def testLexMidlineModeExcerpt(self):
r_normal = pythonSource(incompletePythonCode)
r_mid_line = pythonSource(incompletePythonCode, mid_line=True)
self.assertEquals(len(r_normal), 13)
self.assertEquals(len(r_mid_line), 11)
self.assertEquals(r_normal[-1].type, 'ENDMARKER')
self.assertEquals(r_normal[-2].type, 'DEDENT')
self.assertEquals(r_mid_line[-1].value, 'ran')
def testLexMidlineModeSingleLine(self):
r_normal = pythonSource(somePythonCode)
r_mid_line = pythonSource(somePythonCode, mid_line=True)
# This small one line example has no indent or anything.
self.assertEquals(len(r_normal), 9)
self.assertEquals(len(r_mid_line), 8)
self.assertEquals(r_normal[-1].type, 'ENDMARKER')
self.assertNotEquals(r_mid_line[-1].type, 'ENDMARKER')
def testLexMidlineModeExcerpt(self):
r_normal = pythonSource(incompletePythonCode)
r_mid_line = pythonSource(incompletePythonCode, mid_line=True)
self.assertEquals(len(r_normal), 13)
self.assertEquals(len(r_mid_line), 11)
self.assertEquals(r_normal[-1].type, 'ENDMARKER')
self.assertEquals(r_normal[-2].type, 'DEDENT')
self.assertEquals(r_mid_line[-1].value, 'ran')
def testLexMidlineModeSingleLine(self):
r_normal = pythonSource(somePythonCode)
r_mid_line = pythonSource(somePythonCode, mid_line=True)
# This small one line example has no indent or anything.
self.assertEquals(len(r_normal), 9)
self.assertEquals(len(r_mid_line), 8)
self.assertEquals(r_normal[-1].type, 'ENDMARKER')
self.assertNotEquals(r_mid_line[-1].type, 'ENDMARKER')
def testDeleteOne(self):
r = pythonSource(lotsOfPythonCode)
x = r.pop(1)
self.assertEquals(x.value, 'def')
r.check()
r.pop(6)
r.check()
r.pop(1)
r.check()
r.pop(1)
r.check()
r.pop(1)
r.check()
r.pop(1)
r.check()
r.pop(1)
r.check()
r.pop(1)
r.check()
r.pop(1)
r.check()
r.pop(1)
r.check()
r.pop(1)
r.check()
r.pop(1)
r.check()
def testDeleteOne(self):
r = pythonSource(lotsOfPythonCode)
x = r.pop(1)
self.assertEquals(x.value, 'def')
r.check()
r.pop(6)
r.check()
r.pop(1)
r.check()
r.pop(1)
r.check()
r.pop(1)
r.check()
r.pop(1)
r.check()
r.pop(1)
r.check()
r.pop(1)
r.check()
r.pop(1)
r.check()
r.pop(1)
r.check()
r.pop(1)
r.check()
r.pop(1)
r.check()
def testDeleteOneTwo(self):
r = pythonSource(codeWithDeleteFailure)
x = r.pop(2)
r.check()
r.pop(2)
r.check()
r.pop(2)
r.check()
def testDeleteOneTwo(self):
r = pythonSource(codeWithDeleteFailure)
x = r.pop(2)
r.check()
r.pop(2)
r.check()
r.pop(2)
r.check()
def testLexExpectedToken(self):
r = pythonSource(somePythonCode)
self.assertEquals(r[0].end[0], 1)
self.assertEquals(r[0].end[1], 5)
self.assertEquals(r[0].start[0], 1)
self.assertEquals(r[0].start[1], 0)
self.assertEquals(r[0].type, 'NAME')
self.assertEquals(r[0].value, 'print')
def testLexExpectedToken(self):
r = pythonSource(somePythonCode)
self.assertEquals(r[0].end[0], 1)
self.assertEquals(r[0].end[1], 5)
self.assertEquals(r[0].start[0], 1)
self.assertEquals(r[0].start[1], 0)
self.assertEquals(r[0].type, 'NAME')
self.assertEquals(r[0].value, 'print')
def testLexExpectedFormat(self):
r = pythonSource(somePythonCode)
self.assertTrue(isinstance(r, ucSource))
self.assertTrue(isinstance(r[0], ucLexeme))
self.assertTrue(isinstance(r[0].end, tuple))
self.assertTrue(isinstance(r[0].end.l, int))
self.assertTrue(isinstance(r[0].end.c, int))
self.assertTrue(isinstance(r[0].start, tuple))
self.assertTrue(isinstance(r[0].start[0], int))
self.assertTrue(isinstance(r[0].start[1], int))
self.assertTrue(isinstance(r[0].type, str))
self.assertTrue(isinstance(r[0].value, str))
def testLexExpectedFormat(self):
r = pythonSource(somePythonCode)
self.assertTrue(isinstance(r, ucSource))
self.assertTrue(isinstance(r[0], ucLexeme))
self.assertTrue(isinstance(r[0].end, tuple))
self.assertTrue(isinstance(r[0].end.l, int))
self.assertTrue(isinstance(r[0].end.c, int))
self.assertTrue(isinstance(r[0].start, tuple))
self.assertTrue(isinstance(r[0].start[0], int))
self.assertTrue(isinstance(r[0].start[1], int))
self.assertTrue(isinstance(r[0].type, str))
self.assertTrue(isinstance(r[0].value, str))
def testPopBug(self):
# AssertionError: [('OP', '=', (76, 44), (76, 45)), ('NEWLINE', '\n', (76, 3), (76, 4))]
r = pythonSource("a=1+2\na")
r.pop(4)
r.check()
r = pythonSource("a=1+2\na")
r.pop(5)
r.check()
r = pythonSource("a=1+2\n\n")
r.pop(4)
r.check()
r = pythonSource("a=1\n\n")
r.pop(2)
r.check()
r = pythonSource("for _ in range(0, x):\n\ta=1\n\n")
x = r.pop(14)
r.check()
self.assertEquals(x.value, '1')
r = pythonSource("for _ in range(0, x):\n\ta=1\n\n")
x = r.pop(9)
r.check()
self.assertEquals(x.value, ':')
def testPopBug(self):
# AssertionError: [('OP', '=', (76, 44), (76, 45)), ('NEWLINE', '\n', (76, 3), (76, 4))]
r = pythonSource("a=1+2\na")
r.pop(4)
r.check()
r = pythonSource("a=1+2\na")
r.pop(5)
r.check()
r = pythonSource("a=1+2\n\n")
r.pop(4)
r.check()
r = pythonSource("a=1\n\n")
r.pop(2)
r.check()
r = pythonSource("for _ in range(0, x):\n\ta=1\n\n")
x = r.pop(14)
r.check()
self.assertEquals(x.value, '1')
r = pythonSource("for _ in range(0, x):\n\ta=1\n\n")
x = r.pop(9)
r.check()
self.assertEquals(x.value, ':')
def testLexExpectedLength(self):
r = pythonSource(somePythonCode)
self.assertEquals(len(r), 9)
def testPoppin(self):
r = pythonSource("1+2")
r.pop(0)
r.pop(0)
r.pop(0)
def testExclusiveEnd(self):
r = pythonSource("1+2")
self.assertTrue(r[0].start.c + 1 == r[0].end.c) # First token is r[0]
self.assertTrue(r[2].start.c + 1 == r[2].end.c)
def testStringifyStandard(self):
self.assertEquals(str(pythonSource(someLexemes)[0]), 'print')
self.assertEquals(str(pythonSource(someLexemes)[8]), '<ENDMARKER>')
self.assertEquals(str(pythonLexeme.fromDict(indentLexeme)), '<INDENT>')
def testExclusiveEnd(self):
r = pythonSource("1+2")
self.assertTrue(r[0].start.c + 1 == r[0].end.c) # First token is r[0]
self.assertTrue(r[2].start.c + 1 == r[2].end.c)
def testColumns(self):
r = pythonSource(lotsOfPythonCode)
self.assertEquals(r[1].columns(), 3) # this should be the "def" token
self.assertEquals(r[0].lines(), 0)
def testPoppin(self):
r = pythonSource("1+2")
r.pop(0)
r.pop(0)
r.pop(0)
def testStringifyStandard(self):
self.assertEquals(str(pythonSource(someLexemes)[0]), 'print')
self.assertEquals(str(pythonSource(someLexemes)[8]), '<ENDMARKER>')
self.assertEquals(str(pythonLexeme.fromDict(indentLexeme)), '<INDENT>')
def testLexDeLex(self):
self.assertEquals(lotsOfPythonCode,
(pythonSource(lotsOfPythonCode).deLex()))
self.assertEquals(codeWithComments,
(pythonSource(codeWithComments).deLex()))
def testLexDeLex(self):
self.assertEquals(lotsOfPythonCode, (pythonSource(lotsOfPythonCode).deLex()))
self.assertEquals(codeWithComments, (pythonSource(codeWithComments).deLex()))
def testColumns(self):
r = pythonSource(lotsOfPythonCode)
self.assertEquals(r[1].columns(), 3) # this should be the "def" token
self.assertEquals(r[0].lines(), 0)
def testLexExpectedLength(self):
r = pythonSource(somePythonCode)
self.assertEquals(len(r), 9)
import unittest
from logging import debug, info, warning, error
from estimatecharm.unnaturalCode import *
from estimatecharm.pythonSource import *
from estimatecharm.estimateCharm import *
import os, os.path, sys, shutil, token, gc
from tempfile import *
from estimatecharm.ucTestData import *
# Helper. Given a list of lexemes, gives the stringified version
# of the ith lexeme.
strlex = lambda lexemes, i: str(pythonSource(lexemes)[i])
# Helper. Same as strlex, but takes a single dict representing a lexeme.
strlexd = lambda lexeme: str(pythonLexeme.fromDict(lexeme))
logging.getLogger(__name__).setLevel(logging.DEBUG)
class testPythonLexical(unittest.TestCase):
@classmethod
def setUpClass(self):
pass
def testLexExpectedLength(self):
r = pythonSource(somePythonCode)
self.assertEquals(len(r), 9)
def testLexExpectedFormat(self):
r = pythonSource(somePythonCode)
import unittest
from logging import debug, info, warning, error
from estimatecharm.unnaturalCode import *
from estimatecharm.pythonSource import *
from estimatecharm.estimateCharm import *
import os, os.path, sys, shutil, token, gc
from tempfile import *
from estimatecharm.ucTestData import *
# Helper. Given a list of lexemes, gives the stringified version
# of the ith lexeme.
strlex = lambda lexemes, i: str(pythonSource(lexemes)[i])
# Helper. Same as strlex, but takes a single dict representing a lexeme.
strlexd = lambda lexeme: str(pythonLexeme.fromDict(lexeme))
logging.getLogger(__name__).setLevel(logging.DEBUG)
class testPythonLexical(unittest.TestCase):
@classmethod
def setUpClass(self):
pass
def testLexExpectedLength(self):
r = pythonSource(somePythonCode)
self.assertEquals(len(r), 9)