X-Git-Url: https://gitweb.michael.orlitzky.com/?a=blobdiff_plain;f=src%2FTests%2FGrid.hs;h=f72d31235264a6987bff9ebdde0b985357485106;hb=b70a46d402df62ea02a4b111ab59666d2405462a;hp=15bbc9826e11ca15a6d80c4ed646ca3a2d76a62a;hpb=a97defacc74e0b34c7f12f8a436da39e5124ac10;p=spline3.git diff --git a/src/Tests/Grid.hs b/src/Tests/Grid.hs index 15bbc98..f72d312 100644 --- a/src/Tests/Grid.hs +++ b/src/Tests/Grid.hs @@ -1,9 +1,9 @@ module Tests.Grid where -import Data.Maybe (fromJust) +import Test.Framework (Test, testGroup) +import Test.Framework.Providers.HUnit (testCase) import Test.HUnit -import Test.QuickCheck import Assertions import Comparisons @@ -11,254 +11,121 @@ import Cube hiding (i, j, k) import Examples import FunctionValues (value_at) import Grid +import Point (Point) import Tetrahedron - - -instance Arbitrary Grid where - arbitrary = do - (Positive h') <- arbitrary :: Gen (Positive Double) - fvs <- arbitrary :: Gen [[[Double]]] - return (make_grid h' fvs) - - --- | Check the value of c0030 for tetrahedron0 belonging to the --- cube centered on (1,1,1) with a grid constructed from the --- trilinear values. See example one in the paper. -test_trilinear_c0030 :: Assertion -test_trilinear_c0030 = - assertAlmostEqual "c0030 is correct" (c t 0 0 3 0) (17/8) - where - g = make_grid 1 trilinear - cube = fromJust $ cube_at g 1 1 1 - t = tetrahedron0 cube - - --- | Check the value of c0003 for tetrahedron0 belonging to the --- cube centered on (1,1,1) with a grid constructed from the --- trilinear values. See example one in the paper. -test_trilinear_c0003 :: Assertion -test_trilinear_c0003 = - assertAlmostEqual "c0003 is correct" (c t 0 0 0 3) (27/8) - where - g = make_grid 1 trilinear - cube = fromJust $ cube_at g 1 1 1 - t = tetrahedron0 cube - - --- | Check the value of c0021 for tetrahedron0 belonging to the --- cube centered on (1,1,1) with a grid constructed from the --- trilinear values. See example one in the paper. -test_trilinear_c0021 :: Assertion -test_trilinear_c0021 = - assertAlmostEqual "c0021 is correct" (c t 0 0 2 1) (61/24) - where - g = make_grid 1 trilinear - cube = fromJust $ cube_at g 1 1 1 - t = tetrahedron0 cube - - --- | Check the value of c0012 for tetrahedron0 belonging to the --- cube centered on (1,1,1) with a grid constructed from the --- trilinear values. See example one in the paper. -test_trilinear_c0012 :: Assertion -test_trilinear_c0012 = - assertAlmostEqual "c0012 is correct" (c t 0 0 1 2) (71/24) - where - g = make_grid 1 trilinear - cube = fromJust $ cube_at g 1 1 1 - t = tetrahedron0 cube - - --- | Check the value of c0120 for tetrahedron0 belonging to the --- cube centered on (1,1,1) with a grid constructed from the --- trilinear values. See example one in the paper. -test_trilinear_c0120 :: Assertion -test_trilinear_c0120 = - assertAlmostEqual "c0120 is correct" (c t 0 1 2 0) (55/24) - where - g = make_grid 1 trilinear - cube = fromJust $ cube_at g 1 1 1 - t = tetrahedron0 cube - - --- | Check the value of c0102 for tetrahedron0 belonging to the --- cube centered on (1,1,1) with a grid constructed from the --- trilinear values. See example one in the paper. -test_trilinear_c0102 :: Assertion -test_trilinear_c0102 = - assertAlmostEqual "c0102 is correct" (c t 0 1 0 2) (73/24) - where - g = make_grid 1 trilinear - cube = fromJust $ cube_at g 1 1 1 - t = tetrahedron0 cube - - --- | Check the value of c0111 for tetrahedron0 belonging to the --- cube centered on (1,1,1) with a grid constructed from the --- trilinear values. See example one in the paper. -test_trilinear_c0111 :: Assertion -test_trilinear_c0111 = - assertAlmostEqual "c0111 is correct" (c t 0 1 1 1) (8/3) - where - g = make_grid 1 trilinear - cube = fromJust $ cube_at g 1 1 1 - t = tetrahedron0 cube - - --- | Check the value of c0210 for tetrahedron0 belonging to the --- cube centered on (1,1,1) with a grid constructed from the --- trilinear values. See example one in the paper. -test_trilinear_c0210 :: Assertion -test_trilinear_c0210 = - assertAlmostEqual "c0210 is correct" (c t 0 2 1 0) (29/12) - where - g = make_grid 1 trilinear - cube = fromJust $ cube_at g 1 1 1 - t = tetrahedron0 cube - - --- | Check the value of c0201 for tetrahedron0 belonging to the --- cube centered on (1,1,1) with a grid constructed from the --- trilinear values. See example one in the paper. -test_trilinear_c0201 :: Assertion -test_trilinear_c0201 = - assertAlmostEqual "c0201 is correct" (c t 0 2 0 1) (11/4) - where - g = make_grid 1 trilinear - cube = fromJust $ cube_at g 1 1 1 - t = tetrahedron0 cube - - --- | Check the value of c0300 for tetrahedron0 belonging to the --- cube centered on (1,1,1) with a grid constructed from the --- trilinear values. See example one in the paper. -test_trilinear_c0300 :: Assertion -test_trilinear_c0300 = - assertAlmostEqual "c0300 is correct" (c t 0 3 0 0) (5/2) - where - g = make_grid 1 trilinear - cube = fromJust $ cube_at g 1 1 1 - t = tetrahedron0 cube - - --- | Check the value of c1020 for tetrahedron0 belonging to the --- cube centered on (1,1,1) with a grid constructed from the --- trilinear values. See example one in the paper. -test_trilinear_c1020 :: Assertion -test_trilinear_c1020 = - assertAlmostEqual "c1020 is correct" (c t 1 0 2 0) (8/3) - where - g = make_grid 1 trilinear - cube = fromJust $ cube_at g 1 1 1 - t = tetrahedron0 cube - - --- | Check the value of c1002 for tetrahedron0 belonging to the --- cube centered on (1,1,1) with a grid constructed from the --- trilinear values. See example one in the paper. -test_trilinear_c1002 :: Assertion -test_trilinear_c1002 = - assertAlmostEqual "c1002 is correct" (c t 1 0 0 2) (23/6) - where - g = make_grid 1 trilinear - cube = fromJust $ cube_at g 1 1 1 - t = tetrahedron0 cube - - --- | Check the value of c1011 for tetrahedron0 belonging to the --- cube centered on (1,1,1) with a grid constructed from the --- trilinear values. See example one in the paper. -test_trilinear_c1011 :: Assertion -test_trilinear_c1011 = - assertAlmostEqual "c1011 is correct" (c t 1 0 1 1) (13/4) - where - g = make_grid 1 trilinear - cube = fromJust $ cube_at g 1 1 1 - t = tetrahedron0 cube - - --- | Check the value of c1110 for tetrahedron0 belonging to the --- cube centered on (1,1,1) with a grid constructed from the --- trilinear values. See example one in the paper. -test_trilinear_c1110 :: Assertion -test_trilinear_c1110 = - assertAlmostEqual "c1110 is correct" (c t 1 1 1 0) (23/8) - where - g = make_grid 1 trilinear - cube = fromJust $ cube_at g 1 1 1 - t = tetrahedron0 cube - - --- | Check the value of c1101 for tetrahedron0 belonging to the --- cube centered on (1,1,1) with a grid constructed from the --- trilinear values. See example one in the paper. -test_trilinear_c1101 :: Assertion -test_trilinear_c1101 = - assertAlmostEqual "c1101 is correct" (c t 1 1 0 1) (27/8) - where - g = make_grid 1 trilinear - cube = fromJust $ cube_at g 1 1 1 - t = tetrahedron0 cube - - --- | Check the value of c1200 for tetrahedron0 belonging to the --- cube centered on (1,1,1) with a grid constructed from the --- trilinear values. See example one in the paper. -test_trilinear_c1200 :: Assertion -test_trilinear_c1200 = - assertAlmostEqual "c1200 is correct" (c t 1 2 0 0) 3 - where - g = make_grid 1 trilinear - cube = fromJust $ cube_at g 1 1 1 - t = tetrahedron0 cube - - --- | Check the value of c2010 for tetrahedron0 belonging to the --- cube centered on (1,1,1) with a grid constructed from the --- trilinear values. See example one in the paper. -test_trilinear_c2010 :: Assertion -test_trilinear_c2010 = - assertAlmostEqual "c2010 is correct" (c t 2 0 1 0) (10/3) - where - g = make_grid 1 trilinear - cube = fromJust $ cube_at g 1 1 1 - t = tetrahedron0 cube - - --- | Check the value of c2001 for tetrahedron0 belonging to the --- cube centered on (1,1,1) with a grid constructed from the --- trilinear values. See example one in the paper. -test_trilinear_c2001 :: Assertion -test_trilinear_c2001 = - assertAlmostEqual "c2001 is correct" (c t 2 0 0 1) 4 - where - g = make_grid 1 trilinear - cube = fromJust $ cube_at g 1 1 1 - t = tetrahedron0 cube - - --- | Check the value of c2100 for tetrahedron0 belonging to the --- cube centered on (1,1,1) with a grid constructed from the --- trilinear values. See example one in the paper. -test_trilinear_c2100 :: Assertion -test_trilinear_c2100 = - assertAlmostEqual "c2100 is correct" (c t 2 1 0 0) (7/2) - where - g = make_grid 1 trilinear - cube = fromJust $ cube_at g 1 1 1 - t = tetrahedron0 cube - - --- | Check the value of c3000 for tetrahedron0 belonging to the --- cube centered on (1,1,1) with a grid constructed from the --- trilinear values. See example one in the paper. -test_trilinear_c3000 :: Assertion -test_trilinear_c3000 = - assertAlmostEqual "c3000 is correct" (c t 3 0 0 0) 4 - where - g = make_grid 1 trilinear - cube = fromJust $ cube_at g 1 1 1 - t = tetrahedron0 cube +import ThreeDimensional + + +-- | Check all coefficients of tetrahedron0 belonging to the cube +-- centered on (1,1,1) with a grid constructed from the trilinear +-- values. See example one in the paper. +trilinear_c0_t0_coefficient_tests :: Test.Framework.Test +trilinear_c0_t0_coefficient_tests = + testGroup "trilinear c0 t0 coefficients" $ + [testCase "c0030 is correct" test_trilinear_c0030, + testCase "c0003 is correct" test_trilinear_c0003, + testCase "c0021 is correct" test_trilinear_c0021, + testCase "c0012 is correct" test_trilinear_c0012, + testCase "c0120 is correct" test_trilinear_c0120, + testCase "c0102 is correct" test_trilinear_c0102, + testCase "c0111 is correct" test_trilinear_c0111, + testCase "c0210 is correct" test_trilinear_c0210, + testCase "c0201 is correct" test_trilinear_c0201, + testCase "c0300 is correct" test_trilinear_c0300, + testCase "c1020 is correct" test_trilinear_c1020, + testCase "c1002 is correct" test_trilinear_c1002, + testCase "c1011 is correct" test_trilinear_c1011, + testCase "c1110 is correct" test_trilinear_c1110, + testCase "c1101 is correct" test_trilinear_c1101, + testCase "c1200 is correct" test_trilinear_c1200, + testCase "c2010 is correct" test_trilinear_c2010, + testCase "c2001 is correct" test_trilinear_c2001, + testCase "c2100 is correct" test_trilinear_c2100, + testCase "c3000 is correct" test_trilinear_c3000] + where + g = make_grid 1 trilinear + cube = cube_at g 1 1 1 + t = tetrahedron0 cube + + test_trilinear_c0030 :: Assertion + test_trilinear_c0030 = + assertAlmostEqual "c0030 is correct" (c t 0 0 3 0) (17/8) + + test_trilinear_c0003 :: Assertion + test_trilinear_c0003 = + assertAlmostEqual "c0003 is correct" (c t 0 0 0 3) (27/8) + + test_trilinear_c0021 :: Assertion + test_trilinear_c0021 = + assertAlmostEqual "c0021 is correct" (c t 0 0 2 1) (61/24) + + test_trilinear_c0012 :: Assertion + test_trilinear_c0012 = + assertAlmostEqual "c0012 is correct" (c t 0 0 1 2) (71/24) + + test_trilinear_c0120 :: Assertion + test_trilinear_c0120 = + assertAlmostEqual "c0120 is correct" (c t 0 1 2 0) (55/24) + + test_trilinear_c0102 :: Assertion + test_trilinear_c0102 = + assertAlmostEqual "c0102 is correct" (c t 0 1 0 2) (73/24) + + test_trilinear_c0111 :: Assertion + test_trilinear_c0111 = + assertAlmostEqual "c0111 is correct" (c t 0 1 1 1) (8/3) + + test_trilinear_c0210 :: Assertion + test_trilinear_c0210 = + assertAlmostEqual "c0210 is correct" (c t 0 2 1 0) (29/12) + + test_trilinear_c0201 :: Assertion + test_trilinear_c0201 = + assertAlmostEqual "c0201 is correct" (c t 0 2 0 1) (11/4) + + test_trilinear_c0300 :: Assertion + test_trilinear_c0300 = + assertAlmostEqual "c0300 is correct" (c t 0 3 0 0) (5/2) + + test_trilinear_c1020 :: Assertion + test_trilinear_c1020 = + assertAlmostEqual "c1020 is correct" (c t 1 0 2 0) (8/3) + + test_trilinear_c1002 :: Assertion + test_trilinear_c1002 = + assertAlmostEqual "c1002 is correct" (c t 1 0 0 2) (23/6) + + test_trilinear_c1011 :: Assertion + test_trilinear_c1011 = + assertAlmostEqual "c1011 is correct" (c t 1 0 1 1) (13/4) + + test_trilinear_c1110 :: Assertion + test_trilinear_c1110 = + assertAlmostEqual "c1110 is correct" (c t 1 1 1 0) (23/8) + + test_trilinear_c1101 :: Assertion + test_trilinear_c1101 = + assertAlmostEqual "c1101 is correct" (c t 1 1 0 1) (27/8) + + test_trilinear_c1200 :: Assertion + test_trilinear_c1200 = + assertAlmostEqual "c1200 is correct" (c t 1 2 0 0) 3 + + test_trilinear_c2010 :: Assertion + test_trilinear_c2010 = + assertAlmostEqual "c2010 is correct" (c t 2 0 1 0) (10/3) + + test_trilinear_c2001 :: Assertion + test_trilinear_c2001 = + assertAlmostEqual "c2001 is correct" (c t 2 0 0 1) 4 + + test_trilinear_c2100 :: Assertion + test_trilinear_c2100 = + assertAlmostEqual "c2100 is correct" (c t 2 1 0 0) (7/2) + + test_trilinear_c3000 :: Assertion + test_trilinear_c3000 = + assertAlmostEqual "c3000 is correct" (c t 3 0 0 0) 4 -- | Make sure that v0 of tetrahedron0 belonging to the cube centered @@ -269,7 +136,7 @@ test_trilinear_f0_t0_v0 = assertEqual "v0 is correct" (v0 t) (1, 1, 1) where g = make_grid 1 trilinear - cube = fromJust $ cube_at g 1 1 1 + cube = cube_at g 1 1 1 t = tetrahedron0 cube @@ -281,7 +148,7 @@ test_trilinear_f0_t0_v1 = assertEqual "v1 is correct" (v1 t) (0.5, 1, 1) where g = make_grid 1 trilinear - cube = fromJust $ cube_at g 1 1 1 + cube = cube_at g 1 1 1 t = tetrahedron0 cube @@ -293,7 +160,7 @@ test_trilinear_f0_t0_v2 = assertEqual "v2 is correct" (v2 t) (0.5, 0.5, 1.5) where g = make_grid 1 trilinear - cube = fromJust $ cube_at g 1 1 1 + cube = cube_at g 1 1 1 t = tetrahedron0 cube @@ -305,396 +172,25 @@ test_trilinear_f0_t0_v3 = assertClose "v3 is correct" (v3 t) (0.5, 1.5, 1.5) where g = make_grid 1 trilinear - cube = fromJust $ cube_at g 1 1 1 + cube = cube_at g 1 1 1 t = tetrahedron0 cube -test_trilinear_reproduced_t0 :: Assertion -test_trilinear_reproduced_t0 = - assertTrue "trilinears are reproduced correctly" $ - and [p (i', j', k') ~= value_at trilinear i j k - | i <- [0..2], - j <- [0..2], - k <- [0..2], - let i' = fromIntegral i, - let j' = fromIntegral j, - let k' = fromIntegral k] - where - g = make_grid 1 trilinear - c0 = fromJust $ cube_at g 1 1 1 - t0 = tetrahedron0 c0 - p = polynomial t0 - -test_trilinear_reproduced_t1 :: Assertion -test_trilinear_reproduced_t1 = - assertTrue "trilinears are reproduced correctly" $ - and [p (i', j', k') ~= value_at trilinear i j k - | i <- [0..2], - j <- [0..2], - k <- [0..2], - let i' = fromIntegral i, - let j' = fromIntegral j, - let k' = fromIntegral k] - where - g = make_grid 1 trilinear - c0 = fromJust $ cube_at g 1 1 1 - t1 = tetrahedron1 c0 - p = polynomial t1 - -test_trilinear_reproduced_t2 :: Assertion -test_trilinear_reproduced_t2 = - assertTrue "trilinears are reproduced correctly" $ - and [p (i', j', k') ~= value_at trilinear i j k - | i <- [0..2], - j <- [0..2], - k <- [0..2], - let i' = fromIntegral i, - let j' = fromIntegral j, - let k' = fromIntegral k] - where - g = make_grid 1 trilinear - c0 = fromJust $ cube_at g 1 1 1 - t2 = tetrahedron2 c0 - p = polynomial t2 - -test_trilinear_reproduced_t3 :: Assertion -test_trilinear_reproduced_t3 = - assertTrue "trilinears are reproduced correctly" $ - and [p (i', j', k') ~= value_at trilinear i j k - | i <- [0..2], - j <- [0..2], - k <- [0..2], - let i' = fromIntegral i, - let j' = fromIntegral j, - let k' = fromIntegral k] - where - g = make_grid 1 trilinear - c0 = fromJust $ cube_at g 1 1 1 - t3 = tetrahedron3 c0 - p = polynomial t3 - -test_trilinear_reproduced_t4 :: Assertion -test_trilinear_reproduced_t4 = - assertTrue "trilinears are reproduced correctly" $ - and [p (i', j', k') ~= value_at trilinear i j k - | i <- [0..2], - j <- [0..2], - k <- [0..2], - let i' = fromIntegral i, - let j' = fromIntegral j, - let k' = fromIntegral k] - where - g = make_grid 1 trilinear - c0 = fromJust $ cube_at g 1 1 1 - t4 = tetrahedron4 c0 - p = polynomial t4 - -test_trilinear_reproduced_t5 :: Assertion -test_trilinear_reproduced_t5 = - assertTrue "trilinears are reproduced correctly" $ - and [p (i', j', k') ~= value_at trilinear i j k - | i <- [0..2], - j <- [0..2], - k <- [0..2], - let i' = fromIntegral i, - let j' = fromIntegral j, - let k' = fromIntegral k] - where - g = make_grid 1 trilinear - c0 = fromJust $ cube_at g 1 1 1 - t5 = tetrahedron5 c0 - p = polynomial t5 - -test_trilinear_reproduced_t6 :: Assertion -test_trilinear_reproduced_t6 = - assertTrue "trilinears are reproduced correctly" $ - and [p (i', j', k') ~= value_at trilinear i j k - | i <- [0..2], - j <- [0..2], - k <- [0..2], - let i' = fromIntegral i, - let j' = fromIntegral j, - let k' = fromIntegral k] - where - g = make_grid 1 trilinear - c0 = fromJust $ cube_at g 1 1 1 - t6 = tetrahedron6 c0 - p = polynomial t6 - -test_trilinear_reproduced_t7 :: Assertion -test_trilinear_reproduced_t7 = - assertTrue "trilinears are reproduced correctly" $ - and [p (i', j', k') ~= value_at trilinear i j k - | i <- [0..2], - j <- [0..2], - k <- [0..2], - let i' = fromIntegral i, - let j' = fromIntegral j, - let k' = fromIntegral k] - where - g = make_grid 1 trilinear - c0 = fromJust $ cube_at g 1 1 1 - t7 = tetrahedron7 c0 - p = polynomial t7 - -test_trilinear_reproduced_t8 :: Assertion -test_trilinear_reproduced_t8 = - assertTrue "trilinears are reproduced correctly" $ - and [p (i', j', k') ~= value_at trilinear i j k - | i <- [0..2], - j <- [0..2], - k <- [0..2], - let i' = fromIntegral i, - let j' = fromIntegral j, - let k' = fromIntegral k] - where - g = make_grid 1 trilinear - c0 = fromJust $ cube_at g 1 1 1 - t8 = tetrahedron8 c0 - p = polynomial t8 - -test_trilinear_reproduced_t9 :: Assertion -test_trilinear_reproduced_t9 = - assertTrue "trilinears are reproduced correctly" $ - and [p (i', j', k') ~= value_at trilinear i j k - | i <- [0..2], - j <- [0..2], - k <- [0..2], - let i' = fromIntegral i, - let j' = fromIntegral j, - let k' = fromIntegral k] - where - g = make_grid 1 trilinear - c0 = fromJust $ cube_at g 1 1 1 - t9 = tetrahedron9 c0 - p = polynomial t9 - -test_trilinear_reproduced_t10 :: Assertion -test_trilinear_reproduced_t10 = +test_trilinear_reproduced :: Assertion +test_trilinear_reproduced = assertTrue "trilinears are reproduced correctly" $ and [p (i', j', k') ~= value_at trilinear i j k | i <- [0..2], j <- [0..2], k <- [0..2], + t <- tetrahedra c0, + let p = polynomial t, let i' = fromIntegral i, let j' = fromIntegral j, let k' = fromIntegral k] where g = make_grid 1 trilinear - c0 = fromJust $ cube_at g 1 1 1 - t10 = tetrahedron10 c0 - p = polynomial t10 - -test_trilinear_reproduced_t11 :: Assertion -test_trilinear_reproduced_t11 = - assertTrue "trilinears are reproduced correctly" $ - and [p (i', j', k') ~= value_at trilinear i j k - | i <- [0..2], - j <- [0..2], - k <- [0..2], - let i' = fromIntegral i, - let j' = fromIntegral j, - let k' = fromIntegral k] - where - g = make_grid 1 trilinear - c0 = fromJust $ cube_at g 1 1 1 - t11 = tetrahedron11 c0 - p = polynomial t11 - -test_trilinear_reproduced_t12 :: Assertion -test_trilinear_reproduced_t12 = - assertTrue "trilinears are reproduced correctly" $ - and [p (i', j', k') ~= value_at trilinear i j k - | i <- [0..2], - j <- [0..2], - k <- [0..2], - let i' = fromIntegral i, - let j' = fromIntegral j, - let k' = fromIntegral k] - where - g = make_grid 1 trilinear - c0 = fromJust $ cube_at g 1 1 1 - t12 = tetrahedron12 c0 - p = polynomial t12 - -test_trilinear_reproduced_t13 :: Assertion -test_trilinear_reproduced_t13 = - assertTrue "trilinears are reproduced correctly" $ - and [p (i', j', k') ~= value_at trilinear i j k - | i <- [0..2], - j <- [0..2], - k <- [0..2], - let i' = fromIntegral i, - let j' = fromIntegral j, - let k' = fromIntegral k] - where - g = make_grid 1 trilinear - c0 = fromJust $ cube_at g 1 1 1 - t13 = tetrahedron13 c0 - p = polynomial t13 - - -test_trilinear_reproduced_t14 :: Assertion -test_trilinear_reproduced_t14 = - assertTrue "trilinears are reproduced correctly" $ - and [p (i', j', k') ~= value_at trilinear i j k - | i <- [0..2], - j <- [0..2], - k <- [0..2], - let i' = fromIntegral i, - let j' = fromIntegral j, - let k' = fromIntegral k] - where - g = make_grid 1 trilinear - c0 = fromJust $ cube_at g 1 1 1 - t14 = tetrahedron14 c0 - p = polynomial t14 - -test_trilinear_reproduced_t15 :: Assertion -test_trilinear_reproduced_t15 = - assertTrue "trilinears are reproduced correctly" $ - and [p (i', j', k') ~= value_at trilinear i j k - | i <- [0..2], - j <- [0..2], - k <- [0..2], - let i' = fromIntegral i, - let j' = fromIntegral j, - let k' = fromIntegral k] - where - g = make_grid 1 trilinear - c0 = fromJust $ cube_at g 1 1 1 - t15 = tetrahedron15 c0 - p = polynomial t15 - -test_trilinear_reproduced_t16 :: Assertion -test_trilinear_reproduced_t16 = - assertTrue "trilinears are reproduced correctly" $ - and [p (i', j', k') ~= value_at trilinear i j k - | i <- [0..2], - j <- [0..2], - k <- [0..2], - let i' = fromIntegral i, - let j' = fromIntegral j, - let k' = fromIntegral k] - where - g = make_grid 1 trilinear - c0 = fromJust $ cube_at g 1 1 1 - t16 = tetrahedron16 c0 - p = polynomial t16 - -test_trilinear_reproduced_t17 :: Assertion -test_trilinear_reproduced_t17 = - assertTrue "trilinears are reproduced correctly" $ - and [p (i', j', k') ~= value_at trilinear i j k - | i <- [0..2], - j <- [0..2], - k <- [0..2], - let i' = fromIntegral i, - let j' = fromIntegral j, - let k' = fromIntegral k] - where - g = make_grid 1 trilinear - c0 = fromJust $ cube_at g 1 1 1 - t17 = tetrahedron17 c0 - p = polynomial t17 - -test_trilinear_reproduced_t18 :: Assertion -test_trilinear_reproduced_t18 = - assertTrue "trilinears are reproduced correctly" $ - and [p (i', j', k') ~= value_at trilinear i j k - | i <- [0..2], - j <- [0..2], - k <- [0..2], - let i' = fromIntegral i, - let j' = fromIntegral j, - let k' = fromIntegral k] - where - g = make_grid 1 trilinear - c0 = fromJust $ cube_at g 1 1 1 - t18 = tetrahedron18 c0 - p = polynomial t18 - -test_trilinear_reproduced_t19 :: Assertion -test_trilinear_reproduced_t19 = - assertTrue "trilinears are reproduced correctly" $ - and [p (i', j', k') ~= value_at trilinear i j k - | i <- [0..2], - j <- [0..2], - k <- [0..2], - let i' = fromIntegral i, - let j' = fromIntegral j, - let k' = fromIntegral k] - where - g = make_grid 1 trilinear - c0 = fromJust $ cube_at g 1 1 1 - t19 = tetrahedron19 c0 - p = polynomial t19 - -test_trilinear_reproduced_t20 :: Assertion -test_trilinear_reproduced_t20 = - assertTrue "trilinears are reproduced correctly" $ - and [p (i', j', k') ~= value_at trilinear i j k - | i <- [0..2], - j <- [0..2], - k <- [0..2], - let i' = fromIntegral i, - let j' = fromIntegral j, - let k' = fromIntegral k] - where - g = make_grid 1 trilinear - c0 = fromJust $ cube_at g 1 1 1 - t20 = tetrahedron20 c0 - p = polynomial t20 - - -test_trilinear_reproduced_t21 :: Assertion -test_trilinear_reproduced_t21 = - assertTrue "trilinears are reproduced correctly" $ - and [p (i', j', k') ~= value_at trilinear i j k - | i <- [0..2], - j <- [0..2], - k <- [0..2], - let i' = fromIntegral i, - let j' = fromIntegral j, - let k' = fromIntegral k] - where - g = make_grid 1 trilinear - c0 = fromJust $ cube_at g 1 1 1 - t21 = tetrahedron21 c0 - p = polynomial t21 - -test_trilinear_reproduced_t22 :: Assertion -test_trilinear_reproduced_t22 = - assertTrue "trilinears are reproduced correctly" $ - and [p (i', j', k') ~= value_at trilinear i j k - | i <- [0..2], - j <- [0..2], - k <- [0..2], - let i' = fromIntegral i, - let j' = fromIntegral j, - let k' = fromIntegral k] - where - g = make_grid 1 trilinear - c0 = fromJust $ cube_at g 1 1 1 - t22 = tetrahedron22 c0 - p = polynomial t22 - - -test_trilinear_reproduced_t23 :: Assertion -test_trilinear_reproduced_t23 = - assertTrue "trilinears are reproduced correctly" $ - and [p (i', j', k') ~= value_at trilinear i j k - | i <- [0..2], - j <- [0..2], - k <- [0..2], - let i' = fromIntegral i, - let j' = fromIntegral j, - let k' = fromIntegral k] - where - g = make_grid 1 trilinear - c0 = fromJust $ cube_at g 1 1 1 - t19 = tetrahedron19 c0 - p = polynomial t19 + c0 = cube_at g 1 1 1 test_zeros_reproduced :: Assertion @@ -709,6 +205,44 @@ test_zeros_reproduced = let k' = fromIntegral k] where g = make_grid 1 zeros - c0 = fromJust $ cube_at g 1 1 1 + c0 = cube_at g 1 1 1 t0 = tetrahedron0 c0 p = polynomial t0 + + +-- | Make sure we can reproduce a 9x9x9 trilinear from the 3x3x3 one. +test_trilinear9x9x9_reproduced :: Assertion +test_trilinear9x9x9_reproduced = + assertTrue "trilinear 9x9x9 is reproduced correctly" $ + and [p (i', j', k') ~= value_at trilinear9x9x9 i j k + | i <- [0..8], + j <- [0..8], + k <- [0..8], + t <- tetrahedra c0, + let p = polynomial t, + let i' = (fromIntegral i) * 0.5, + let j' = (fromIntegral j) * 0.5, + let k' = (fromIntegral k) * 0.5] + where + g = make_grid 1 trilinear + c0 = cube_at g 1 1 1 + + +-- | The point 'p' in this test lies on the boundary of tetrahedra 12 and 15. +-- However, the 'contains_point' test fails due to some numerical innacuracy. +-- This bug should have been fixed by setting a positive tolerance level. +-- +-- Example from before the fix: +-- +-- > b0 (tetrahedron15 c) p +-- -3.4694469519536365e-18 +-- +test_tetrahedra_collision_sensitivity :: Assertion +test_tetrahedra_collision_sensitivity = + assertTrue "tetrahedron collision tests isn't too sensitive" $ + contains_point t15 p + where + g = make_grid 1 naturals_1d + c = cube_at g 0 17 1 + p = (0, 16.75, 0.5) :: Point + t15 = tetrahedron15 c