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- from direct.showbase import PythonUtil
- import pytest
- def test_queue():
- q = PythonUtil.Queue()
- assert q.isEmpty()
- q.clear()
- assert q.isEmpty()
- q.push(10)
- assert not q.isEmpty()
- q.push(20)
- assert not q.isEmpty()
- assert len(q) == 2
- assert q.front() == 10
- assert q.back() == 20
- assert q.top() == 10
- assert q.top() == 10
- assert q.pop() == 10
- assert len(q) == 1
- assert not q.isEmpty()
- assert q.pop() == 20
- assert len(q) == 0
- assert q.isEmpty()
- def test_flywheel():
- f = PythonUtil.flywheel(['a','b','c','d'], countList=[11,20,3,4])
- obj2count = {}
- for obj in f:
- obj2count.setdefault(obj, 0)
- obj2count[obj] += 1
- assert obj2count['a'] == 11
- assert obj2count['b'] == 20
- assert obj2count['c'] == 3
- assert obj2count['d'] == 4
- f = PythonUtil.flywheel([1,2,3,4], countFunc=lambda x: x*2)
- obj2count = {}
- for obj in f:
- obj2count.setdefault(obj, 0)
- obj2count[obj] += 1
- assert obj2count[1] == 2
- assert obj2count[2] == 4
- assert obj2count[3] == 6
- assert obj2count[4] == 8
- f = PythonUtil.flywheel([1,2,3,4], countFunc=lambda x: x, scale = 3)
- obj2count = {}
- for obj in f:
- obj2count.setdefault(obj, 0)
- obj2count[obj] += 1
- assert obj2count[1] == 1 * 3
- assert obj2count[2] == 2 * 3
- assert obj2count[3] == 3 * 3
- assert obj2count[4] == 4 * 3
- def test_formatTimeCompact():
- ftc = PythonUtil.formatTimeCompact
- assert ftc(0) == '0s'
- assert ftc(1) == '1s'
- assert ftc(60) == '1m0s'
- assert ftc(64) == '1m4s'
- assert ftc(60*60) == '1h0m0s'
- assert ftc(24*60*60) == '1d0h0m0s'
- assert ftc(24*60*60 + 2*60*60 + 34*60 + 12) == '1d2h34m12s'
- def test_formatTimeExact():
- fte = PythonUtil.formatTimeExact
- assert fte(0) == '0s'
- assert fte(1) == '1s'
- assert fte(2) == '2s'
- assert fte(61) == '1m1s'
- assert fte(60) == '1m'
- assert fte(60*60) == '1h'
- assert fte(24*60*60) == '1d'
- assert fte((24*60*60) + (2 * 60)) == '1d0h2m'
- del fte
- def test_AlphabetCounter():
- tempList = []
- ac = PythonUtil.AlphabetCounter()
- for i in range(26*3):
- tempList.append(ac.next())
- assert tempList == [ 'A', 'B', 'C', 'D', 'E', 'F', 'G', 'H', 'I', 'J', 'K', 'L', 'M', 'N', 'O', 'P', 'Q', 'R', 'S', 'T', 'U', 'V', 'W', 'X', 'Y', 'Z',
- 'AA','AB','AC','AD','AE','AF','AG','AH','AI','AJ','AK','AL','AM','AN','AO','AP','AQ','AR','AS','AT','AU','AV','AW','AX','AY','AZ',
- 'BA','BB','BC','BD','BE','BF','BG','BH','BI','BJ','BK','BL','BM','BN','BO','BP','BQ','BR','BS','BT','BU','BV','BW','BX','BY','BZ',]
- ac = PythonUtil.AlphabetCounter()
- num = 26 # A-Z
- num += (26*26) # AA-ZZ
- num += 26 # AAZ
- num += 1 # ABA
- num += 2 # ABC
- for i in range(num):
- x = ac.next()
- assert x == 'ABC'
- def test_unescape_html_string():
- assert PythonUtil.unescapeHtmlString('asdf') == 'asdf'
- assert PythonUtil.unescapeHtmlString('as+df') == 'as df'
- assert PythonUtil.unescapeHtmlString('as%32df') == 'as2df'
- assert PythonUtil.unescapeHtmlString('asdf%32') == 'asdf2'
- def test_priority_callbacks():
- l = []
- def a(l=l):
- l.append('a')
- def b(l=l):
- l.append('b')
- def c(l=l):
- l.append('c')
- pc = PythonUtil.PriorityCallbacks()
- pc.add(a)
- pc()
- assert l == ['a']
- del l[:]
- bItem = pc.add(b)
- pc()
- assert 'a' in l
- assert 'b' in l
- assert len(l) == 2
- del l[:]
- pc.remove(bItem)
- pc()
- assert l == ['a']
- del l[:]
- pc.add(c, 2)
- bItem = pc.add(b, 10)
- pc()
- assert l == ['a', 'c', 'b']
- del l[:]
- pc.remove(bItem)
- pc()
- assert l == ['a', 'c']
- del l[:]
- pc.clear()
- pc()
- assert len(l) == 0
- def test_weighted_choice():
- # Test PythonUtil.weightedChoice() with no valid list.
- with pytest.raises(IndexError):
- PythonUtil.weightedChoice([])
- # Create a sample choice list.
- # This contains a few tuples containing only a weight
- # and an arbitrary item.
- choicelist = [(3, 'item1'), (1, 'item2'), (7, 'item3')]
- # These are the items that we expect.
- items = ['item1', 'item2', 'item3']
- # Test PythonUtil.weightedChoice() with our choice list.
- item = PythonUtil.weightedChoice(choicelist)
- # Assert that what we got was at least an available item.
- assert item in items
- # Create yet another sample choice list, but with a couple more items.
- choicelist = [(2, 'item1'), (25, 'item2'), (14, 'item3'), (5, 'item4'),
- (7, 'item5'), (3, 'item6'), (6, 'item7'), (50, 'item8')]
- # Set the items that we expect again.
- items = ['item1', 'item2', 'item3', 'item4', 'item5', 'item6', 'item7', 'item8']
- # The sum of all of the weights is 112.
- weightsum = 2 + 25 + 14 + 5 + 7 + 3 + 6 + 50
- # Test PythonUtil.weightedChoice() with the sum.
- item = PythonUtil.weightedChoice(choicelist, sum=weightsum)
- # Assert that we got a valid item (most of the time this should be 'item8').
- assert item in items
- # Test PythonUtil.weightedChoice(), but with an invalid sum.
- item = PythonUtil.weightedChoice(choicelist, sum=1)
- # Assert that we got 'item1'.
- assert item == items[0]
- # Create a bogus random function.
- rnd = lambda: 0.5
- # Test PythonUtil.weightedChoice() with the bogus function.
- item = PythonUtil.weightedChoice(choicelist, rng=rnd, sum=weightsum)
- # Assert that we got 'item6'.
- # We expect 'item6' because 0.5 multiplied by 112 is 56.0.
- # When subtracting that number by each weight, it will reach 0
- # by the time it hits 'item6' in the iteration.
- assert item == items[5]
- def test_serial():
- gen = PythonUtil.SerialNumGen()
- assert gen.next() == 0
- assert next(gen) == 1
- assert next(gen) == 2
- assert gen.next() == 3
- def test_alphabet_counter():
- counter = PythonUtil.AlphabetCounter()
- assert next(counter) == 'A'
- assert counter.next() == 'B'
- assert counter.next() == 'C'
- assert next(counter) == 'D'
- for i in range(26 - 4):
- next(counter)
- assert next(counter) == 'AA'
- assert next(counter) == 'AB'
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