X-Git-Url: http://gitweb.michael.orlitzky.com/?a=blobdiff_plain;f=src%2FCube.hs;h=d3f5151260905827254885c579f1f208f2586bd3;hb=3a954903101eca7594a65824868517b9758e188d;hp=3c202a7f08b23ab188a2e62166a553bf01a96d8e;hpb=3f0b6b7faecc561af0b7312a11c73a44a1b416f6;p=spline3.git diff --git a/src/Cube.hs b/src/Cube.hs index 3c202a7..d3f5151 100644 --- a/src/Cube.hs +++ b/src/Cube.hs @@ -1,4 +1,10 @@ -module Cube +module Cube ( + Cube(..), + cube_properties, + find_containing_tetrahedron, + tetrahedra, + tetrahedron + ) where import Data.Maybe (fromJust) @@ -11,13 +17,26 @@ import qualified Data.Vector as V ( snoc, unsafeIndex ) +import Prelude hiding (LT) +import Test.Framework (Test, testGroup) +import Test.Framework.Providers.QuickCheck2 (testProperty) import Test.QuickCheck (Arbitrary(..), Gen, Positive(..), choose) import Cardinal +import Comparisons ((~=), (~~=)) import qualified Face (Face(Face, v0, v1, v2, v3)) import FunctionValues +import Misc (all_equal, disjoint) import Point -import Tetrahedron (Tetrahedron(Tetrahedron)) +import Tetrahedron ( + Tetrahedron(..), + c, + b0, + b1, + b2, + b3, + volume + ) import ThreeDimensional data Cube = Cube { h :: Double, @@ -211,7 +230,7 @@ right_face c = Face.Face v0' v1' v2' v3' tetrahedron :: Cube -> Int -> Tetrahedron tetrahedron c 0 = - Tetrahedron (Cube.fv c) v0' v1' v2' v3' vol + Tetrahedron (fv c) v0' v1' v2' v3' vol where v0' = center c v1' = center (front_face c) @@ -226,7 +245,7 @@ tetrahedron c 1 = v1' = center (front_face c) v2' = Face.v1 (front_face c) v3' = Face.v2 (front_face c) - fv' = rotate ccwx (Cube.fv c) + fv' = rotate ccwx (fv c) vol = tetrahedra_volume c tetrahedron c 2 = @@ -236,7 +255,7 @@ tetrahedron c 2 = v1' = center (front_face c) v2' = Face.v2 (front_face c) v3' = Face.v3 (front_face c) - fv' = rotate ccwx $ rotate ccwx $ Cube.fv c + fv' = rotate ccwx $ rotate ccwx $ fv c vol = tetrahedra_volume c tetrahedron c 3 = @@ -246,7 +265,7 @@ tetrahedron c 3 = v1' = center (front_face c) v2' = Face.v3 (front_face c) v3' = Face.v0 (front_face c) - fv' = rotate cwx (Cube.fv c) + fv' = rotate cwx (fv c) vol = tetrahedra_volume c tetrahedron c 4 = @@ -256,7 +275,7 @@ tetrahedron c 4 = v1' = center (top_face c) v2' = Face.v0 (top_face c) v3' = Face.v1 (top_face c) - fv' = rotate cwy (Cube.fv c) + fv' = rotate cwy (fv c) vol = tetrahedra_volume c tetrahedron c 5 = @@ -623,3 +642,599 @@ find_containing_tetrahedron c p = lucky_idx = V.findIndex (\t -> (center t) `dot` p == shortest_distance) candidates + + + + + + +-- Tests + +-- Quickcheck tests. + +prop_opposite_octant_tetrahedra_disjoint1 :: Cube -> Bool +prop_opposite_octant_tetrahedra_disjoint1 c = + disjoint (front_left_top_tetrahedra c) (front_right_down_tetrahedra c) + +prop_opposite_octant_tetrahedra_disjoint2 :: Cube -> Bool +prop_opposite_octant_tetrahedra_disjoint2 c = + disjoint (back_left_top_tetrahedra c) (back_right_down_tetrahedra c) + +prop_opposite_octant_tetrahedra_disjoint3 :: Cube -> Bool +prop_opposite_octant_tetrahedra_disjoint3 c = + disjoint (front_left_top_tetrahedra c) (back_right_top_tetrahedra c) + +prop_opposite_octant_tetrahedra_disjoint4 :: Cube -> Bool +prop_opposite_octant_tetrahedra_disjoint4 c = + disjoint (front_left_down_tetrahedra c) (back_right_down_tetrahedra c) + +prop_opposite_octant_tetrahedra_disjoint5 :: Cube -> Bool +prop_opposite_octant_tetrahedra_disjoint5 c = + disjoint (front_left_top_tetrahedra c) (back_left_down_tetrahedra c) + +prop_opposite_octant_tetrahedra_disjoint6 :: Cube -> Bool +prop_opposite_octant_tetrahedra_disjoint6 c = + disjoint (front_right_top_tetrahedra c) (back_right_down_tetrahedra c) + + +-- | Since the grid size is necessarily positive, all tetrahedra +-- (which comprise cubes of positive volume) must have positive volume +-- as well. +prop_all_volumes_positive :: Cube -> Bool +prop_all_volumes_positive cube = + null nonpositive_volumes + where + ts = tetrahedra cube + volumes = map volume ts + nonpositive_volumes = filter (<= 0) volumes + +-- | In fact, since all of the tetrahedra are identical, we should +-- already know their volumes. There's 24 tetrahedra to a cube, so +-- we'd expect the volume of each one to be (1/24)*h^3. +prop_all_volumes_exact :: Cube -> Bool +prop_all_volumes_exact cube = + and [volume t ~~= (1/24)*(delta^(3::Int)) | t <- tetrahedra cube] + where + delta = h cube + +-- | All tetrahedron should have their v0 located at the center of the cube. +prop_v0_all_equal :: Cube -> Bool +prop_v0_all_equal cube = (v0 t0) == (v0 t1) + where + t0 = head (tetrahedra cube) -- Doesn't matter which two we choose. + t1 = head $ tail (tetrahedra cube) + + +-- | Given in Sorokina and Zeilfelder, p. 79, (2.6). Note that the +-- third and fourth indices of c-t1 have been switched. This is +-- because we store the triangles oriented such that their volume is +-- positive. If T and T-tilde share \ and v3,v3-tilde point +-- in opposite directions, one of them has to have negative volume! +prop_c0120_identity1 :: Cube -> Bool +prop_c0120_identity1 cube = + c t0 0 1 2 0 ~= (c t0 0 0 2 1 + c t3 0 0 1 2) / 2 + where + t0 = tetrahedron cube 0 + t3 = tetrahedron cube 3 + + +-- | Given in Sorokina and Zeilfelder, p. 79, (2.6). Repeats +-- 'prop_c0120_identity1' with tetrahedrons 1 and 2. +prop_c0120_identity2 :: Cube -> Bool +prop_c0120_identity2 cube = + c t1 0 1 2 0 ~= (c t1 0 0 2 1 + c t0 0 0 1 2) / 2 + where + t0 = tetrahedron cube 0 + t1 = tetrahedron cube 1 + +-- | Given in Sorokina and Zeilfelder, p. 79, (2.6). Repeats +-- 'prop_c0120_identity1' with tetrahedrons 1 and 2. +prop_c0120_identity3 :: Cube -> Bool +prop_c0120_identity3 cube = + c t2 0 1 2 0 ~= (c t2 0 0 2 1 + c t1 0 0 1 2) / 2 + where + t1 = tetrahedron cube 1 + t2 = tetrahedron cube 2 + +-- | Given in Sorokina and Zeilfelder, p. 79, (2.6). Repeats +-- 'prop_c0120_identity1' with tetrahedrons 2 and 3. +prop_c0120_identity4 :: Cube -> Bool +prop_c0120_identity4 cube = + c t3 0 1 2 0 ~= (c t3 0 0 2 1 + c t2 0 0 1 2) / 2 + where + t2 = tetrahedron cube 2 + t3 = tetrahedron cube 3 + + +-- | Given in Sorokina and Zeilfelder, p. 79, (2.6). Repeats +-- 'prop_c0120_identity1' with tetrahedrons 4 and 5. +prop_c0120_identity5 :: Cube -> Bool +prop_c0120_identity5 cube = + c t5 0 1 2 0 ~= (c t5 0 0 2 1 + c t4 0 0 1 2) / 2 + where + t4 = tetrahedron cube 4 + t5 = tetrahedron cube 5 + +-- -- | Given in Sorokina and Zeilfelder, p. 79, (2.6). Repeats +-- -- 'prop_c0120_identity1' with tetrahedrons 5 and 6. +prop_c0120_identity6 :: Cube -> Bool +prop_c0120_identity6 cube = + c t6 0 1 2 0 ~= (c t6 0 0 2 1 + c t5 0 0 1 2) / 2 + where + t5 = tetrahedron cube 5 + t6 = tetrahedron cube 6 + + +-- -- | Given in Sorokina and Zeilfelder, p. 79, (2.6). Repeats +-- -- 'prop_c0120_identity1' with tetrahedrons 6 and 7. +prop_c0120_identity7 :: Cube -> Bool +prop_c0120_identity7 cube = + c t7 0 1 2 0 ~= (c t7 0 0 2 1 + c t6 0 0 1 2) / 2 + where + t6 = tetrahedron cube 6 + t7 = tetrahedron cube 7 + + +-- | Given in Sorokina and Zeilfelder, p. 79, (2.6). See +-- 'prop_c0120_identity1'. +prop_c0210_identity1 :: Cube -> Bool +prop_c0210_identity1 cube = + c t0 0 2 1 0 ~= (c t0 0 1 1 1 + c t3 0 1 1 1) / 2 + where + t0 = tetrahedron cube 0 + t3 = tetrahedron cube 3 + + +-- | Given in Sorokina and Zeilfelder, p. 79, (2.6). See +-- 'prop_c0120_identity1'. +prop_c0300_identity1 :: Cube -> Bool +prop_c0300_identity1 cube = + c t0 0 3 0 0 ~= (c t0 0 2 0 1 + c t3 0 2 1 0) / 2 + where + t0 = tetrahedron cube 0 + t3 = tetrahedron cube 3 + + +-- | Given in Sorokina and Zeilfelder, p. 79, (2.6). See +-- 'prop_c0120_identity1'. +prop_c1110_identity :: Cube -> Bool +prop_c1110_identity cube = + c t0 1 1 1 0 ~= (c t0 1 0 1 1 + c t3 1 0 1 1) / 2 + where + t0 = tetrahedron cube 0 + t3 = tetrahedron cube 3 + + +-- | Given in Sorokina and Zeilfelder, p. 79, (2.6). See +-- 'prop_c0120_identity1'. +prop_c1200_identity1 :: Cube -> Bool +prop_c1200_identity1 cube = + c t0 1 2 0 0 ~= (c t0 1 1 0 1 + c t3 1 1 1 0) / 2 + where + t0 = tetrahedron cube 0 + t3 = tetrahedron cube 3 + + +-- | Given in Sorokina and Zeilfelder, p. 79, (2.6). See +-- 'prop_c0120_identity1'. +prop_c2100_identity1 :: Cube -> Bool +prop_c2100_identity1 cube = + c t0 2 1 0 0 ~= (c t0 2 0 0 1 + c t3 2 0 1 0) / 2 + where + t0 = tetrahedron cube 0 + t3 = tetrahedron cube 3 + + + +-- | Given in Sorokina and Zeilfelder, p. 79, (2.7). Note that the +-- third and fourth indices of c-t3 have been switched. This is +-- because we store the triangles oriented such that their volume is +-- positive. If T and T-tilde share \ and v3,v3-tilde +-- point in opposite directions, one of them has to have negative +-- volume! +prop_c0102_identity1 :: Cube -> Bool +prop_c0102_identity1 cube = + c t0 0 1 0 2 ~= (c t0 0 0 1 2 + c t1 0 0 2 1) / 2 + where + t0 = tetrahedron cube 0 + t1 = tetrahedron cube 1 + + +-- | Given in Sorokina and Zeilfelder, p. 79, (2.7). See +-- 'prop_c0102_identity1'. +prop_c0201_identity1 :: Cube -> Bool +prop_c0201_identity1 cube = + c t0 0 2 0 1 ~= (c t0 0 1 1 1 + c t1 0 1 1 1) / 2 + where + t0 = tetrahedron cube 0 + t1 = tetrahedron cube 1 + + +-- | Given in Sorokina and Zeilfelder, p. 79, (2.7). See +-- 'prop_c0102_identity1'. +prop_c0300_identity2 :: Cube -> Bool +prop_c0300_identity2 cube = + c t0 0 3 0 0 ~= (c t0 0 2 1 0 + c t1 0 2 0 1) / 2 + where + t0 = tetrahedron cube 0 + t1 = tetrahedron cube 1 + + +-- | Given in Sorokina and Zeilfelder, p. 79, (2.7). See +-- 'prop_c0102_identity1'. +prop_c1101_identity :: Cube -> Bool +prop_c1101_identity cube = + c t0 1 1 0 1 ~= (c t0 1 0 1 1 + c t1 1 0 1 1) / 2 + where + t0 = tetrahedron cube 0 + t1 = tetrahedron cube 1 + + +-- | Given in Sorokina and Zeilfelder, p. 79, (2.7). See +-- 'prop_c0102_identity1'. +prop_c1200_identity2 :: Cube -> Bool +prop_c1200_identity2 cube = + c t0 1 2 0 0 ~= (c t0 1 1 1 0 + c t1 1 1 0 1) / 2 + where + t0 = tetrahedron cube 0 + t1 = tetrahedron cube 1 + + +-- | Given in Sorokina and Zeilfelder, p. 79, (2.7). See +-- 'prop_c0102_identity1'. +prop_c2100_identity2 :: Cube -> Bool +prop_c2100_identity2 cube = + c t0 2 1 0 0 ~= (c t0 2 0 1 0 + c t1 2 0 0 1) / 2 + where + t0 = tetrahedron cube 0 + t1 = tetrahedron cube 1 + + +-- | Given in Sorokina and Zeilfelder, p. 79, (2.8). The third and +-- fourth indices of c-t6 have been switched. This is because we +-- store the triangles oriented such that their volume is +-- positive. If T and T-tilde share \ and v3,v3-tilde +-- point in opposite directions, one of them has to have negative +-- volume! +prop_c3000_identity :: Cube -> Bool +prop_c3000_identity cube = + c t0 3 0 0 0 ~= c t0 2 1 0 0 + c t6 2 1 0 0 + - ((c t0 2 0 1 0 + c t0 2 0 0 1)/ 2) + where + t0 = tetrahedron cube 0 + t6 = tetrahedron cube 6 + + +-- | Given in Sorokina and Zeilfelder, p. 79, (2.8). See +-- 'prop_c3000_identity'. +prop_c2010_identity :: Cube -> Bool +prop_c2010_identity cube = + c t0 2 0 1 0 ~= c t0 1 1 1 0 + c t6 1 1 0 1 + - ((c t0 1 0 2 0 + c t0 1 0 1 1)/ 2) + where + t0 = tetrahedron cube 0 + t6 = tetrahedron cube 6 + + +-- | Given in Sorokina and Zeilfelder, p. 79, (2.8). See +-- 'prop_c3000_identity'. +prop_c2001_identity :: Cube -> Bool +prop_c2001_identity cube = + c t0 2 0 0 1 ~= c t0 1 1 0 1 + c t6 1 1 1 0 + - ((c t0 1 0 0 2 + c t0 1 0 1 1)/ 2) + where + t0 = tetrahedron cube 0 + t6 = tetrahedron cube 6 + + +-- | Given in Sorokina and Zeilfelder, p. 79, (2.8). See +-- 'prop_c3000_identity'. +prop_c1020_identity :: Cube -> Bool +prop_c1020_identity cube = + c t0 1 0 2 0 ~= c t0 0 1 2 0 + c t6 0 1 0 2 + - ((c t0 0 0 3 0 + c t0 0 0 2 1)/ 2) + where + t0 = tetrahedron cube 0 + t6 = tetrahedron cube 6 + + +-- | Given in Sorokina and Zeilfelder, p. 79, (2.8). See +-- 'prop_c3000_identity'. +prop_c1002_identity :: Cube -> Bool +prop_c1002_identity cube = + c t0 1 0 0 2 ~= c t0 0 1 0 2 + c t6 0 1 2 0 + - ((c t0 0 0 0 3 + c t0 0 0 1 2)/ 2) + where + t0 = tetrahedron cube 0 + t6 = tetrahedron cube 6 + + +-- | Given in Sorokina and Zeilfelder, p. 79, (2.8). See +-- 'prop_c3000_identity'. +prop_c1011_identity :: Cube -> Bool +prop_c1011_identity cube = + c t0 1 0 1 1 ~= c t0 0 1 1 1 + c t6 0 1 1 1 - + ((c t0 0 0 1 2 + c t0 0 0 2 1)/ 2) + where + t0 = tetrahedron cube 0 + t6 = tetrahedron cube 6 + + + +-- | Given in Sorokina and Zeilfelder, p. 78. +prop_cijk1_identity :: Cube -> Bool +prop_cijk1_identity cube = + and [ c t0 i j k 1 ~= + (c t1 (i+1) j k 0) * ((b0 t0) (v3 t1)) + + (c t1 i (j+1) k 0) * ((b1 t0) (v3 t1)) + + (c t1 i j (k+1) 0) * ((b2 t0) (v3 t1)) + + (c t1 i j k 1) * ((b3 t0) (v3 t1)) | i <- [0..2], + j <- [0..2], + k <- [0..2], + i + j + k == 2] + where + t0 = tetrahedron cube 0 + t1 = tetrahedron cube 1 + + +-- | The function values at the interior should be the same for all +-- tetrahedra. +prop_interior_values_all_identical :: Cube -> Bool +prop_interior_values_all_identical cube = + all_equal [ eval (function_values tet) I | tet <- tetrahedra cube ] + + +-- | We know what (c t6 2 1 0 0) should be from Sorokina and Zeilfelder, p. 87. +-- This test checks the rotation works as expected. +prop_c_tilde_2100_rotation_correct :: Cube -> Bool +prop_c_tilde_2100_rotation_correct cube = + expr1 == expr2 + where + t0 = tetrahedron cube 0 + t6 = tetrahedron cube 6 + + -- What gets computed for c2100 of t6. + expr1 = eval (function_values t6) $ + (3/8)*I + + (1/12)*(T + R + L + D) + + (1/64)*(FT + FR + FL + FD) + + (7/48)*F + + (1/48)*B + + (1/96)*(RT + LD + LT + RD) + + (1/192)*(BT + BR + BL + BD) + + -- What should be computed for c2100 of t6. + expr2 = eval (function_values t0) $ + (3/8)*I + + (1/12)*(F + R + L + B) + + (1/64)*(FT + RT + LT + BT) + + (7/48)*T + + (1/48)*D + + (1/96)*(FR + FL + BR + BL) + + (1/192)*(FD + RD + LD + BD) + + +-- | We know what (c t6 2 1 0 0) should be from Sorokina and +-- Zeilfelder, p. 87. This test checks the actual value based on +-- the FunctionValues of the cube. +-- +-- If 'prop_c_tilde_2100_rotation_correct' passes, then this test is +-- even meaningful! +prop_c_tilde_2100_correct :: Cube -> Bool +prop_c_tilde_2100_correct cube = + c t6 2 1 0 0 == expected + where + t0 = tetrahedron cube 0 + t6 = tetrahedron cube 6 + fvs = function_values t0 + expected = eval fvs $ + (3/8)*I + + (1/12)*(F + R + L + B) + + (1/64)*(FT + RT + LT + BT) + + (7/48)*T + + (1/48)*D + + (1/96)*(FR + FL + BR + BL) + + (1/192)*(FD + RD + LD + BD) + + +-- Tests to check that the correct edges are incidental. +prop_t0_shares_edge_with_t1 :: Cube -> Bool +prop_t0_shares_edge_with_t1 cube = + (v1 t0) == (v1 t1) && (v3 t0) == (v2 t1) + where + t0 = tetrahedron cube 0 + t1 = tetrahedron cube 1 + +prop_t0_shares_edge_with_t3 :: Cube -> Bool +prop_t0_shares_edge_with_t3 cube = + (v1 t0) == (v1 t3) && (v2 t0) == (v3 t3) + where + t0 = tetrahedron cube 0 + t3 = tetrahedron cube 3 + +prop_t0_shares_edge_with_t6 :: Cube -> Bool +prop_t0_shares_edge_with_t6 cube = + (v2 t0) == (v3 t6) && (v3 t0) == (v2 t6) + where + t0 = tetrahedron cube 0 + t6 = tetrahedron cube 6 + +prop_t1_shares_edge_with_t2 :: Cube -> Bool +prop_t1_shares_edge_with_t2 cube = + (v1 t1) == (v1 t2) && (v3 t1) == (v2 t2) + where + t1 = tetrahedron cube 1 + t2 = tetrahedron cube 2 + +prop_t1_shares_edge_with_t19 :: Cube -> Bool +prop_t1_shares_edge_with_t19 cube = + (v2 t1) == (v3 t19) && (v3 t1) == (v2 t19) + where + t1 = tetrahedron cube 1 + t19 = tetrahedron cube 19 + +prop_t2_shares_edge_with_t3 :: Cube -> Bool +prop_t2_shares_edge_with_t3 cube = + (v1 t1) == (v1 t2) && (v3 t1) == (v2 t2) + where + t1 = tetrahedron cube 1 + t2 = tetrahedron cube 2 + +prop_t2_shares_edge_with_t12 :: Cube -> Bool +prop_t2_shares_edge_with_t12 cube = + (v2 t2) == (v3 t12) && (v3 t2) == (v2 t12) + where + t2 = tetrahedron cube 2 + t12 = tetrahedron cube 12 + +prop_t3_shares_edge_with_t21 :: Cube -> Bool +prop_t3_shares_edge_with_t21 cube = + (v2 t3) == (v3 t21) && (v3 t3) == (v2 t21) + where + t3 = tetrahedron cube 3 + t21 = tetrahedron cube 21 + +prop_t4_shares_edge_with_t5 :: Cube -> Bool +prop_t4_shares_edge_with_t5 cube = + (v1 t4) == (v1 t5) && (v3 t4) == (v2 t5) + where + t4 = tetrahedron cube 4 + t5 = tetrahedron cube 5 + +prop_t4_shares_edge_with_t7 :: Cube -> Bool +prop_t4_shares_edge_with_t7 cube = + (v1 t4) == (v1 t7) && (v2 t4) == (v3 t7) + where + t4 = tetrahedron cube 4 + t7 = tetrahedron cube 7 + +prop_t4_shares_edge_with_t10 :: Cube -> Bool +prop_t4_shares_edge_with_t10 cube = + (v2 t4) == (v3 t10) && (v3 t4) == (v2 t10) + where + t4 = tetrahedron cube 4 + t10 = tetrahedron cube 10 + +prop_t5_shares_edge_with_t6 :: Cube -> Bool +prop_t5_shares_edge_with_t6 cube = + (v1 t5) == (v1 t6) && (v3 t5) == (v2 t6) + where + t5 = tetrahedron cube 5 + t6 = tetrahedron cube 6 + +prop_t5_shares_edge_with_t16 :: Cube -> Bool +prop_t5_shares_edge_with_t16 cube = + (v2 t5) == (v3 t16) && (v3 t5) == (v2 t16) + where + t5 = tetrahedron cube 5 + t16 = tetrahedron cube 16 + +prop_t6_shares_edge_with_t7 :: Cube -> Bool +prop_t6_shares_edge_with_t7 cube = + (v1 t6) == (v1 t7) && (v3 t6) == (v2 t7) + where + t6 = tetrahedron cube 6 + t7 = tetrahedron cube 7 + +prop_t7_shares_edge_with_t20 :: Cube -> Bool +prop_t7_shares_edge_with_t20 cube = + (v2 t7) == (v3 t20) && (v2 t7) == (v3 t20) + where + t7 = tetrahedron cube 7 + t20 = tetrahedron cube 20 + + + + + +p78_25_properties :: Test.Framework.Test +p78_25_properties = + testGroup "p. 78, Section (2.5) Properties" [ + testProperty "c_ijk1 identity" prop_cijk1_identity ] + +p79_26_properties :: Test.Framework.Test +p79_26_properties = + testGroup "p. 79, Section (2.6) Properties" [ + testProperty "c0120 identity1" prop_c0120_identity1, + testProperty "c0120 identity2" prop_c0120_identity2, + testProperty "c0120 identity3" prop_c0120_identity3, + testProperty "c0120 identity4" prop_c0120_identity4, + testProperty "c0120 identity5" prop_c0120_identity5, + testProperty "c0120 identity6" prop_c0120_identity6, + testProperty "c0120 identity7" prop_c0120_identity7, + testProperty "c0210 identity1" prop_c0210_identity1, + testProperty "c0300 identity1" prop_c0300_identity1, + testProperty "c1110 identity" prop_c1110_identity, + testProperty "c1200 identity1" prop_c1200_identity1, + testProperty "c2100 identity1" prop_c2100_identity1] + +p79_27_properties :: Test.Framework.Test +p79_27_properties = + testGroup "p. 79, Section (2.7) Properties" [ + testProperty "c0102 identity1" prop_c0102_identity1, + testProperty "c0201 identity1" prop_c0201_identity1, + testProperty "c0300 identity2" prop_c0300_identity2, + testProperty "c1101 identity" prop_c1101_identity, + testProperty "c1200 identity2" prop_c1200_identity2, + testProperty "c2100 identity2" prop_c2100_identity2 ] + + +p79_28_properties :: Test.Framework.Test +p79_28_properties = + testGroup "p. 79, Section (2.8) Properties" [ + testProperty "c3000 identity" prop_c3000_identity, + testProperty "c2010 identity" prop_c2010_identity, + testProperty "c2001 identity" prop_c2001_identity, + testProperty "c1020 identity" prop_c1020_identity, + testProperty "c1002 identity" prop_c1002_identity, + testProperty "c1011 identity" prop_c1011_identity ] + + +edge_incidence_tests :: Test.Framework.Test +edge_incidence_tests = + testGroup "Edge Incidence Tests" [ + testProperty "t0 shares edge with t6" prop_t0_shares_edge_with_t6, + testProperty "t0 shares edge with t1" prop_t0_shares_edge_with_t1, + testProperty "t0 shares edge with t3" prop_t0_shares_edge_with_t3, + testProperty "t1 shares edge with t2" prop_t1_shares_edge_with_t2, + testProperty "t1 shares edge with t19" prop_t1_shares_edge_with_t19, + testProperty "t2 shares edge with t3" prop_t2_shares_edge_with_t3, + testProperty "t2 shares edge with t12" prop_t2_shares_edge_with_t12, + testProperty "t3 shares edge with t21" prop_t3_shares_edge_with_t21, + testProperty "t4 shares edge with t5" prop_t4_shares_edge_with_t5, + testProperty "t4 shares edge with t7" prop_t4_shares_edge_with_t7, + testProperty "t4 shares edge with t10" prop_t4_shares_edge_with_t10, + testProperty "t5 shares edge with t6" prop_t5_shares_edge_with_t6, + testProperty "t5 shares edge with t16" prop_t5_shares_edge_with_t16, + testProperty "t6 shares edge with t7" prop_t6_shares_edge_with_t7, + testProperty "t7 shares edge with t20" prop_t7_shares_edge_with_t20 ] + +cube_properties :: Test.Framework.Test +cube_properties = + testGroup "Cube Properties" [ + p78_25_properties, + p79_26_properties, + p79_27_properties, + p79_28_properties, + edge_incidence_tests, + testProperty "opposite octant tetrahedra are disjoint (1)" + prop_opposite_octant_tetrahedra_disjoint1, + testProperty "opposite octant tetrahedra are disjoint (2)" + prop_opposite_octant_tetrahedra_disjoint2, + testProperty "opposite octant tetrahedra are disjoint (3)" + prop_opposite_octant_tetrahedra_disjoint3, + testProperty "opposite octant tetrahedra are disjoint (4)" + prop_opposite_octant_tetrahedra_disjoint4, + testProperty "opposite octant tetrahedra are disjoint (5)" + prop_opposite_octant_tetrahedra_disjoint5, + testProperty "opposite octant tetrahedra are disjoint (6)" + prop_opposite_octant_tetrahedra_disjoint6, + testProperty "all volumes positive" prop_all_volumes_positive, + testProperty "all volumes exact" prop_all_volumes_exact, + testProperty "v0 all equal" prop_v0_all_equal, + testProperty "interior values all identical" + prop_interior_values_all_identical, + testProperty "c-tilde_2100 rotation correct" + prop_c_tilde_2100_rotation_correct, + testProperty "c-tilde_2100 correct" + prop_c_tilde_2100_correct ]