@@ -8,67 +8,67 @@ import Test.Utils (AlmostEff, assert)
88
99main  ::  AlmostEff 
1010main = do 
11-      testNumberShow show
12-      testOrderings
13-      testOrdUtils
14-      testIntDivMod
15-      testIntDegree
16-      testRecordInstances
17-      testGenericRep
11+   testNumberShow show
12+   testOrderings
13+   testOrdUtils
14+   testIntDivMod
15+   testIntDegree
16+   testRecordInstances
17+   testGenericRep
1818
1919foreign  import  testNumberShow  ::  (Number  ->  String ) ->  AlmostEff 
2020
2121testOrd  ::  forall  a . Ord  a  =>  Show  a  =>  a  ->  a  ->  Ordering  ->  AlmostEff 
2222testOrd x y ord =
23-     assert
24-         (" (compare "   <> show x <> "  "   <> show y <> "  ) is not equal to "   <> show ord)
25-         $ (compare x y) == ord
26- 
27- nan  ::  Number 
28- nan = 0.0  /0.0 
29- 
30- plusInfinity  ::  Number 
31- plusInfinity = 1.0  /0.0 
32- 
33- minusInfinity  ::  Number 
34- minusInfinity = -1.0  /0.0 
23+   assert
24+     (" (compare "   <> show x <> "  "   <> show y <> "  ) is not equal to "   <> show ord)
25+     $ (compare x y) == ord
3526
3627testOrderings  ::  AlmostEff 
3728testOrderings = do 
38-     assert " NaN shouldn't be equal to itself"   $ nan /= nan
39-     assert " NaN shouldn't be equal to itself"   $ (compare nan nan) /= EQ 
40-     testOrd 1.0      2.0   LT 
41-     testOrd 2.0      1.0   GT 
42-     testOrd 1.0      (-2.0  ) GT 
43-     testOrd (-2.0  ) 1.0   LT 
44-     testOrd minusInfinity plusInfinity LT 
45-     testOrd minusInfinity 0.0   LT 
46-     testOrd plusInfinity  0.0   GT 
47-     testOrd plusInfinity  minusInfinity GT 
48-     testOrd 1.0   nan GT 
49-     testOrd nan 1.0   GT 
50-     testOrd nan plusInfinity GT 
51-     testOrd plusInfinity nan GT 
52-     assert " 1 > NaN should be false"   $ (1.0   > nan) == false 
53-     assert " 1 < NaN should be false"   $ (1.0   < nan) == false 
54-     assert " NaN > 1 should be false"   $ (nan > 1.0  ) == false 
55-     assert " NaN < 1 should be false"   $ (nan < 1.0  ) == false 
56-     assert " NaN == 1 should be false"   $ nan /= 1.0 
57-     testOrd (1   / 0  ) 0   EQ 
58-     testOrd (mod 1   0  ) 0   EQ 
59-     testOrd ' a'   ' b'   LT 
60-     testOrd ' b'   ' A'   GT 
61-     testOrd " 10"   " 0"   GT 
62-     testOrd " 10"   " 2"   LT 
63-     testOrd true   true  EQ 
64-     testOrd false  false  EQ 
65-     testOrd false  true  LT 
66-     testOrd true   false  GT 
67-     testOrd ([]  ::  Array  Int ) []  EQ 
68-     testOrd [1  , 0  ]  [1  ] GT 
69-     testOrd [1  ]     [1  , 0  ] LT 
70-     testOrd [1  , 1  ]  [1  , 0  ] GT 
71-     testOrd [1  , -1  ] [1  , 0  ] LT 
29+   assert " NaN shouldn't be equal to itself"   $ nan /= nan
30+   assert " NaN shouldn't be equal to itself"   $ (compare nan nan) /= EQ 
31+   testOrd 1.0      2.0   LT 
32+   testOrd 2.0      1.0   GT 
33+   testOrd 1.0      (-2.0  ) GT 
34+   testOrd (-2.0  ) 1.0   LT 
35+   testOrd minusInfinity plusInfinity LT 
36+   testOrd minusInfinity 0.0   LT 
37+   testOrd plusInfinity  0.0   GT 
38+   testOrd plusInfinity  minusInfinity GT 
39+   testOrd 1.0   nan GT 
40+   testOrd nan 1.0   GT 
41+   testOrd nan plusInfinity GT 
42+   testOrd plusInfinity nan GT 
43+   assert " 1 > NaN should be false"   $ (1.0   > nan) == false 
44+   assert " 1 < NaN should be false"   $ (1.0   < nan) == false 
45+   assert " NaN > 1 should be false"   $ (nan > 1.0  ) == false 
46+   assert " NaN < 1 should be false"   $ (nan < 1.0  ) == false 
47+   assert " NaN == 1 should be false"   $ nan /= 1.0 
48+   testOrd (1   / 0  ) 0   EQ 
49+   testOrd (mod 1   0  ) 0   EQ 
50+   testOrd ' a'   ' b'   LT 
51+   testOrd ' b'   ' A'   GT 
52+   testOrd " 10"   " 0"   GT 
53+   testOrd " 10"   " 2"   LT 
54+   testOrd true   true  EQ 
55+   testOrd false  false  EQ 
56+   testOrd false  true  LT 
57+   testOrd true   false  GT 
58+   testOrd ([]  ::  Array  Int ) []  EQ 
59+   testOrd [1  , 0  ]  [1  ] GT 
60+   testOrd [1  ]     [1  , 0  ] LT 
61+   testOrd [1  , 1  ]  [1  , 0  ] GT 
62+   testOrd [1  , -1  ] [1  , 0  ] LT 
63+   where 
64+     nan  ::  Number 
65+     nan = 0.0  /0.0 
66+ 
67+     plusInfinity  ::  Number 
68+     plusInfinity = 1.0  /0.0 
69+ 
70+     minusInfinity  ::  Number 
71+     minusInfinity = -1.0  /0.0 
7272
7373testOrdUtils  ::  AlmostEff 
7474testOrdUtils = do 
@@ -107,11 +107,11 @@ testIntDivMod = do
107107
108108testIntDegree  ::  AlmostEff 
109109testIntDegree = do 
110-      let  bot = bottom ::  Int 
111-      assert " degree returns absolute integers"   $ degree (-4  ) == 4 
112-      assert " degree returns absolute integers"   $ degree 4   == 4 
113-      assert " degree returns absolute integers"   $ degree bot >= 0 
114-      assert " degree does not return out-of-bounds integers"   $ degree bot <= top
110+   let  bot = bottom ::  Int 
111+   assert " degree returns absolute integers"   $ degree (-4  ) == 4 
112+   assert " degree returns absolute integers"   $ degree 4   == 4 
113+   assert " degree returns absolute integers"   $ degree bot >= 0 
114+   assert " degree does not return out-of-bounds integers"   $ degree bot <= top
115115
116116testRecordInstances  ::  AlmostEff 
117117testRecordInstances = do 
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