Seq a -> Seq.Seq a
-without seq1 seq2 = Seq.filter (\e -> all ((/=) e) seq2) seq1
-
-with :: Eq a => Seq.Seq a -> Seq.Seq a -> Seq.Seq a
-with seq1 seq2 = seq1 <> (seq2 `without` seq1)
-
--- pathExists :: forall v. Ord v => Graph v -> v -> v -> Bool
--- pathExists g@(Graph m) from to = shortestPath' from Seq.empty Seq.empty
---     where
---         shortestPath' :: v -> Seq v -> Seq v -> Bool
---         shortestPath' from queue visited
---             | from == to = True
---             | otherwise  = case head $ newQueue of
---                   Just n  -> shortestPath' n newQueue (from : visited)
---                   Nothing -> False
---             where
---                 adjacent :: Seq v
---                 adjacent = adjacentEdges g from
---                 newQueue :: Seq v
---                 newQueue = drop 1 queue <> (adjacent \\ visited)
-
-dfs :: forall v. Ord v => Graph v -> v -> v -> Bool
-dfs g@(Graph m) from to = dfs' g from to Seq.empty
-
-dfs' :: forall v. Ord v => Graph v -> v -> v -> Seq.Seq v -> Bool
-dfs' g@(Graph m) from to visited
-    | from == to = True
-    | otherwise = any ((==) True) $ subcalls (adjacent `without` visited)
-    where
-        subcalls = fmap (\f -> dfs' g f to visited')
-        visited' = with visited adjacent
-        adjacent = adjacentEdges g from

haskell/code-of-kutulu/src/Player.hs

@@ -7,12 +7,12 @@ module Player
 import System.IO
 import Control.Monad
 import System.Random
+import Data.Maybe
 import Data.Char (digitToInt)
 import Data.List as L
-import qualified Data.Vector as V
+import qualified Data.Sequence as S
 
 import BotRunner
-import Graph
 import Simulation.Data
 import Simulation.Lib
 import Simulation.Board
@@ -27,11 +27,11 @@ bot readLine writeLine = do
     input_line <- getLine
     let height = read input_line :: Int
 
-    board' <- V.replicateM height getLine
+    board' <- S.replicateM height getLine
     let board :: Board = fmap (\br -> fmap (\se -> if
             | se == '.' -> Empty
             | se == '#' -> Wall
-            | otherwise -> SpawnWanderer) $ V.fromList br) board' -- TODO: $ digitToInt se) br) board'
+            | otherwise -> SpawnWanderer) $ S.fromList br) board' -- TODO: $ digitToInt se) br) board'
     
     input_line <- getLine
     let input = words input_line
@@ -45,7 +45,7 @@ bot readLine writeLine = do
         input_line <- getLine
         let entitycount = read input_line :: Int -- the first given entity corresponds to your explorer
         
-        entities <- V.replicateM entitycount $ do
+        entities <- S.replicateM entitycount $ do
             input_line <- getLine
             let input = words input_line
             let entitytype = input!!0
@@ -59,16 +59,15 @@ bot readLine writeLine = do
                 then WandererInput id (x,y) param0 param1 param2
                 else ExplorerInput id (x,y) param0 param1
         
-        let explorers' = fmap (\(ExplorerInput a b c d) -> Explorer a b c d) $ V.filter isExplorer entities
+        let explorers' = fmap (\(ExplorerInput a b c d) -> Explorer a b c d) $ S.filter isExplorer entities
-        let wanderers = fmap (\(WandererInput a b c d e) -> Wanderer a b c d e) $ V.filter (not . isExplorer) entities
+        let wanderers = fmap (\(WandererInput a b c d e) -> Wanderer a b c d e) $ S.filter (not . isExplorer) entities
-        let hero = V.head explorers'
+        let explorers = S.drop 1 explorers'
-        let explorers = V.tail explorers'
+        let cmd = case S.lookup 1 explorers' of
-
+                    Just hero ->
-        let cmd = if (all (> 6) $ fmap ((dist $ explorerPos hero) . wandererPos) wanderers) && explorerSanity hero `div` plansLeft hero < 100
+                        if (all (> 6) $ fmap ((dist $ explorerPos hero) . wandererPos) wanderers) && plansLeft hero > 0 && explorerSanity hero `div` plansLeft hero < 100
-            then "PLAN"
+                            then "PLAN"
-            else (\(_,(Explorer _ pos _ _, w)) -> moveToPos pos) $ simulate board (hero, wanderers)
+                            else (\(_,(Explorer _ pos _ _, w)) -> moveToPos pos) $ simulate board (hero, wanderers)
-
+                    Nothing -> "WAIT"
-        -- hPrint stderr $ minimum $ fmap (dist $ posFromEntity hero) (fmap posFromEntity eMines)
         putStrLn cmd
 
 moveToPos :: Pos -> String

haskell/code-of-kutulu/src/Simulation/Board.hs

@@ -4,14 +4,15 @@ module Simulation.Board
     ) where
 
 -- import Prelude
-import qualified Data.Vector as V
+import qualified Data.Sequence as S
-import Control.Monad.State as S
+import Control.Monad.State as State
 import Control.Monad.State.Class
 import Data.List as L
+import Data.Maybe
 import Simulation.Data
 import Simulation.Lib
 
-searchDepth = 6
+searchDepth = 11
 
 -- TODO: Check if tailrec
 simulate :: Board -> GameState -> (Int, GameState)
@@ -25,11 +26,11 @@ simulateMove depth board state@(hero@(Explorer ownId pos sanity plans), enemies)
     | otherwise =
         let state' = evalMove board state
             -- bPos = boardPos board pos
-            moves = V.filter (posValid board state) $ possibleMoves pos
+            moves = S.filter (posValid board state) $ possibleMoves pos
             vals = fmap (\pos' -> simulateMove (depth - 1) board (updatePos pos' state')) moves
             valsWithOldPos = if depth == searchDepth
                 then vals   -- return position of submove on first level
-                else V.zip (fmap fst vals) $ fmap (updatePos pos . snd) vals  -- return starting position otherwise  -- pos'
+                else S.zip (fmap fst vals) $ fmap (updatePos pos . snd) vals  -- return starting position otherwise  -- pos'
         in L.maximumBy (\(v1, _) (v2, _) -> compare v1 v2) valsWithOldPos
 
 updatePos :: Pos -> GameState -> GameState
@@ -38,7 +39,7 @@ updatePos pos ((Explorer id _ sanity plans), enemies) = ((Explorer id pos sanity
 -- update State according to hero position on board
 -- executed every move
 evalMove :: Board -> GameState -> GameState
-evalMove board state@(hero@(Explorer id pos sanity plans), enemies) = evalDeath $ evalEnemies $ evalEffects evalSanity
+evalMove board state@(hero@(Explorer id pos sanity plans), enemies) = evalEnemies $ evalEffects evalSanity
     where
         evalSanity :: GameState
         evalSanity
@@ -60,10 +61,6 @@ evalMove board state@(hero@(Explorer id pos sanity plans), enemies) = evalDeath
             | otherwise = state'
             where
                 distFromWanderer = fmap (dist $ pos') (fmap wandererPos enemies')
-        evalDeath :: GameState -> GameState
-        evalDeath state'@((Explorer id' pos' sanity' plans'), enemies')
-            | sanity' < 1 = ((Explorer id' pos' (-999) plans'), enemies')   -- TODO: starting position is not 0,0 but spawnpoint, enemy gets own mines
-            | otherwise = state'
 
 -- retuns the evalutaion of the current move
 -- executed if maximum depth is reached
@@ -76,18 +73,18 @@ evalGameState ((Explorer _ pos sanity plans), enemies) =
 
 -- get BoardInternalEntity Enum of Pos on BoardInternal
 boardPos :: Board -> Pos -> BoardEntity
-boardPos board (x,y) = (board V.! y) V.! x
+boardPos board (x,y) = fromJust $ (fromJust $ board S.!? y) S.!? x
 
 posValid :: Board -> GameState -> Pos -> Bool
 posValid board (hero, enemies) pos@(x,y) = onBoardInternal && boardPos' /= Wall
     where
-        width = length $ V.head board
+        width = length $ fromJust $ S.lookup 1 board
         height = length board
         boardPos' = boardPos board pos
         onBoardInternal = x >= 0 && x < width && y >= 0 && y < height
 
-possibleMoves :: Pos -> V.Vector Pos
+possibleMoves :: Pos -> S.Seq Pos
-possibleMoves (x,y) = V.fromList [ (x+1, y), (x, y+1), (x-1, y), (x, y-1) ]
+possibleMoves (x,y) = S.fromList [ (x+1, y), (x, y+1), (x-1, y), (x, y-1) ]
 
 
 data Tree v = Node v (Tree v) | Leaf v

haskell/code-of-kutulu/src/Simulation/Data.hs

@@ -5,7 +5,7 @@ import qualified Data.Sequence as S
 
 data BoardEntity = SpawnWanderer | Wall | Empty deriving (Show, Eq)
 
-type Board = V.Vector (V.Vector BoardEntity)
+type Board = S.Seq (S.Seq BoardEntity)
 
 type Pos = (Int, Int)
 
@@ -30,4 +30,4 @@ data Wanderer = Wanderer
     }
 
 -- (hero, enemies)
-type GameState = (Explorer, V.Vector Wanderer)
+type GameState = (Explorer, S.Seq Wanderer)

haskell/code-of-kutulu/stackproject.cabal

@@ -4,7 +4,7 @@ cabal-version: 1.12
 --
 -- see: https://github.com/sol/hpack
 --
--- hash: 417e6c9b6226b7bcecca4ed2838a83b02bcb813752e3a15911e72c73db470c74
+-- hash: 096c830a31336278e5c3292a5054113e49f2a2cb8e27884b9eb8c5aa35f34d3e
 
 name:           stackproject
 version:        0.1.0.0
@@ -30,7 +30,6 @@ library
       BotRunner
       Codingame
       Debug
-      Graph
       Player
       Simulation.Board
       Simulation.Data