Update package to Idris2 0.5.1
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@ -4,7 +4,7 @@ version = 0.1.0
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authors = "Kiana Sheibani"
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license = "MIT"
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langversion >= 0.4.0
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langversion >= 0.5.1
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sourcedir = "src"
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readme = "README.md"
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@ -280,7 +280,7 @@ indexSet is = indexUpdate is . const
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||| Index the array using the given range of coordinates, returning a new array.
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export
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indexRange : (rs : CoordsRange s) -> Array s a -> Array (newShape rs) a
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indexRange rs arr with (viewShape arr)
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indexRange {s} rs arr with (viewShape arr)
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_ | Shape s =
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let ord = getOrder arr
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sts = calcStrides ord s'
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@ -350,7 +350,7 @@ indexSetNB is = indexUpdateNB is . const
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export
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indexRangeNB : (rs : Vect rk CRangeNB) -> Array s a -> Array (newShape s rs) a
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indexRangeNB rs arr with (viewShape arr)
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indexRangeNB {s} rs arr with (viewShape arr)
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_ | Shape s =
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let ord = getOrder arr
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sts = calcStrides ord s'
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@ -403,7 +403,7 @@ reshape s' arr = reshape' s' (getOrder arr) arr
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||| Change the internal order of the array's elements.
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export
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reorder : Order -> Array s a -> Array s a
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reorder ord' arr with (viewShape arr)
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reorder {s} ord' arr with (viewShape arr)
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_ | Shape s = let sts = calcStrides ord' s
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in MkArray ord' sts _ (unsafeFromIns (product s) $
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map (\is => (getLocation' sts is, index (getLocation' (strides arr) is) (getPrim arr))) $
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@ -450,7 +450,7 @@ enumerateNB (MkArray _ sts sh p) =
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||| List all of the values in an array along with their coordinates.
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export
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enumerate : Array s a -> List (Coords s, a)
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enumerate arr with (viewShape arr)
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enumerate {s} arr with (viewShape arr)
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_ | Shape s = map (\is => (is, index is arr)) (getAllCoords s)
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@ -487,7 +487,7 @@ stack axis arrs = rewrite sym (lengthCorrect arrs) in
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export
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transpose : Array s a -> Array (reverse s) a
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transpose arr with (viewShape arr)
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transpose {s} arr with (viewShape arr)
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_ | Shape s = fromFunctionNB (reverse s) (\is => arr !# reverse is)
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export
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@ -497,22 +497,22 @@ export
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export
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swapAxes : (i,j : Fin rk) -> Array s a -> Array (swapElems i j s) a
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swapAxes i j arr with (viewShape arr)
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swapAxes {s} i j arr with (viewShape arr)
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_ | Shape s = fromFunctionNB _ (\is => arr !# swapElems i j is)
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export
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permuteAxes : (p : Permutation rk) -> Array s a -> Array (permuteVect p s) a
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permuteAxes p arr with (viewShape arr)
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permuteAxes {s} p arr with (viewShape arr)
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_ | Shape s = fromFunctionNB _ (\is => arr !# permuteVect p s)
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export
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swapInAxis : (ax : Fin rk) -> (i,j : Fin (index ax s)) -> Array s a -> Array s a
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swapInAxis ax i j arr with (viewShape arr)
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swapInAxis {s} ax i j arr with (viewShape arr)
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_ | Shape s = fromFunctionNB _ (\is => arr !# updateAt ax (swapValues i j) is)
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export
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permuteInAxis : (ax : Fin rk) -> Permutation (index ax s) -> Array s a -> Array s a
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permuteInAxis ax p arr with (viewShape arr)
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permuteInAxis {s} ax p arr with (viewShape arr)
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_ | Shape s = fromFunctionNB _ (\is => arr !# updateAt ax (permuteValues p) is)
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@ -528,25 +528,25 @@ permuteInAxis ax p arr with (viewShape arr)
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export
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Zippable (Array s) where
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zipWith f a b with (viewShape a)
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zipWith {s} f a b with (viewShape a)
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_ | Shape s = MkArray (getOrder a) (strides a) s $
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if getOrder a == getOrder b
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then unsafeZipWith f (getPrim a) (getPrim b)
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else unsafeZipWith f (getPrim a) (getPrim $ reorder (getOrder a) b)
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zipWith3 f a b c with (viewShape a)
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zipWith3 {s} f a b c with (viewShape a)
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_ | Shape s = MkArray (getOrder a) (strides a) s $
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if (getOrder a == getOrder b) && (getOrder b == getOrder c)
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then unsafeZipWith3 f (getPrim a) (getPrim b) (getPrim c)
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else unsafeZipWith3 f (getPrim a) (getPrim $ reorder (getOrder a) b)
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(getPrim $ reorder (getOrder a) c)
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unzipWith f arr with (viewShape arr)
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unzipWith {s} f arr with (viewShape arr)
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_ | Shape s = case unzipWith f (getPrim arr) of
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(a, b) => (MkArray (getOrder arr) (strides arr) s a,
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MkArray (getOrder arr) (strides arr) s b)
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unzipWith3 f arr with (viewShape arr)
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unzipWith3 {s} f arr with (viewShape arr)
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_ | Shape s = case unzipWith3 f (getPrim arr) of
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(a, b, c) => (MkArray (getOrder arr) (strides arr) s a,
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MkArray (getOrder arr) (strides arr) s b,
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@ -27,12 +27,6 @@ Eq Order where
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FOrder == COrder = False
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scanr : (el -> res -> res) -> res -> Vect len el -> Vect (S len) res
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scanr _ q0 [] = [q0]
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scanr f q0 (x::xs) = f x (head qs) :: qs
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where qs : Vect len res
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qs = scanr f q0 xs
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||| Calculate an array's strides given its order and shape.
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export
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calcStrides : Order -> Vect rk Nat -> Vect rk Nat
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@ -67,7 +67,7 @@ fromHomogeneous = vector . init . toVect
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export
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hmatrix : Num a => Matrix m n a -> Vector m a -> HMatrix m n a
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hmatrix mat tr with (viewShape mat)
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hmatrix {m,n} mat tr with (viewShape mat)
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_ | Shape [m,n] = indexSet [last,last] 1 $
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resize [S m, S n] 0 $
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mat `hconcat` reshape
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@ -75,20 +75,20 @@ hmatrix mat tr with (viewShape mat)
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export
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matrixToH : Num a => Matrix m n a -> HMatrix m n a
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matrixToH mat with (viewShape mat)
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matrixToH {m,n} mat with (viewShape mat)
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_ | Shape [m,n] = indexSet [last,last] 1 $ resize [S m, S n] 0 mat
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export
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getMatrix : HMatrix m n a -> Matrix m n a
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getMatrix mat with (viewShape mat)
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getMatrix {m,n} mat with (viewShape mat)
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_ | Shape [S m, S n] = resizeLTE [m,n] mat
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{ok = [lteSuccRight reflexive,lteSuccRight reflexive]}
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export
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getTranslationVector : HMatrix m n a -> Vector m a
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getTranslationVector mat with (viewShape mat)
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getTranslationVector {m,n} mat with (viewShape mat)
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_ | Shape [S m, S n] = resizeLTE [m] {ok = [lteSuccRight reflexive]} $
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getColumn last mat
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@ -14,12 +14,12 @@ Field a = (Eq a, Neg a, Fractional a)
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public export
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interface (Eq a, Neg a, Fractional a) => Scalar a where
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interface (Eq a, Neg a, Fractional a) => FieldCmp a where
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abscmp : a -> a -> Ordering
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export
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(Ord a, Abs a, Neg a, Fractional a) => Scalar a where
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(Ord a, Abs a, Neg a, Fractional a) => FieldCmp a where
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abscmp x y = compare (abs x) (abs y)
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@ -107,12 +107,12 @@ getColumn c mat = rewrite sym (rangeLenZ m) in mat!!..[All, One c]
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export
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diagonal' : Matrix m n a -> Vector (minimum m n) a
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diagonal' mat with (viewShape mat)
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diagonal' {m,n} mat with (viewShape mat)
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_ | Shape [m,n] = fromFunctionNB _ (\[i] => mat!#[i,i])
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export
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diagonal : Matrix' n a -> Vector n a
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diagonal mat with (viewShape mat)
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diagonal {n} mat with (viewShape mat)
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_ | Shape [n,n] = fromFunctionNB [n] (\[i] => mat!#[i,i])
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@ -123,7 +123,7 @@ minor i j mat = believe_me $ mat!!..[Filter (/=i), Filter (/=j)]
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filterInd : Num a => (Nat -> Nat -> Bool) -> Matrix m n a -> Matrix m n a
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filterInd p mat with (viewShape mat)
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filterInd {m,n} p mat with (viewShape mat)
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_ | Shape [m,n] = fromFunctionNB [m,n] (\[i,j] => if p i j then mat!#[i,j] else 0)
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export
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@ -187,7 +187,7 @@ permuteColumns = permuteInAxis 1
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||| Calculate the outer product of two vectors as a matrix.
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export
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outer : Num a => Vector m a -> Vector n a -> Matrix m n a
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outer a b with (viewShape a, viewShape b)
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outer {m,n} a b with (viewShape a, viewShape b)
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_ | (Shape [m], Shape [n]) = fromFunction [m,n] (\[i,j] => a!!i * b!!j)
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@ -203,13 +203,13 @@ trace = sum . diagonal'
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export
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Num a => Mult (Matrix m n a) (Vector n a) (Vector m a) where
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mat *. v with (viewShape mat)
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(*.) {m,n} mat v with (viewShape mat)
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_ | Shape [m,n] = fromFunction [m]
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(\[i] => sum $ map (\j => mat!![i,j] * v!!j) range)
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export
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Num a => Mult (Matrix m n a) (Matrix n p a) (Matrix m p a) where
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m1 *. m2 with (viewShape m1, viewShape m2)
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(*.) {m,n,p} m1 m2 with (viewShape m1, viewShape m2)
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_ | (Shape [m,n], Shape [n,p]) = fromFunction [m,p]
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(\[i,j] => sum $ map (\k => m1!![i,k] * m2!![k,j]) range)
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@ -233,7 +233,7 @@ record DecompLU {0 m,n,a : _} (mat : Matrix m n a) where
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namespace DecompLU
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export
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lower : Num a => DecompLU {m,n,a} mat -> Matrix m (minimum m n) a
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lower (MkLU lu) with (viewShape lu)
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lower {m,n} (MkLU lu) with (viewShape lu)
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_ | Shape [m,n] = fromFunctionNB _ (\[i,j] =>
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case compare i j of
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LT => 0
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@ -255,7 +255,7 @@ namespace DecompLU
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export
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upper : Num a => DecompLU {m,n,a} mat -> Matrix (minimum m n) n a
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upper (MkLU lu) with (viewShape lu)
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upper {m,n} (MkLU lu) with (viewShape lu)
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_ | Shape [m,n] = fromFunctionNB _ (\[i,j] =>
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if i <= j then lu!#[i,j] else 0)
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@ -313,7 +313,7 @@ gaussStep i lu =
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export
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decompLU : Field a => (mat : Matrix m n a) -> Maybe (DecompLU mat)
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decompLU mat with (viewShape mat)
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decompLU {m,n} mat with (viewShape mat)
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_ | Shape [m,n] = map MkLU $ iterateN (minimum m n) (\i => (>>= gaussStepMaybe i)) (Just mat)
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where
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gaussStepMaybe : Fin (minimum m n) -> Matrix m n a -> Maybe (Matrix m n a)
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@ -332,7 +332,7 @@ record DecompLUP {0 m,n,a : _} (mat : Matrix m n a) where
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namespace DecompLUP
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export
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lower : Num a => DecompLUP {m,n,a} mat -> Matrix m (minimum m n) a
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lower (MkLUP lu _ _) with (viewShape lu)
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lower {m,n} (MkLUP lu _ _) with (viewShape lu)
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_ | Shape [m,n] = fromFunctionNB _ (\[i,j] =>
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case compare i j of
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LT => 0
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@ -354,7 +354,7 @@ namespace DecompLUP
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export
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upper : Num a => DecompLUP {m,n,a} mat -> Matrix (minimum m n) n a
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upper (MkLUP lu _ _) with (viewShape lu)
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upper {m,n} (MkLUP lu _ _) with (viewShape lu)
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_ | Shape [m,n] = fromFunctionNB _ (\[i,j] =>
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if i <= j then lu!#[i,j] else 0)
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@ -389,7 +389,7 @@ fromLU (MkLU lu) = MkLUP lu identity 0
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export
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decompLUP : Scalar a => (mat : Matrix m n a) -> DecompLUP mat
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decompLUP : FieldCmp a => (mat : Matrix m n a) -> DecompLUP mat
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decompLUP {m,n} mat with (viewShape mat)
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decompLUP {m=0,n} mat | Shape [0,n] = MkLUP mat identity 0
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decompLUP {m=S m,n=0} mat | Shape [S m,0] = MkLUP mat identity 0
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* product (diagonal lup.lu)
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export
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det : Scalar a => Matrix' n a -> a
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det : FieldCmp a => Matrix' n a -> a
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det {n} mat with (viewShape mat)
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det {n=0} mat | Shape [0,0] = 1
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det {n=1} mat | Shape [1,1] = mat!![0,0]
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@ -441,7 +441,7 @@ det {n} mat with (viewShape mat)
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export
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solveLowerTri : Field a => Matrix' n a -> Vector n a -> Maybe (Vector n a)
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solveLowerTri mat b with (viewShape b)
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solveLowerTri {n} mat b with (viewShape b)
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_ | Shape [n] =
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if all (/=0) (diagonal mat)
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then Just $ vector $ reverse $ construct $ reverse $ toVect b
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@ -457,7 +457,7 @@ solveLowerTri mat b with (viewShape b)
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export
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solveUpperTri : Field a => Matrix' n a -> Vector n a -> Maybe (Vector n a)
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solveUpperTri mat b with (viewShape b)
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solveUpperTri {n} mat b with (viewShape b)
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_ | Shape [n] =
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if all (/=0) (diagonal mat)
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then Just $ vector $ construct Z $ toVect b
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in solveLowerTri lup.lower' b' >>= solveUpperTri lup.upper'
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export
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solve : Scalar a => Matrix' n a -> Vector n a -> Maybe (Vector n a)
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solve : FieldCmp a => Matrix' n a -> Vector n a -> Maybe (Vector n a)
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solve mat = solveWithLUP mat (decompLUP mat)
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