module Graphics.Dynamic.Plot.R2 (
plotWindow
, Plottable(..)
, fnPlot, paramPlot
, continFnPlot
, tracePlot
, lineSegPlot
, linregressionPlot
, PlainGraphicsR2
, shapePlot
, diagramPlot
, plotLatest
, tint, autoTint
, legendName
, plotDelay
, xInterval, yInterval, forceXRange, forceYRange
, ViewXCenter(..), ViewYCenter(..), ViewWidth(..), ViewHeight(..)
, ViewXResolution(..), ViewYResolution(..)
, dynamicAxes, noDynamicAxes
, DynamicPlottable
, tweakPrerendered
) where
import Graphics.Dynamic.Plot.Colour
import Graphics.Dynamic.Plot.Internal.Types
import Graphics.Text.Annotation
import qualified Prelude
import Diagrams.Prelude ((^&), (&), _x, _y)
import qualified Diagrams.Prelude as Dia
import qualified Diagrams.TwoD.Size as Dia
import qualified Diagrams.TwoD.Types as DiaTypes
import Diagrams.BoundingBox (BoundingBox)
import qualified Diagrams.BoundingBox as DiaBB
import qualified Diagrams.Backend.Cairo as Cairo
import qualified Diagrams.Backend.Cairo.Text as CairoTxt
import qualified Data.Colour as DCol
import qualified Data.Colour.Names as DCol
import qualified Codec.Picture as JPix
import qualified Codec.Picture.Types as JPix
import qualified Diagrams.Backend.Gtk as BGTK
import qualified Graphics.UI.Gtk as GTK
import Graphics.UI.Gtk ( AttrOp((:=)) )
import qualified Graphics.UI.Gtk.Gdk.EventM as Event
import qualified System.Glib.Signals (on)
import Control.Monad.Trans (liftIO, lift)
import Control.Monad.ST
import Data.STRef
import qualified Control.Category.Hask as Hask
import Control.Category.Constrained.Prelude hiding ((^))
import Control.Arrow.Constrained
import Control.Monad.Constrained
import Control.Lens hiding ((...), (<.>))
import Control.Lens.TH(makeLenses)
import Control.Concurrent (runInBoundThread, threadDelay, ThreadId, forkIO, killThread)
import Control.Concurrent.MVar
import Control.DeepSeq
import Control.Exception (evaluate)
import Data.List (foldl', sort, sortBy, partition, zip4)
import qualified Data.List.NonEmpty as NE
import Data.List.NonEmpty (NonEmpty (..))
import qualified Data.Vector as Arr
import Data.Maybe
import Data.Semigroup
import Data.Default
import Data.Foldable (fold, foldMap)
import qualified Data.Foldable as Hask
import Data.Function (on)
import Data.Ord (comparing)
import Data.VectorSpace
import Math.LinearMap.Category
import Data.Basis
import Data.AffineSpace
import Data.Manifold.PseudoAffine
import Data.Function.Differentiable
import Data.Manifold.Types
import Data.Manifold.Shade
import Data.Manifold.TreeCover
import Data.Manifold.Web
import Data.Manifold.Riemannian (Geodesic, pointsBarycenter)
import qualified Data.Map.Lazy as Map
import qualified Data.Colour.Manifold as CSp
import qualified Data.Random as Random
import qualified System.Random as Random
import qualified Data.Random.Manifold
import Data.IORef
import System.IO
import System.Exit
import System.Process
import Data.Time
data Plot = Plot {
_plotAnnotations :: [Annotation]
, _getPlot :: PlainGraphicsR2
}
makeLenses ''Plot
data RangeRequest r
= OtherDimDependantRange (Maybe (Interval r) -> Maybe (Interval r))
| MustBeThisRange (Interval r)
type GraphWindowSpec = GraphWindowSpecR2
data DynamicPlottable' m = DynamicPlottable {
_relevantRange_x, _relevantRange_y :: RangeRequest R
, _inherentColours :: [DCol.Colour ℝ]
, _occlusiveness :: Double
, _axesNecessity :: Necessity
, _frameDelay :: NominalDiffTime
, _legendEntries :: [LegendEntry]
, _futurePlots :: Maybe (DynamicPlottable' m)
, _dynamicPlot :: GraphWindowSpec -> m Plot
}
makeLenses ''DynamicPlottable'
type DynamicPlottable = DynamicPlottable' Random.RVar
type AnnotPlot = (Plot, [LegendEntry])
data ObjInPlot = ObjInPlot {
_lastStableView :: IORef (Maybe (GraphWindowSpec, AnnotPlot))
, _newPlotView :: MVar (GraphWindowSpec, AnnotPlot)
, _plotObjColour :: Maybe AColour
, _originalPlotObject :: DynamicPlottable
}
makeLenses ''ObjInPlot
newtype PlainGraphics = PlainGraphics { getPlainGraphics :: PlainGraphicsR2 }
deriving (Semigroup, Monoid)
class Plottable p where
plot :: p -> DynamicPlottable
instance Plottable DynamicPlottable where
plot = id
instance Plottable (R -> R) where
plot f = continFnPlot $ realToFrac . f . realToFrac
instance (Plottable p) => Plottable [p] where
plot = foldMap plot
instance (Plottable p) => Plottable (Option p) where
plot = foldMap plot
instance (Plottable p) => Plottable (Maybe p) where
plot = foldMap plot
instance Plottable PlainGraphics where
plot (PlainGraphics d) = def
& relevantRange_x .~ atLeastInterval rlx
& relevantRange_y .~ atLeastInterval rly
& inherentColours .~ [DCol.grey]
& axesNecessity .~ 1
& dynamicPlot .~ pure.plot
where bb = DiaBB.boundingBox d
(rlx,rly) = case DiaBB.getCorners bb of
Just (c1, c2)
-> ( c1^._x ... c2^._x
, c1^._y ... c2^._y )
plot _ = mkPlot d
shapePlot :: PlainGraphicsR2 -> DynamicPlottable
shapePlot d = diagramPlot d
& inherentColours .~ []
& axesNecessity .~ 0
diagramPlot :: PlainGraphicsR2 -> DynamicPlottable
diagramPlot d = plot $ PlainGraphics d
metricFromLength :: ∀ s . RealFrac' s => s -> Norm s
metricFromLength l | l>0 = case closedScalarWitness :: ClosedScalarWitness s of
ClosedScalarWitness -> spanNorm [1 / l]
instance Plottable (R-->R) where
plot f = def & relevantRange_y .~ OtherDimDependantRange yRangef
& autoTint
& axesNecessity .~ 1
& dynamicPlot .~ pure.plot
where yRangef Nothing = Nothing
yRangef (Just (Interval l r))
= case intervalImages
100
( const . metricFromLength $ (rl)/16 , const $ metricFromLength 0.0001 )
( alg (\x -> ( point l?<x?<point r ?-> (f$~x) ))) of
([],[]) -> Nothing
(liv,riv) -> pure . foldr1 (<>) . map (uncurry Interval . snd)
$ take 4 liv ++ take 4 riv
plot gs@(GraphWindowSpecR2{..}) = curves `deepseq`
mkPlot (foldMap trace curves)
where curves :: [[P2]]
curves = map (map $ convℝ² . snd) . gatherSides
$ discretisePathSegs
10000
( const . metricFromLength
$ (rBoundlBound)/fromIntegral xResolution
, coerceMetric $ resolutionFunction gs )
((id&&&f)
. alg (\x -> ( point lBound?<x?<point rBound ?-> x )))
trace (p:q:ps) = simpleLine p q <> trace (q:ps)
trace _ = mempty
gatherSides = uncurry (++) . (take 50 *** take 50)
convℝ² = Dia.p2
c = realToFrac
instance Plottable (R-->(R,R)) where
plot f = def & relevantRange_y .~ mempty
& autoTint
& axesNecessity .~ 1
& dynamicPlot .~ pure.plot
where plot gs@(GraphWindowSpecR2{..}) = curves `deepseq`
mkPlot (foldMap trace curves)
where curves :: [[P2]]
curves = map (map $ convℝ² . snd) . gatherSides
$ discretisePathSegs
1000
( const . metricFromLength $ 1/100
, coerceMetric $ resolutionFunction gs )
f
trace (p:q:ps) = simpleLine p q <> trace (q:ps)
trace _ = mempty
gatherSides = uncurry (++) . (take 50 *** take 50)
convℝ² = Dia.p2
c = realToFrac
resolutionFunction :: GraphWindowSpecR2 -> RieMetric ℝ²
resolutionFunction GraphWindowSpecR2{..} = resoFunc
where w = rBound lBound; h = tBound bBound
ε = spanNorm [(recip δx^&0), (0^&recip δy)]
δx = w / fromIntegral xResolution
δy = h / fromIntegral yResolution
resoFunc (DiaTypes.V2 x y)
| x >= lBound, x <= rBound, y >= bBound, y <= tBound = ε
| otherwise = spanNorm [(recip qx^&0), (0^&recip qy)]
where qx | x < lBound = lBound x
| x > rBound = x rBound
| otherwise = δx * qy/δy
qy | y < bBound = bBound y
| y > tBound = y tBound
| otherwise = δy * qx/δx
instance Plottable (R-.^>R) where
plot rPCM@(RecursivePCM gPFit gDetails gFitDevs (PCMRange x₀ wsp) gSplN ())
= def
& relevantRange_x .~ atLeastInterval (Interval x₀ xr)
& relevantRange_y .~ otherDimDependence (rPCMLinFitRange rPCM)
& autoTint
& axesNecessity .~ 1
& dynamicPlot .~ plot
where
xr = wsp * fromIntegral gSplN
plot (GraphWindowSpecR2{..}) = pure . mkPlot . trace
$ flattenPCM_resoCut bb δx rPCM
where
trace dPath = fold [ trMBound [ p & _y +~ s*δ
| (p, DevBoxes _ δ) <- dPath ]
| s <- [1, 1] ]
<> trStRange dPath
trStRange ((p,DevBoxes σp' δp) : qd@(q,DevBoxes σq' δq) : ps)
= (let η = (σp/δp + σq/δq)/2
in Dia.opacity (1η)
(Dia.strokeLocLoop (Dia.fromVertices
[_y+~σq $ q, _y+~σp $ p, _y-~σp $ p, _y-~σq $ q
,_y+~σq $ q ]))
<> Dia.opacity (η^2)
(Dia.strokeLocLoop (Dia.fromVertices
[_y+~δq $ q, _y+~δp $ p, _y-~δp $ p, _y-~δq $ q
,_y+~δq $ q ]))
) <> trStRange (qd:ps)
where [σp,σq] = map (|$|1) [σp', σq']
trStRange _ = mempty
trMBound l = Dia.fromVertices l & Dia.dashingO [2,2] 0
w = rBound lBound; h = tBound bBound
δx = w * 3/fromIntegral xResolution
bb = Interval lBound rBound
-*| Interval (bBound h) (tBound + h)
instance Plottable (RecursiveSamples Int P2 (DevBoxes P2)) where
plot rPCM@(RecursivePCM gPFit gDetails gFitDevs (PCMRange t₀ τsp) gSplN ())
= def
& relevantRange_x .~ atLeastInterval xRange
& relevantRange_y .~ atLeastInterval yRange
& autoTint
& axesNecessity .~ 1
& dynamicPlot .~ plot
where plot (GraphWindowSpecR2{..}) = pure . mkPlot
. foldMap trStRange
$ flattenPCM_P2_resoCut bbView [(1/δxl)^&0, 0^&(1/δyl)] rPCM
where trStRange (Left appr) = trSR $ map calcNormDev appr
where trSR ((pl,pr) : qd@(ql,qr) : ps)
= Dia.opacity 0.3
(Dia.strokeLocLoop (Dia.fromVertices
[ ql, pl, pr, qr, ql ]
)) <> trSR (qd:ps)
trSR _ = mempty
calcNormDev ((p,v), DevBoxes σ _) = (p .+^ d, p .-^ d)
where d = let v' = turnLeft v in v' ^* (σ|$|v')
trStRange (Right pts) = (`foldMap`pts)
$ \(p, DevBoxes dv _)
-> let δxm = dv |$| 1^&0
δym = dv |$| 0^&1
in if δxm > δx && δym > δy
then simpleLine (_x +~ δxm $ p) (_x -~ δxm $ p)
<> simpleLine (_y +~ δym $ p) (_y -~ δym $ p)
else (Dia.rect (max δx $ δxm*2) (max δy $ δym*2)
& Dia.moveTo p)
w = rBound lBound; h = tBound bBound
δxl = 6 * δx; δyl = 6 * δy
δx = w/fromIntegral xResolution; δy = h/fromIntegral yResolution
bbView = Interval lBound rBound -*| Interval bBound tBound
bb = rPCM_R2_boundingBox rPCM
(xRange,yRange) = xyRanges bb
instance Plottable (Int -.^> P2) where
plot = plot . fmap (\() -> DevBoxes mempty zeroV :: DevBoxes P2)
tracePlot :: [(Double, Double)] -> DynamicPlottable
tracePlot = plot . recursiveSamples . map ((,()) . Dia.p2)
lineSegPlot :: [(Double, Double)] -> DynamicPlottable
lineSegPlot ps'
| null ps = mempty & autoTint
| otherwise = def
& relevantRange_x .~ atLeastInterval'
( getOption $ foldMap (pure . spInterval . fst) (concat ps) )
& relevantRange_y .~ atLeastInterval'
( getOption $ foldMap (pure . spInterval . snd) (concat ps) )
& autoTint
& axesNecessity .~ 1
& dynamicPlot .~ pure . plot
where plot (GraphWindowSpecR2{..}) = mkPlot (foldMap trace ps)
where trace (p:q:ps) = simpleLine (Dia.p2 p) (Dia.p2 q) <> trace (q:ps)
trace _ = mempty
ps = filter ((>1) . length) $ safeSeg ps'
safeSeg [] = [[]]
safeSeg ((x,y):l) | x==x && not (isInfinite x) && y==y && not (isInfinite y)
= case safeSeg l of { h:r -> ((x,y):h):r }
| otherwise = [] : safeSeg l
flattenPCM_resoCut :: R2Box -> R -> (R-.^>R) -> [(P2, DevBoxes R)]
flattenPCM_resoCut bb δx = case DiaBB.getCorners bb of
Nothing -> const []
Just cs -> ($[]) . go' cs
where go' cs@(lCorn,rCorn) = go where
go rPCM@(RecursivePCM pFit details fitDevs (PCMRange x₁ wsp) splN ())
| DiaBB.isEmptyBox $ DiaBB.intersection bb sqRange
= id
| w > δx, Left (Pair s1 s2) <- details
= go s1 . go s2
| otherwise
= ((xm ^& constCoeff pFit, fitDevs) :)
where xr = x₁ + w
xm = x₁ + w / 2
w = wsp * fromIntegral splN
sqRange = xRange -*| rPCMLinFitRange rPCM xRange_norm'd
xRange = x₁ ... xr
xRange_norm'd = max (1) ((lCorn^._x xm)/w)
... min 1 ((rCorn^._x xm)/w)
flattenPCM_P2_resoCut :: R2Box -> [DualVector R2]
-> (RecursiveSamples x P2 t)
-> [ Either [((P2, R2), DevBoxes P2)]
[(P2, t)] ]
flattenPCM_P2_resoCut bb δs = case DiaBB.getCorners bb of
Nothing -> const []
Just cs -> ($[]) . go' cs
where go' cs@(lCorn,rCorn) = go where
go rPCM@(RecursivePCM (LinFitParams pm pa) details fitDevs@(DevBoxes dev _) _ _ ())
| DiaBB.isEmptyBox $ DiaBB.intersection bb (rPCM_R2_boundingBox rPCM)
= \case l@(Left [] : _) -> l
l -> Left [] : l
| sum (normSq dev<$>δs) > 1/4 || (sum $ ((^2).(pa<.>^)) <$> δs) > 3
, Left (Pair s1 s2) <- details
= go s1 . go s2
| Right pts <- details = (Right (Arr.toList pts) :)
| otherwise
= \case
(Left h : r) -> Left (((pm, dir), fitDevs) : h) : r
r -> Left [((pm, dir), fitDevs)] : r
where dir = case magnitude pa of 0 -> zeroV; m -> pa ^/ m
turnLeft :: R2 -> R2
turnLeft (DiaTypes.V2 x y) = DiaTypes.V2 (y) x
rPCMPlot :: [R] -> DynamicPlottable
rPCMPlot = plot . recursivePCM (PCMRange (0 :: Double) 1)
instance Plottable (Shade P2) where
plot shade = def
& relevantRange_x .~ atLeastInterval xRange
& relevantRange_y .~ atLeastInterval yRange
& autoTint
& axesNecessity .~ 1
& dynamicPlot .~ plot
where plot _ = pure . mkPlot $ foldMap axLine eigVs
where axLine eigV = simpleLine (ctr .-~^ eigV) (ctr .+~^ eigV)
(xRange,yRange) = shadeExtends shade
ctr = shade^.shadeCtr
eigVs = normSpanningSystem $ shade^.shadeExpanse
instance Plottable (Shade ℝ²) where
plot (Shade v e) = plot (Shade (Dia.P v) e :: Shade P2)
instance Plottable (Shade (R,R)) where
plot sh = plot (coerceShade sh :: Shade R2)
instance Plottable (Shade' (R,R)) where
plot shade = def
& autoTint
& axesNecessity .~ 1
& dynamicPlot .~ plot
where plot wSpec = pure . mkPlot $ Dia.circle 1
& Dia.scaleX w₁ & Dia.scaleY w₂
& Dia.rotate ϑ
& Dia.opacity 0.2
& Dia.moveTo ctr
where [w₁,w₂] = recip . sqrt
. max (recip $ 100 * max ((wSpec^.windowDiameter)^2) ctrDistance)
. fst <$> [ev₁, ev₂]
ctrDistance = distanceSq (shade^.shadeCtr) (wSpec^.windowCenter)
ctr = Dia.p2 $ shade^.shadeCtr
Norm expanr = shade^.shadeNarrowness
[ev₁@(_,(e₁x,e₁y)),ev₂] = case eigen $ arr expanr of
(e₁:e₂:_) -> [e₁,e₂]
[e@(_,(vx,vy))] -> [e, (0,(vx,vy))]
[] -> [(0,(1,0)), (0,(0,1))]
ϑ = atan2 e₁y e₁x Dia.@@ Dia.rad
instance Plottable (ConvexSet ℝ²) where
plot EmptyConvex = mempty
plot (ConvexSet hull intersects)
= plot (ConvexSet (coerceShade hull) (coerceShade<$>intersects) :: ConvexSet (ℝ,ℝ))
instance Plottable (ConvexSet (R,R)) where
plot EmptyConvex = mempty
plot (ConvexSet hull intersects)
= plot [ plot intersects
& tweakPrerendered (Dia.opacity
(1 / fromIntegral (length intersects)) )
, plot hull
& tweakPrerendered ( Dia.lwO 3
>>> Dia.opacity 1
>>> Dia.fcA (Dia.withOpacity Dia.grey 0.01) ) ]
instance Plottable (Shade' ℝ²) where
plot sh = plot (coerceShade sh :: Shade' (ℝ,ℝ))
instance Plottable (Shade' P2) where
plot (Shade' (Dia.P v) e) = plot (Shade' v e :: Shade' ℝ²)
instance Plottable (Shaded ℝ ℝ) where
plot tr | length trivs' >= 2
= def & relevantRange_x .~ atLeastInterval (Interval xmin xmax)
& relevantRange_y .~ atLeastInterval (Interval ymin ymax)
& autoTint
& axesNecessity .~ 1
& dynamicPlot .~ plot
where plot grWS@(GraphWindowSpecR2{..}) = pure . mkPlot $
foldMap parallelogram trivs
<> (foldMap (singlePointFor grWS) leafPoints
& Dia.opacity 0.4 )
where parallelogram ((x,δx), ((y,δy), j))
= lLoop [ (x+δx)^&(y+δy+jδx), (xδx)^&(y+δyjδx)
, (xδx)^&(yδyjδx), (x+δx)^&(yδy+jδx) ]
& Dia.strokeLocLoop
& Dia.opacity 0.3
where jδx = j $ δx
trivs' = sortBy (comparing fst) $ stiAsIntervalMapping tr
trivs = NE.fromList $ ccδs trivs'
where ccδs [(x, yq), (x', yq')] = [((x,δx),yq), ((x',δx),yq')]
where δx = (x' x)/2
ccδs [(x, yq), (x', yq'), (x'', yq'')]
= [((x,δx),yq), ((x',δx),yq'), ((x'',δx),yq'')]
where δx = (x'' x)/4
ccδs ((x, yq) : xyqs@((x', yq') : (x'', _) : _))
= ((x,δx),yq) : ((x',δx),yq') : tail (ccδs xyqs)
where δx = (x'' x)/4
[xmin, ymin, xmax, ymax]
= [minimum, maximum]<*>[_topological<$>allLeaves, _untopological<$>allLeaves]
lLoop ps@(p:_) = Dia.fromVertices $ ps++[p]
leafPoints = sortBy (comparing (^._x))
$ (\(x`WithAny`y) -> y^&x) <$> allLeaves
allLeaves = onlyLeaves tr
plot _ = def
instance Plottable (PointsWeb ℝ (Shade' ℝ)) where
plot web | length locals >= 2
= def & relevantRange_x .~ atLeastInterval (Interval xmin xmax)
& relevantRange_y .~ atLeastInterval (Interval ymin ymax)
& autoTint
& axesNecessity .~ 1
& dynamicPlot .~ pure . plot
where plot grWS@(GraphWindowSpecR2{..}) = mkPlot $
foldMap parallelogram trivs
<> foldMap vbar divis
where parallelogram ((x,(δxl,δxr)), ((y,δy), j))
= lLoop [ (x+δxr)^&(y+δy+jδxr), (xδxl)^&(y+δyjδxl)
, (xδxl)^&(yδyjδxl), (x+δxr)^&(yδy+jδxr) ]
& Dia.strokeLocLoop
& Dia.opacity 0.3
where jδxl = j $ δxl
jδxr = j $ δxr
vbar (x,(δxl,δxr)) = Dia.fromVertices
[ (xδxl)^&tBound, (xδxl)^&bBound
, (x+δxr)^&bBound, (x+δxr)^&tBound ]
trivs :: [((ℝ, (Diff ℝ,Diff ℝ)), ((ℝ, Diff ℝ), LocalLinear ℝ ℝ))]
divis :: [(ℝ, (Diff ℝ,Diff ℝ))]
(trivs,divis) = concat***concat $ unzip (map mkTriv locals)
where mkTriv :: ((ℝ, Shade' ℝ), [(ℝ, Shade' ℝ)])
-> ( [((ℝ, (Diff ℝ,Diff ℝ)), ((ℝ, Diff ℝ), LocalLinear ℝ ℝ))]
, [(ℝ, (Diff ℝ,Diff ℝ))] )
mkTriv ((xc,Shade' yc yce), [(δxo, Shade' yo _)])
= case findNormalLength yce of
Just ry ->
( [ ( (xc, dirSort 0 δxo)
, ( (yc, ry)
, id ^* ((yoyc)/δxo) ) ) ], [] )
Nothing ->
( [], [(xc, dirSort 0 δxo)] )
mkTriv ((xc,Shade' yc yce), [(δxl, Shade' yl _), (δxr, Shade' yr _)])
= case findNormalLength yce of
Just ry ->
( [ ( (xc, dirSort δxl δxr)
, ( (yc, ry)
, id ^* η ) ) ], [] )
Nothing ->
( [], [(xc, dirSort δxl δxr)] )
where δxg = (δxr δxl)/2
η = (yr yl)/(2*δxg)
mkTriv (p,lrs) = concat***concat $ unzip [mkTriv (p,[l,r]) | l<-ls, r<-rs]
where (ls,rs) = partition ((<0) . fst) lrs
dirSort δ₁ δ₂ | δ₁ < δ₂ = (δ₁, δ₂)
| otherwise = (δ₂, δ₁)
lLoop ps@(p:_) = Dia.fromVertices $ ps++[p]
[xmin, ymin, xmax, ymax]
= [minimum, maximum]<*>[fst.fst<$>locals, (^.shadeCtr).snd.fst<$>locals]
locals :: [((ℝ, Shade' ℝ), [(ℝ, Shade' ℝ)])]
locals = Hask.toList $ localFocusWeb web
plot _ = def
instance Plottable (PointsWeb ℝ² (CSp.Colour ℝ)) where
plot web = plot (coerceWebDomain web :: PointsWeb (ℝ,ℝ) (CSp.Colour ℝ))
instance Plottable (PointsWeb (ℝ,ℝ) (CSp.Colour ℝ)) where
plot = webbedSurfPlot $ pure . toRGBA
where toRGBA (Just c)
= JPix.promotePixel (CSp.quantiseColour c :: JPix.PixelRGB8)
toRGBA _ = JPix.PixelRGBA8 0 0 0 0
instance Plottable (PointsWeb ℝ² (Shade (CSp.Colour ℝ))) where
plot web = plot (coerceWebDomain web :: PointsWeb (ℝ,ℝ) (Shade (CSp.Colour ℝ)))
instance Plottable (PointsWeb (ℝ,ℝ) (Shade (CSp.Colour ℝ))) where
plot = webbedSurfPlot $ toRGBA
where toRGBA (Just c)
= JPix.promotePixel . (CSp.quantiseColour :: CSp.Colour ℝ -> JPix.PixelRGB8)
<$> Random.rvar c
toRGBA _ = return $ JPix.PixelRGBA8 0 0 0 0
webbedSurfPlot :: Geodesic a
=> (Maybe a -> Random.RVar JPix.PixelRGBA8)
-> PointsWeb (ℝ,ℝ) a -> DynamicPlottable
webbedSurfPlot toRGBA web = def & dynamicPlot .~ plotWeb
& relevantRange_x .~ atLeastInterval (x₀...x₁)
& relevantRange_y .~ atLeastInterval (y₀...y₁)
& occlusiveness .~ 4
where plotWeb graSpec = do
pixRendered <- pixRender
pure . mkPlot $
(Dia.image $ Dia.DImage
(Dia.ImageRaster $ JPix.ImageRGBA8 pixRendered)
renderWidth renderHeight
placement)
cartesianed = sampleEntireWeb_2Dcartesian_lin web renderWidth renderHeight
renderWidth = 120
renderHeight = 90
x₀ = minimum (fst<$>pts)
x₁ = maximum (fst<$>pts)
y₀ = minimum (snd<$>pts)
y₁ = maximum (snd<$>pts)
pts = fst . fst <$> Hask.toList (localFocusWeb web)
xc = (x₀+x₁)/2
yc = (y₀+y₁)/2
wPix = (x₁ x₀)/renderWidth
hPix = (y₁ y₀)/renderHeight
placement = Dia.translation (xc^&yc) <> Dia.scalingX wPix <> Dia.scalingY hPix
pixRender = do
seed <- Random.mkStdGen <$> Random.stdUniform
return $ runST (do
randomGen <- newSTRef seed
cursorState <- newSTRef (0, reverse cartesianed)
JPix.withImage renderWidth renderHeight $ \_ix iy -> do
(iyPrev, (y, xvs) : yvs) <- readSTRef cursorState
vc <- if iy > iyPrev
then case yvs of
((y',(_x,vc):xvs') : yvs') -> do
writeSTRef cursorState (iy, (y', xvs') : yvs')
return vc
else case xvs of
((_x,vc) : xvs') -> do
writeSTRef cursorState (iy, (y, xvs') : yvs)
return vc
rg <- readSTRef randomGen
let (c, rg') = Random.sampleState (toRGBA vc) rg
writeSTRef randomGen rg'
return c
)
instance (Plottable x) => Plottable (Latest x) where
plot (Latest (ev₀ :| [])) = plot ev₀
plot (Latest (ev₀ :| ev₁:evs))
= plot ev₀ & futurePlots .~ (Just . plot . Latest $ ev₁:|evs)
plotLatest :: Plottable x => [x] -> DynamicPlottable
plotLatest (x:xs) = plot $ Latest (x:|xs)
plotLatest l = plot l
instance Plottable (SimpleTree P2) where
plot (GenericTree Nothing) = plot ([] :: [SimpleTree P2])
plot (GenericTree (Just (ctr, root)))
= def
& relevantRange_x .~ atLeastInterval xRange
& relevantRange_y .~ atLeastInterval yRange
& autoTint
& axesNecessity .~ 1
& dynamicPlot .~ plot
where plot _ = pure . mkPlot $ go 4 ctr (treeBranches root)
where go w bctr = foldMap (\(c,GenericTree b)
-> autoDashLine w bctr c
<> go (w*0.6) c b )
(xRange, yRange) = let allPoints = gPts tree
(xmin,xmax) = (minimum&&&maximum) $ (^._x) <$> allPoints
(ymin,ymax) = (minimum&&&maximum) $ (^._y) <$> allPoints
in (xmin ... xmax, ymin ... ymax)
where gPts (GenericTree brchs) = foldr (\(c,b) r -> c : gPts b ++ r) [] brchs
tree = GenericTree [(ctr,root)]
instance Plottable (Trees P2) where
plot (GenericTree ts) = plot $ (GenericTree . Just) <$> ts
instance Plottable (Trees R2) where
plot = plot . fmap Dia.P
instance Plottable (SimpleTree (R,R)) where
plot = plot . fmap (\(x,y) -> DiaTypes.p2 (x,y))
instance Plottable (Trees (R,R)) where
plot (GenericTree ts) = plot $ (GenericTree . Just) <$> ts
instance Plottable (SimpleTree (R`WithAny`R)) where
plot = plot . fmap (\(WithAny y x) -> DiaTypes.p2 (x,y))
instance Plottable (Trees (R`WithAny`R)) where
plot (GenericTree ts) = plot $ (GenericTree . Just) <$> ts
pixelDim :: GraphWindowSpecR2 -> (R, R)
pixelDim grWS = ( graphWindowWidth grWS / fromIntegral (xResolution grWS)
, graphWindowHeight grWS / fromIntegral (yResolution grWS) )
singlePointFor :: GraphWindowSpecR2 -> P2 -> PlainGraphicsR2
singlePointFor spec = Dia.place circ
where (pxw,pxh) = pixelDim spec
circ = Dia.circle 1 & Dia.scaleX pxw & Dia.scaleY pxh
moveStepRel :: (R, R)
-> (R, R)
-> GraphWindowSpec -> GraphWindowSpec
moveStepRel (δx,δy) (ζx,ζy) (GraphWindowSpecR2 l r b t xRes yRes clSchm)
= GraphWindowSpecR2 l' r' b' t' xRes yRes clSchm
where qx = (rl)/2 ; qy = (tb)/2
mx'= l + qx*(1+δx) ; my'= b + qy*(1+δy)
qx'= zoomSafeGuard mx' $ qx/ζx; qy'= zoomSafeGuard my' $ qy/ζy
l' = mx' qx' ; b' = my' qy'
r' = mx' + qx' ; t' = my' + qy'
zoomSafeGuard m = max (1e-250 + abs m*1e-6) . min 1e+250
graphWindowWidth, graphWindowHeight :: GraphWindowSpec -> R
graphWindowWidth grWS = rBound grWS lBound grWS
graphWindowHeight grWS = tBound grWS bBound grWS
instance Semigroup Plot where
Plot a1 d1 <> Plot a2 d2 = Plot (a1<>a2) (d1<>d2)
instance Monoid Plot where
mempty = Plot mempty mempty
mappend = (<>)
mkPlot :: PlainGraphicsR2 -> Plot
mkPlot = Plot mempty
mkAnnotatedPlot :: [Annotation] -> PlainGraphicsR2 -> Plot
mkAnnotatedPlot ans = Plot ans
instance Semigroup DynamicPlottable where
DynamicPlottable rx₁ ry₁ tm₁ oc₁ ax₁ dl₁ le₁ fu₁ dp₁
<> DynamicPlottable rx₂ ry₂ tm₂ oc₂ ax₂ dl₂ le₂ fu₂ dp₂
= DynamicPlottable
(rx₁<>rx₂) (ry₁<>ry₂) (tm₁++tm₂) (oc₁+oc₂) (ax₁+ax₂) (max dl₁ dl₂)
(le₁++le₂) ((<>)<$>fu₁<*>fu₂) (liftA2(<>)<$>dp₁<*>dp₂)
instance Monoid DynamicPlottable where
mempty = DynamicPlottable
mempty
mempty
[]
0
0
(1/20)
[]
mempty
(const $ pure mempty)
mappend = (<>)
instance Default DynamicPlottable where def = mempty
legendName :: String -> DynamicPlottable -> DynamicPlottable
legendName n = legendEntries %~ (LegendEntry (PlainText n) mempty :)
>>> futurePlots %~ fmap (legendName n)
tint :: DCol.Colour ℝ -> DynamicPlottable -> DynamicPlottable
tint col = inherentColours .~ [col]
>>> dynamicPlot %~ fmap (fmap $ getPlot %~ Dia.lc col . Dia.fc col)
autoTint :: DynamicPlottable -> DynamicPlottable
autoTint = inherentColours .~ []
instance (Ord r) => Semigroup (RangeRequest r) where
MustBeThisRange r <> _ = MustBeThisRange r
_ <> MustBeThisRange r = MustBeThisRange r
OtherDimDependantRange r1 <> OtherDimDependantRange r2 = OtherDimDependantRange $ r1<>r2
instance (Ord r) => Monoid (RangeRequest r) where
mempty = OtherDimDependantRange $ const Nothing
mappend = (<>)
otherDimDependence :: (Interval r->Interval r) -> RangeRequest r
otherDimDependence = OtherDimDependantRange . fmap
atLeastInterval :: Interval r -> RangeRequest r
atLeastInterval = atLeastInterval' . pure
atLeastInterval' :: Maybe (Interval r) -> RangeRequest r
atLeastInterval' = OtherDimDependantRange . const
plotWindow :: [DynamicPlottable] -> IO GraphWindowSpec
plotWindow [] = plotWindow [dynamicAxes]
plotWindow givenPlotObjs = runInBoundThread $ do
let defColourScheme = defaultColourScheme
viewState <- newIORef $ autoDefaultView givenPlotObjs
viewTgt <- newIORef =<< readIORef viewState
viewTgtGlobal <- newMVar =<< readIORef viewState
screenResolution <- newIORef (640, 480)
dgStore <- newIORef mempty
(plotObjs, cancelWorkers) :: ([ObjInPlot], IO ()) <- do
let assignPlObjPropties :: [DynamicPlottable] -> [Colour] -> Necessity
-> IO [(ObjInPlot, ThreadId)]
assignPlObjPropties [] _ axesNeed
| axesNeed > 0 = assignPlObjPropties [dynamicAxes] [grey] (1)
| otherwise = return []
assignPlObjPropties (o:os) (c:cs) axn = do
newDia <- newEmptyMVar
workerId <- forkIO $ objectPlotterThread o viewTgtGlobal newDia
stableView <- newIORef Nothing
((ObjInPlot stableView newDia cl o, workerId) :)
<$> assignPlObjPropties os cs' (axn + o^.axesNecessity)
where (cl, cs')
| null (o^.inherentColours) = (Just $ defColourScheme c, cs)
| otherwise = (Nothing, c:cs)
(pObs, workerId) <- unzip <$> assignPlObjPropties givenPlotObjs defaultColourSeq 0
return ( sortBy (comparing $ _occlusiveness . _originalPlotObject) pObs
, forM_ workerId killThread )
GTK.initGUI
window <- GTK.windowNew
mouseAnchor <- newIORef Nothing
refreshDraw <- do
drawA <- GTK.drawingAreaNew
GTK.onExpose drawA $ \_ -> do
(canvasX,canvasY) <- GTK.widgetGetSize drawA
modifyIORef viewTgt $ \view -> view{ xResolution = fromIntegral canvasX
, yResolution = fromIntegral canvasY }
dia <- readIORef dgStore
let scaledDia = Dia.bg Dia.black
. Dia.scaleX (fromInt canvasX / 2)
. Dia.scaleY (fromInt canvasY / 2)
. Dia.translate (1 ^& (1))
. Dia.withEnvelope (Dia.rect 2 2 :: PlainGraphicsR2)
$ dia
drawWindow <- GTK.widgetGetDrawWindow drawA
BGTK.renderToGtk drawWindow $ scaledDia
return True
GTK.on drawA GTK.buttonPressEvent . Event.tryEvent $ do
Event.eventButton >>= guard.(==defaultDragButton)
anchXY <- Event.eventCoordinates
liftIO . writeIORef mouseAnchor $ Just anchXY
GTK.on drawA GTK.buttonReleaseEvent . Event.tryEvent $ do
Event.eventButton >>= guard.(==defaultDragButton)
liftIO . writeIORef mouseAnchor $ Nothing
GTK.on drawA GTK.motionNotifyEvent . Event.tryEvent $ do
liftIO (readIORef mouseAnchor) >>= \case
Just (oldX,oldY) -> do
(mvX,mvY) <- Event.eventCoordinates
(canvasX,canvasY) <- liftIO $ GTK.widgetGetSize drawA
let ηX = (oldXmvX) / fromIntegral canvasX
ηY = (mvYoldY) / fromIntegral canvasY
liftIO . modifyIORef viewTgt $ \view@GraphWindowSpecR2{..} ->
let w = rBound lBound
h = tBound bBound
in view{ lBound = lBound + w * ηX
, rBound = rBound + w * ηX
, tBound = tBound + h * ηY
, bBound = bBound + h * ηY
}
liftIO . modifyIORef mouseAnchor . fmap $ const (mvX,mvY)
Nothing -> mzero
GTK.widgetAddEvents drawA [GTK.ButtonMotionMask]
GTK.on drawA GTK.scrollEvent . Event.tryEvent $ do
(canvasX,canvasY) <- liftIO $ GTK.widgetGetSize drawA
(scrollX,scrollY) <- Event.eventCoordinates
let (rcX,rcY) = ( scrollX*2 / fromIntegral canvasX 1
, 1 scrollY*2 / fromIntegral canvasY )
scrollD <- Event.eventScrollDirection
liftIO . modifyIORef viewTgt $ \view@GraphWindowSpecR2{..} ->
let w = rBound lBound
h = tBound bBound
ηl = (rcX + 1)^2/4; ηr = (rcX 1)^2/4
ηb = (rcY + 1)^2/4; ηt = (rcY 1)^2/4
ηh = (1ηt) * (1ηb) + ηl + ηr
ηv = (1ηl) * (1ηr) + ηt + ηb
in case defaultScrollBehaviour scrollD of
ScrollZoomIn -> view{
lBound = lBound + w * ηl * ηh * scrollZoomStrength
, rBound = rBound w * ηr * ηh * scrollZoomStrength
, tBound = tBound h * ηt * ηv * scrollZoomStrength
, bBound = bBound + h * ηb * ηv * scrollZoomStrength
}
ScrollZoomOut -> view{
lBound = lBound w * ηr * ηh * scrollZoomStrength
, rBound = rBound + w * ηl * ηh * scrollZoomStrength
, tBound = tBound + h * ηb * ηv * scrollZoomStrength
, bBound = bBound h * ηt * ηv * scrollZoomStrength
}
GTK.set window [ GTK.windowTitle := "Plot"
, GTK.windowDefaultWidth := defResX
, GTK.windowDefaultHeight := defResY
, GTK.containerChild := drawA
]
GTK.widgetShowAll window
return $ GTK.widgetQueueDraw drawA
t₀ <- getCurrentTime
lastFrameTime <- newIORef t₀
let refreshScreen = do
currentView@(GraphWindowSpecR2{..}) <- readIORef viewState
let normaliseView :: PlainGraphicsR2 -> PlainGraphicsR2
normaliseView = (Dia.scaleX xUnZ :: PlainGraphicsR2->PlainGraphicsR2)
. Dia.scaleY yUnZ
. Dia.translate (Dia.r2(x₀,y₀))
where xUnZ = 1/w; yUnZ = 1/h
w = (rBound lBound)/2; h = (tBound bBound)/2
x₀ = lBound + w; y₀ = bBound + h
textTK txSiz asp = TextTK defaultTxtStyle txSiz asp 0.2 0.2
renderComp plotObj = do
plt <- tryTakeMVar (plotObj^.newPlotView) >>= \case
Nothing -> fmap snd <$> readIORef (plotObj^.lastStableView)
newDia -> do
writeIORef (plotObj^.lastStableView) newDia
return $ snd <$> newDia
case plt of
Nothing -> return mempty
Just (Plot{..}, objLegend) -> let
antTK = DiagramTK { viewScope = currentView
, textTools = textTK txtSize aspect }
txtSize = h * fontPts / fromIntegral yResolution
aspect = w * fromIntegral yResolution
/ (h * fromIntegral xResolution)
fontPts = 12
transform :: PlainGraphicsR2 -> PlainGraphicsR2
transform = normaliseView . clr
where clr | Just c <- plotObj^.plotObjColour
= Dia.lcA c . Dia.fcA c
| otherwise = id
in do
renderedAnnot <- mapM (prerenderAnnotation antTK) _plotAnnotations
return (transform $ fold renderedAnnot <> _getPlot, objLegend)
(thisPlots, thisLegends)
<- unzip . reverse <$> mapM renderComp (reverse plotObjs)
let thePlot = mconcat thisPlots
theLegend <- prerenderLegend (textTK 10 1) colourScheme
$ (\(g,l) -> (,) <$> l <*> [g^.plotObjColour]
) =<< zip plotObjs thisLegends
writeIORef dgStore $ ( theLegend & Dia.scaleX (0.1 / sqrt (fromIntegral xResolution))
& Dia.scaleY (0.1 / sqrt (fromIntegral yResolution))
& (`Dia.place`(0.75^&0.75)) )
<> thePlot
refreshDraw
let mainLoop = do
t <- getCurrentTime
δt <- fmap (diffUTCTime t) $ readIORef lastFrameTime
writeIORef lastFrameTime t
do vt <- readIORef viewTgt
modifyMVar_ viewTgtGlobal . const $ return vt
modifyIORef viewState $ \vo ->
let a%b = let η = min 1 $ 2 * realToFrac δt in η*a + (1η)*b
in GraphWindowSpecR2 (lBound vt % lBound vo) (rBound vt % rBound vo)
(bBound vt % bBound vo) (tBound vt % tBound vo)
(xResolution vt) (yResolution vt)
defColourScheme
refreshScreen
return True
GTK.onDestroy window $ do
cancelWorkers
GTK.mainQuit
GTK.timeoutAdd mainLoop 50
GTK.mainGUI
readIORef viewState
objectPlotterThread :: DynamicPlottable
-> MVar GraphWindowSpec
-> MVar (GraphWindowSpec, (Plot, [LegendEntry]))
-> IO ()
objectPlotterThread pl₀ viewVar diaVar = loop pl₀ where
loop pl = do
tPrev <- getCurrentTime
view <- readMVar viewVar
diagram <- evaluate =<< Random.runRVar (pl^.dynamicPlot $ view) Random.StdRandom
putMVar diaVar (view, (diagram, pl^.legendEntries))
waitTill $ addUTCTime (pl^.frameDelay) tPrev
case pl^.futurePlots of
Just pl' -> loop pl'
Nothing -> loop pl
autoDefaultView :: [DynamicPlottable] -> GraphWindowSpec
autoDefaultView graphs = GraphWindowSpecR2 l r b t defResX defResY defaultColourScheme
where (xRange, yRange) = foldMap (_relevantRange_x &&& _relevantRange_y) graphs
((l,r), (b,t)) = ( xRange `dependentOn` yRange
, yRange `dependentOn` xRange )
dependentOn :: RangeRequest R -> RangeRequest R -> (R,R)
MustBeThisRange (Interval a b) `dependentOn` _ = (a,b)
OtherDimDependantRange ξ `dependentOn` MustBeThisRange i
= addMargin . defRng . ξ $ pure i
OtherDimDependantRange ξ `dependentOn` OtherDimDependantRange υ
= addMargin . defRng . ξ . pure . defRng $ υ Nothing
defRng (Just (Interval a b)) | b>a
= Interval a b
defRng _ = Interval (1) 1
addMargin (Interval a b) = (a q, b + q)
where q = (b a) / 6
defResX, defResY :: Integral i => i
defResX = 640
defResY = 480
data ScrollAction = ScrollZoomIn | ScrollZoomOut
defaultScrollBehaviour :: Event.ScrollDirection -> ScrollAction
defaultScrollBehaviour Event.ScrollUp = ScrollZoomIn
defaultScrollBehaviour Event.ScrollDown = ScrollZoomOut
defaultDragButton :: Event.MouseButton
defaultDragButton = Event.MiddleButton
scrollZoomStrength :: Double
scrollZoomStrength = 1/20
continFnPlot :: (Double -> Double) -> DynamicPlottable
continFnPlot f = def
& relevantRange_y .~ otherDimDependence yRangef
& autoTint
& axesNecessity .~ 1
& dynamicPlot .~ pure . plot
where yRangef = onInterval $ \(l, r) -> ((!%0.1) &&& (!%0.9)) . sort . pruneOutlyers
$ map f [l, l + (rl)/80 .. r]
plot (GraphWindowSpecR2{..}) = curve `deepseq` mkPlot (trace curve)
where δx = (rBound lBound) * 2 / fromIntegral xResolution
curve = [ (x ^& f x) | x<-[lBound, lBound+δx .. rBound] ]
trace (p:q:ps) = simpleLine p q <> trace (q:ps)
trace _ = mempty
pruneOutlyers = filter (not . isNaN)
l!%η = case length l of
ll | ll<2 -> error
"Function appears to yield NaN most of the time. Cannot be plotted."
| otherwise -> l !! floor (fromIntegral ll * η)
type (-->) = RWDiffable ℝ
fnPlot :: (∀ m . Object (RWDiffable ℝ) m
=> AgentVal (-->) m ℝ -> AgentVal (-->) m ℝ )
-> DynamicPlottable
fnPlot f = plot fd
where fd :: ℝ --> ℝ
fd = alg f
uncertainFnPlot :: ∀ m . (SimpleSpace m, Scalar m ~ ℝ)
=> (ℝ -> (m +> ℝ)) -> Shade' m -> DynamicPlottable
uncertainFnPlot = case linearManifoldWitness :: LinearManifoldWitness m of
LinearManifoldWitness BoundarylessWitness -> \mfun (Shade' mBest me)
-> plot $ continFnPlot (($ mBest) . mfun)
: [ tweakPrerendered (Dia.opacity 0.2)
$ continFnPlot (($ mBest^+^σ*^δm) . mfun)
| δm <- normSpanningSystem' me
, σ <- [1,1] ]
linregressionPlot :: ∀ x m y . ( SimpleSpace m, Scalar m ~ ℝ, y ~ ℝ, x ~ ℝ )
=> (x -> (m +> y)) -> [(x, Shade' y)]
-> (Shade' m -> DynamicPlottable -> DynamicPlottable
-> DynamicPlottable)
-> DynamicPlottable
linregressionPlot = lrp (linearManifoldWitness, dualSpaceWitness)
where lrp :: (LinearManifoldWitness m, DualSpaceWitness m)
-> (x -> (m +> y)) -> [(x, Shade' y)]
-> (Shade' m -> DynamicPlottable -> DynamicPlottable
-> DynamicPlottable)
-> DynamicPlottable
lrp _ _ [] _ = mempty
lrp (LinearManifoldWitness BoundarylessWitness, DualSpaceWitness)
mfun dataPts resultHook = resultHook shm
(plot [ plot (Shade (x,y) (sumSubspaceNorms mempty $ dualNorm ey)
:: Shade (ℝ,ℝ))
| (x, Shade' y ey) <- dataPts ])
(uncertainFnPlot mfun shm)
where (mBest, mDevs) = linearRegressionWVar (mfun . (bcx.+~^))
[ (δx,(fromInterior y,ey))
| (x,Shade' y ey)<-dataPts
, let Just δx = x.-~.bcx ]
Just bcx = (pointsBarycenter . NE.fromList $ fst<$>dataPts)
shm :: Shade' m
shm@(Shade' _ em) = dualShade . coverAllAround mBest
$ convexPolytopeRepresentatives mDevs
paramPlot :: (∀ m . ( WithField ℝ PseudoAffine m, SimpleSpace (Needle m) )
=> AgentVal (-->) m ℝ -> (AgentVal (-->) m ℝ, AgentVal (-->) m ℝ) )
-> DynamicPlottable
paramPlot f = plot fd
where fd :: ℝ --> (ℝ,ℝ)
fd = alg1to2 f
scrutiniseDiffability :: (∀ m . ( WithField ℝ PseudoAffine m
, SimpleSpace (Needle m) )
=> AgentVal (-->) m ℝ -> AgentVal (-->) m ℝ )
-> DynamicPlottable
scrutiniseDiffability f = plot [dframe 0.2, dframe 0.02]
where fd :: ℝ --> ℝ
fd = alg f
fscrut = analyseLocalBehaviour fd
dframe rfh = def
& autoTint
& dynamicPlot .~ pure . mkFrame
where mkFrame (GraphWindowSpecR2{..}) = case fscrut xm of
Just ((ym,y'm), δOδx²)
| Just δx <- δOδx² δy
-> δx `seq` let frame = mconcat
[ simpleLine ((xmδx)^&(ym+yoδx*y'm))
((xm+δx)^&(ym+yo+δx*y'm))
| yo <- [δy, δy] ]
in mkPlot frame
| otherwise
-> y'm `seq` mkPlot
( autoDashLine 0.5 ((xmδxdef)^&(ymδxdef*y'm))
((xm+δxdef)^&(ym+δxdef*y'm)) )
_ -> mempty
where xm = (rBound + lBound) / 2
δxdef = (rBound lBound) / 10
δy = rfh * (tBound bBound)
continColourSurfaceFnPlot :: ((Double,Double) -> DCol.Colour Double) -> DynamicPlottable
continColourSurfaceFnPlot f = def
& axesNecessity .~ 1
& occlusiveness .~ 4
& dynamicPlot .~ plot
where plot (GraphWindowSpecR2{..}) = pure . mkPlot
$ Dia.place
( Dia.rasterDia cf (xResolution`div`4) (yResolution`div`4)
& Dia.scaleX wPix & Dia.scaleY hPix
) ( ((lBound+rBoundwPix)/2) ^& ((tBound+bBound+hPix)/2) )
where cf i j = f ( lBound + wPix * fromIntegral i, tBound hPix * fromIntegral j )
`Dia.withOpacity` 0.2
w = rBound lBound; h = tBound bBound
wPix = w*4 / fromIntegral xResolution
hPix = h*4 / fromIntegral yResolution
data AxesStyle = DynamicAxesStyle
data DynamicAxes = DynamicAxes { yAxisClasses, xAxisClasses :: [AxisClass] }
data AxisClass = AxisClass { visibleAxes :: [Axis], axisStrength :: Double, decPrecision :: Int }
data Axis = Axis { axisPosition :: R }
crtDynamicAxes :: GraphWindowSpec -> DynamicAxes
crtDynamicAxes (GraphWindowSpecR2 {..}) = DynamicAxes yAxCls xAxCls
where [yAxCls, xAxCls] = zipWith3 directional
[lBound, bBound] [rBound, tBound] [xResolution, yResolution]
directional l u res = map lvl lvlSpecs
where span = u l
upDecaSpan = 10**(ceil $ lg span)
pixelScale = span / (fromIntegral res * upDecaSpan)
baseDecaval = upDecaSpan * (flor $ l / upDecaSpan)
lvl (minSpc, strength)
= AxisClass [ Axis v | i<-[0 .. luDSdiv*2]
, let v=(baseDecaval + i*laSpc), v>l, v<u ]
strength
(floor $ lg laSpc)
where laSpc = upDecaSpan / luDSdiv
luDSdiv = ll . takeWhile (\d -> pixelScale * minSpc < 1/d )
. join $ iterate (map(*10)) [1, 2, 5]
ll [] = error $ "pixelScale = "++show pixelScale
++"; minSpc = "++show minSpc
ll l = last l
lvlSpecs = [ (80, 0.3), (18, 0.1) ]
dynamicAxes :: DynamicPlottable
dynamicAxes = def
& axesNecessity .~ superfluent
& occlusiveness .~ 1
& dynamicPlot .~ pure . plot
where plot gwSpec@(GraphWindowSpecR2{..}) = Plot labels lines
where (DynamicAxes yAxCls xAxCls) = crtDynamicAxes gwSpec
lines = zeroLine (lBound^&0) (rBound^&0) `provided`(bBound<0 && tBound>0)
<> zeroLine (0^&bBound) (0^&tBound) `provided`(lBound<0 && rBound>0)
<> foldMap (renderClass $ \x -> (x^&bBound, x^&tBound)) yAxCls
<> foldMap (renderClass $ \y -> (lBound^&y, rBound^&y)) xAxCls
labels = do (dirq, hAlign, vAlign, acl) <- zip4 [\x -> x^&0, \y -> 0^&y ]
[AlignMid , AlignTop ]
[AlignTop , AlignMid ]
[yAxCls , xAxCls ]
let (AxisClass vaxs _ prc) = head acl
prepAnnotation (Axis{axisPosition=z}) = do
guard(z/=0)
[Annotation (TextAnnotation txt align) place False]
where txt = PlainText . prettyFloatShow prc $ realToFrac z
place = ExactPlace $ dirq z
align = TextAlignment hAlign vAlign
prepAnnotation =<< vaxs
zeroLine p1 p2 = simpleLine p1 p2 & Dia.lc Dia.grey
renderClass crd (AxisClass axes strength _)
= foldMap (uncurry simpleLine . crd . axisPosition) axes
& Dia.lcA (Dia.grey `DCol.withOpacity` strength)
noDynamicAxes :: DynamicPlottable
noDynamicAxes = def & axesNecessity .~ superfluent
simpleLine :: P2 -> P2 -> PlainGraphicsR2
simpleLine = simpleLine' 2
simpleLine' :: Double -> P2 -> P2 -> PlainGraphicsR2
simpleLine' w p q = Dia.fromVertices [p,q] & Dia.lwO w
autoDashLine :: Double -> P2 -> P2 -> PlainGraphicsR2
autoDashLine w p q = simpleLine' (max 1 w) p q
& if w < 1 then Dia.dashingO [w*6, 3] 0 else id
tweakPrerendered :: (PlainGraphicsR2->PlainGraphicsR2) -> DynamicPlottable->DynamicPlottable
tweakPrerendered f = dynamicPlot %~ (fmap tweak .)
where tweak = getPlot %~ f
opacityFactor :: Double -> DynamicPlottable -> DynamicPlottable
opacityFactor = tweakPrerendered . Dia.opacity
xInterval :: (Double, Double) -> DynamicPlottable
forceXRange :: (Double, Double) -> DynamicPlottable
yInterval, forceYRange :: (Double, Double) -> DynamicPlottable
xInterval (l,r) = mempty & relevantRange_x .~ atLeastInterval (Interval l r)
forceXRange (l,r) = mempty & relevantRange_x .~ MustBeThisRange (Interval l r)
yInterval (b,t) = mempty & relevantRange_y .~ atLeastInterval (Interval b t)
forceYRange (b,t) = mempty & relevantRange_y .~ MustBeThisRange (Interval b t)
newtype ViewXCenter = ViewXCenter { getViewXCenter :: Double }
instance (Plottable p) => Plottable (ViewXCenter -> p) where
plot f = def & relevantRange_y .~ OtherDimDependantRange
(\g -> deescalate relevantRange_y g . plot . f . cxI =<< g)
& inherentColours .~ fcxVoid^.inherentColours
& axesNecessity .~ fcxVoid^.axesNecessity
& dynamicPlot .~ \g -> _dynamicPlot (plot . f $ cx g) g
where cx (GraphWindowSpecR2{..}) = ViewXCenter $ (lBound+rBound)/2
cxI (Interval l r) = ViewXCenter $ (l+r)/2
fcxVoid = plot . f $ ViewXCenter 0.23421
deescalate rfind otherdim p = case p^.rfind of
MustBeThisRange i -> pure i
OtherDimDependantRange ifr -> ifr otherdim
newtype ViewYCenter = ViewYCenter { getViewYCenter :: Double }
instance (Plottable p) => Plottable (ViewYCenter -> p) where
plot f = def & relevantRange_x .~ OtherDimDependantRange
(\g -> deescalate relevantRange_x g . plot . f . cyI =<< g)
& inherentColours .~ fcyVoid^.inherentColours
& axesNecessity .~ fcyVoid^.axesNecessity
& dynamicPlot .~ \g -> _dynamicPlot (plot . f $ cy g) g
where cy (GraphWindowSpecR2{..}) = ViewYCenter $ (bBound+tBound)/2
cyI (Interval b t) = ViewYCenter $ (b+t)/2
fcyVoid = plot . f $ ViewYCenter 0.319421
deescalate rfind otherdim p = case p^.rfind of
MustBeThisRange i -> pure i
OtherDimDependantRange ifr -> ifr otherdim
newtype ViewWidth = ViewWidth { getViewWidth :: Double }
instance (Plottable p) => Plottable (ViewWidth -> p) where
plot f = def & relevantRange_y .~ OtherDimDependantRange
(\g -> deescalate relevantRange_y g . plot . f . wI =<< g)
& inherentColours .~ fwVoid^.inherentColours
& axesNecessity .~ fwVoid^.axesNecessity
& dynamicPlot .~ \g -> _dynamicPlot (plot . f $ w g) g
where w (GraphWindowSpecR2{..}) = ViewWidth $ rBound lBound
wI (Interval l r) = ViewWidth $ r l
fwVoid = plot . f $ ViewWidth 2.142349
deescalate rfind otherdim p = case p^.rfind of
MustBeThisRange i -> pure i
OtherDimDependantRange ifr -> ifr otherdim
newtype ViewHeight = ViewHeight { getViewHeight :: Double }
instance (Plottable p) => Plottable (ViewHeight -> p) where
plot f = def & relevantRange_x .~ OtherDimDependantRange
(\g -> deescalate relevantRange_x g . plot . f . hI =<< g)
& inherentColours .~ fhVoid^.inherentColours
& axesNecessity .~ fhVoid^.axesNecessity
& dynamicPlot .~ \g -> _dynamicPlot (plot . f $ h g) g
where h (GraphWindowSpecR2{..}) = ViewHeight $ tBound bBound
hI (Interval b t) = ViewHeight $ t b
fhVoid = plot . f $ ViewHeight 1.494213
deescalate rfind otherdim p = case p^.rfind of
MustBeThisRange i -> pure i
OtherDimDependantRange ifr -> ifr otherdim
newtype ViewXResolution = ViewXResolution { getViewXResolution :: Int }
newtype ViewYResolution = ViewYResolution { getViewYResolution :: Int }
atExtendOf :: PlainGraphicsR2 -> PlainGraphicsR2 -> PlainGraphicsR2
atExtendOf d₁ = atExtendOf' d₁ 1
atExtendOf' :: PlainGraphicsR2 -> Double -> PlainGraphicsR2 -> PlainGraphicsR2
atExtendOf' d₁ q d₂ = d₂
& Dia.translate ((pux+plxluxllx)/2 ^& (puy+plyluylly)/2)
& Dia.scaleX (q*(puxplx)/(luxllx))
& Dia.scaleY (q*(puyply)/(luylly))
where (Just (plx,pux)) = Dia.extentX d₁; (Just (ply,puy)) = Dia.extentY d₁
(Just (llx,lux)) = Dia.extentX d₂; (Just (lly,luy)) = Dia.extentY d₂
waitTill :: UTCTime -> IO ()
waitTill t = do
tnow <- getCurrentTime
threadDelay . max 1000 . round $ diffUTCTime t tnow
* 1e+6
plotDelay :: NominalDiffTime -> DynamicPlottable -> DynamicPlottable
plotDelay dly = frameDelay .~ dly
>>> futurePlots %~ fmap (plotDelay dly)