Esempio n. 1
0
def add(*matrices):
    if not equal(matrices, len):
        raise ValueError("Given matrices are not the same size.")

    s = []
    for rows in zip(*matrices):
        if not equal(rows, len):
            raise ValueError("Given matrices are not the same size.")

        t = []
        for elems in zip(*rows):
            t.append(sum(elems))
        s.append(t)
    return s
Esempio n. 2
0
def clean():
    args = get_args_clean()
    import os
    full_path = os.path.abspath(args["json_file"])
    folder = os.path.dirname(full_path)
    all_imgs = utils.open_json(args["json_file"])
    filtered = utils.filter_by_type(os.listdir(folder), "_c.jpg")

    clean_json = []
    for img in all_imgs:
        for one in filtered:
            if utils.equal(img["file_name"], one):
                clean_json.append(img)
                break

    utils.save_json(clean_json, args["outfile"])
Esempio n. 3
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def inplace_rotate(image):
    assert(utils.equal(*image.shape)) #NxN
    N = image.shape[0] 
    #rotate 90degrees = change coordinatesystem (x,y)->(y,N-x)
    def rotate_pixel_quartet(image, x, y):
        """rotates a pixel quartet, i
        that is all 4pixels that needs to be moved
        (  x,  y),(  y,N-x),(N-x,N-y),(N-y,  x) //coordinate change 3 times
        """
        first_pixel = image[x,y]
        #copy backwards to save a few temporary variables
        image[    x,    y] = image[N-y-1,    x]
        image[N-y-1,    x] = image[N-x-1,N-y-1]
        image[N-x-1,N-y-1] = image[    y,N-x-1]
        image[    y,N-x-1] = first_pixel

    rotate = ft.partial(rotate_pixel_quartet, image)

#   now only do the quartet rotate on a chunk like this (else you will rotate the same pixel multiple time)
#
#   XXXX000
#   XXXX000
#   XXXX000
#   0000000
#   0000000
#   0000000
#   0000000
#
#   the box((0,0),(ceil(N/2.0),N//2)) show with 'X' works for both odd and even N
#   
#   added bonus: the center will not be copied at all if N is odd, and it is stationary

    list(it.starmap(
        rotate, 
        it.product(
            range(ceil(N/2.0)),
            range(N//2)
        )
    ))
	def test_norm(self):
		p = viennagrid.wrapper.PointCartesian3D(1, 2, 3)
		self.assertTrue(equal(p.norm_1(), 6))
		self.assertTrue(equal(p.norm_2(), 3.74))
		self.assertTrue(equal(p.norm_inf(), 3))
Esempio n. 5
0
def patternmatch(pattern, expr, state):
    """ `expr` should've been evaluated, `pattern` should not yet have been evaluated.
    Keep in mind that syntactially, 'pattern' can be any expression, like a function definition
    or whatever, even though patternmatching only works on simpler things like numbers and tuples.
    """
    make_exception = lambda s: utils.InvalidMatch("Invalid match ({})".format(s), state.newinfonode(pattern))


    if pattern._type == 'uminus' and pattern.content._type == 'number':
        # Special rule for negative numbers, otherwise I wouldn't be able to match
        # them.
        pattern = pattern.content
        pattern.content = -pattern.content


    if pattern._type == 'list-literal':
        return patternmatch(utils.transform_list_literal(pattern.content, infonode=pattern),
                            expr, state)

    elif state.env.is_unbound_identifier(pattern):
        if state.readonly:
            raise MalangError("Cannot bind identifier {!r} in pattern in readonly mode".format(pattern.content),
                              state.newinfonode(pattern))
        else:
            state.env.bind(pattern.content, expr)
            return

    elif pattern._type == 'id' and state.env.is_bound(pattern.content):
        val = state.env.get(pattern.content, state.newinfonode(pattern))
        if not utils.equal(val, expr):
            raise make_exception("identifier {!r} is already bound".format(pattern.content))
        return

    elif pattern._type == 'cons':
        if expr._type != 'list':
            raise make_exception("tried to match something of type {} agains a cons pattern".format(expr._type))
        elif utils.is_nil(expr):
            raise make_exception("tried to match the empty list against a cons pattern")

        patternmatch(pattern.content[0], expr.content[0], state)
        patternmatch(pattern.content[1], expr.content[1], state)
        return

    elif pattern._type == 'module_access':
        module, access = pattern.content
        if not (module._type == 'id' and
                state.env.is_bound(module.content) and
                state.env.get(module.content, state.newinfonode(pattern))._type == 'module'):
            raise MalangError("Invalid module in pattern", state.newinfonode(pattern))
        else:
            return patternmatch(access, expr,
                                state.newenv(
                                    state.env.get(module.content,
                                                  state.newinfonode(pattern)).content).newreadonly(True))


    elif pattern._type != expr._type:
        raise make_exception(
            "tried to match something of type {} agains a pattern of type {}".format(expr._type, pattern._type))

    elif pattern._type == 'list':
        pattern_nil, expr_nil = utils.is_nil(pattern), utils.is_nil(expr)

        if pattern_nil and expr_nil:
            return
        elif pattern_nil or expr_nil:
            if pattern_nil:
                raise make_exception("tried to match a list of 1 or more elements agains the empty list pattern")
            elif expr_nil:
                raise make_exception("tried to match the empty list agains a pattern-list of 1 or more elements")

        patternmatch(pattern.content[0], expr.content[0], state)
        patternmatch(pattern.content[1], expr.content[1], state)
        return


    elif pattern._type == 'tuple':
        pattern_len = len(pattern.content)
        expr_len = len(expr.content)
        if not pattern_len == expr_len:
            raise make_exception(
                "tried to match a tuple of length {} agains a pattern-tuple of length {}".format(expr_len, pattern_len))
        for pat, e in zip(pattern.content, expr.content):
            patternmatch(pat, e, state)
        return

    elif pattern._type in ('number', 'str', 'atom'):
        if not pattern.content == expr.content:
            raise make_exception(
                "tried to match the {} {!r} agains the pattern-{} {!r}".format(expr._type, expr.content,
                                                                               pattern._type, pattern.content))
        return


    raise MalangError("Don't know how to pattern-match that. ", state.newinfonode(pattern))
Esempio n. 6
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arithmetic_funcs = {
    'plus':   operator.add,
    'minus':  operator.sub,
    'divide': operator.floordiv,
    'times':  operator.mul,
    'modulo': operator.mod,
    'pow':    operator.pow
}

cmp_funcs = {
    'gt': utils.greater_than,
    'lt': utils.less_than,
    'ge': utils.greater_than_or_eq,
    'le': utils.less_than_or_eq,
    'eq': utils.equal,
    'ne': lambda op1, op2: not utils.equal(op1, op2)
}

def thunk(func, *args, **kwargs):
    def _f():
        return func(*args, **kwargs)
    return _f

def trampoline(expr, state):
    """
    This trampoline function is necessary for the purpose of implementing tail call elimination.
    When `maval' is about to evaluate an expression in tail position, it returns a thunk
    instead of recursing deeper into itself, thus making sure that the python call stack
    doesn't grow huge. So it's like `maval' is 'jumping' on this trampoline. I guess.
    """
    result = maval(expr, state)
Esempio n. 7
0
	def test_init(self):
		"""
		Test constructor with all possible argument combinations.
		
		Valid signatures are:
		
		Point(dim)
		Point(coord_system, dim)
		
		Point(x)
		Point(x, coord_system)
		Point(x, dim)
		Point(x, coord_system, dim)
		
		Point(x, y)
		Point(x, y, coord_system)
		Point(x, y, dim)
		Point(x, y, coord_system, dim)
		
		Point(x, y, z)
		Point(x, y, z, coord_system)
		Point(x, y, z, dim)
		Point(x, y, z, coord_system, dim)
		"""
		
		###########################################################################################
		
		"""
		The following signatures must fail:
		
		Point()
		"""
		
		x = 0
		y = 0
		z = 0
		
		self.assertRaises(TypeError, viennagrid.Point)
		
		###########################################################################################
		
		"""
		Test signature:
		
		Point(dim)
		"""
		
		p = viennagrid.Point(dim=1)
		self.assertEqual(p.coord_system, viennagrid.config.CARTESIAN)
		self.assertEqual(p.dim, 1)
		self.assertTrue(*equal(p.coords[0], x))
		
		p = viennagrid.Point(dim=2)
		self.assertEqual(p.coord_system, viennagrid.config.CARTESIAN)
		self.assertEqual(p.dim, 2)
		self.assertTrue(*equal(p.coords[0], x))
		self.assertTrue(*equal(p.coords[1], y))
		
		p = viennagrid.Point(dim=3)
		self.assertEqual(p.coord_system, viennagrid.config.CARTESIAN)
		self.assertEqual(p.dim, 3)
		self.assertTrue(*equal(p.coords[0], x))
		self.assertTrue(*equal(p.coords[1], y))
		self.assertTrue(*equal(p.coords[2], z))
		
		self.assertRaises(ValueError, viennagrid.Point, dim=0)
		self.assertRaises(ValueError, viennagrid.Point, dim=4)
		self.assertRaises(TypeError, viennagrid.Point, dim='')
		self.assertRaises(TypeError, viennagrid.Point, dim=[])
		self.assertRaises(TypeError, viennagrid.Point, dim=long(1))
		self.assertRaises(TypeError, viennagrid.Point, dim=float(1))
		self.assertRaises(TypeError, viennagrid.Point, dim=complex(1))
		
		###########################################################################################
		
		"""
		Test signature:
		
		Point(coord_system)
		
		This must fail for coord_system=CARTESIAN, because 'dim' is unknown. However, for
		coord_system=POLAR, coord_system=SPHERICAL and coord_system=CYLINDRICAL it
		must work, because 'dim' is unambiguous.
		"""
		
		self.assertRaises(TypeError, viennagrid.Point, coord_system=viennagrid.config.CARTESIAN)
		
		p = viennagrid.Point(coord_system=viennagrid.config.POLAR)
		self.assertEqual(p.coord_system, viennagrid.config.POLAR)
		self.assertEqual(p.dim, 2)
		self.assertTrue(*equal(p.coords[0], x))
		self.assertTrue(*equal(p.coords[1], y))
		
		p = viennagrid.Point(coord_system=viennagrid.config.SPHERICAL)
		self.assertEqual(p.coord_system, viennagrid.config.SPHERICAL)
		self.assertEqual(p.dim, 3)
		self.assertTrue(*equal(p.coords[0], x))
		self.assertTrue(*equal(p.coords[1], y))
		self.assertTrue(*equal(p.coords[2], z))
		
		p = viennagrid.Point(coord_system=viennagrid.config.CYLINDRICAL)
		self.assertEqual(p.coord_system, viennagrid.config.CYLINDRICAL)
		self.assertEqual(p.dim, 3)
		self.assertTrue(*equal(p.coords[0], x))
		self.assertTrue(*equal(p.coords[1], y))
		self.assertTrue(*equal(p.coords[2], z))
		
		self.assertRaises(ValueError, viennagrid.Point, coord_system='')
		self.assertRaises(TypeError, viennagrid.Point, coord_system=[])
		self.assertRaises(TypeError, viennagrid.Point, coord_system=int(1))
		
		###########################################################################################
		
		"""
		Test signature:
		
		Point(coord_system, dim)
		"""
		
		p = viennagrid.Point(coord_system=viennagrid.config.CARTESIAN, dim=1)
		self.assertEqual(p.coord_system, viennagrid.config.CARTESIAN)
		self.assertEqual(p.dim, 1)
		self.assertTrue(*equal(p.coords[0], x))
		
		p = viennagrid.Point(coord_system=viennagrid.config.CARTESIAN, dim=2)
		self.assertEqual(p.coord_system, viennagrid.config.CARTESIAN)
		self.assertEqual(p.dim, 2)
		self.assertTrue(*equal(p.coords[0], x))
		self.assertTrue(*equal(p.coords[1], y))
		
		p = viennagrid.Point(coord_system=viennagrid.config.CARTESIAN, dim=3)
		self.assertEqual(p.coord_system, viennagrid.config.CARTESIAN)
		self.assertEqual(p.dim, 3)
		self.assertTrue(*equal(p.coords[0], x))
		self.assertTrue(*equal(p.coords[1], y))
		self.assertTrue(*equal(p.coords[2], z))
		
		p = viennagrid.Point(coord_system=viennagrid.config.POLAR, dim=2)
		self.assertEqual(p.coord_system, viennagrid.config.POLAR)
		self.assertEqual(p.dim, 2)
		self.assertTrue(*equal(p.coords[0], x))
		self.assertTrue(*equal(p.coords[1], y))
		
		p = viennagrid.Point(coord_system=viennagrid.config.SPHERICAL, dim=3)
		self.assertEqual(p.coord_system, viennagrid.config.SPHERICAL)
		self.assertEqual(p.dim, 3)
		self.assertTrue(*equal(p.coords[0], x))
		self.assertTrue(*equal(p.coords[1], y))
		self.assertTrue(*equal(p.coords[2], z))
		
		p = viennagrid.Point(coord_system=viennagrid.config.CYLINDRICAL, dim=3)
		self.assertEqual(p.coord_system, viennagrid.config.CYLINDRICAL)
		self.assertEqual(p.dim, 3)
		self.assertTrue(*equal(p.coords[0], x))
		self.assertTrue(*equal(p.coords[1], y))
		self.assertTrue(*equal(p.coords[2], z))
		
		self.assertRaises(ValueError, viennagrid.Point, coord_system=viennagrid.config.CARTESIAN, dim=0)
		self.assertRaises(ValueError, viennagrid.Point, coord_system=viennagrid.config.CARTESIAN, dim=4)
		self.assertRaises(ValueError, viennagrid.Point, coord_system=viennagrid.config.POLAR, dim=1)
		self.assertRaises(ValueError, viennagrid.Point, coord_system=viennagrid.config.POLAR, dim=3)
		self.assertRaises(ValueError, viennagrid.Point, coord_system=viennagrid.config.SPHERICAL, dim=1)
		self.assertRaises(ValueError, viennagrid.Point, coord_system=viennagrid.config.SPHERICAL, dim=2)
		self.assertRaises(ValueError, viennagrid.Point, coord_system=viennagrid.config.SPHERICAL, dim=4)
		self.assertRaises(ValueError, viennagrid.Point, coord_system=viennagrid.config.CYLINDRICAL, dim=1)
		self.assertRaises(ValueError, viennagrid.Point, coord_system=viennagrid.config.CYLINDRICAL, dim=2)
		self.assertRaises(ValueError, viennagrid.Point, coord_system=viennagrid.config.CYLINDRICAL, dim=4)
		
		###########################################################################################
		
		"""
		Test signature:
		
		Point(x)
		"""
		
		x = 15
		y = 83
		z = 49
		
		p = viennagrid.Point(x)
		self.assertEqual(p.coord_system, viennagrid.config.CARTESIAN)
		self.assertEqual(p.dim, 1)
		self.assertTrue(*equal(p.coords[0], x))
		
		###########################################################################################
		
		"""
		Test signature:
		
		Point(x, dim)
		"""
		
		p = viennagrid.Point(x, dim=1)
		self.assertEqual(p.coord_system, viennagrid.config.CARTESIAN)
		self.assertEqual(p.dim, 1)
		self.assertTrue(*equal(p.coords[0], x))
		
		self.assertRaises(ValueError, viennagrid.Point, x, dim=0)
		self.assertRaises(ValueError, viennagrid.Point, x, dim=2)
		self.assertRaises(ValueError, viennagrid.Point, x, dim=3)
		
		self.assertRaises(ValueError, viennagrid.Point, x, dim=0)
		self.assertRaises(ValueError, viennagrid.Point, x, dim=4)
		self.assertRaises(TypeError, viennagrid.Point, x, dim='')
		self.assertRaises(TypeError, viennagrid.Point, x, dim=[])
		self.assertRaises(TypeError, viennagrid.Point, x, dim=long(1))
		self.assertRaises(TypeError, viennagrid.Point, x, dim=float(1))
		self.assertRaises(TypeError, viennagrid.Point, x, dim=complex(1))
		
		###########################################################################################
		
		"""
		Test signature:
		
		Point(x, coord_system)
		"""
		
		p = viennagrid.Point(x, coord_system=viennagrid.config.CARTESIAN)
		self.assertEqual(p.coord_system, viennagrid.config.CARTESIAN)
		self.assertEqual(p.dim, 1)
		self.assertTrue(*equal(p.coords[0], x))
		
		self.assertRaises(TypeError, viennagrid.Point, x, coord_system=viennagrid.config.SPHERICAL)
		self.assertRaises(TypeError, viennagrid.Point, x, coord_system=viennagrid.config.POLAR)
		self.assertRaises(TypeError, viennagrid.Point, x, coord_system=viennagrid.config.CYLINDRICAL)
		
		self.assertRaises(ValueError, viennagrid.Point, x, coord_system='')
		self.assertRaises(TypeError, viennagrid.Point, x, coord_system=[])
		self.assertRaises(TypeError, viennagrid.Point, x, coord_system=int(1))
		
		###########################################################################################
		
		"""
		Test signature:
		
		Point(x, coord_system, dim)
		"""
		
		p = viennagrid.Point(x, coord_system=viennagrid.config.CARTESIAN, dim=1)
		self.assertEqual(p.coord_system, viennagrid.config.CARTESIAN)
		self.assertEqual(p.dim, 1)
		self.assertTrue(*equal(p.coords[0], x))

		
		self.assertRaises(ValueError, viennagrid.Point, x, coord_system=viennagrid.config.CARTESIAN, dim=0)
		self.assertRaises(ValueError, viennagrid.Point, x, coord_system=viennagrid.config.CARTESIAN, dim=2)
		self.assertRaises(ValueError, viennagrid.Point, x, coord_system=viennagrid.config.CARTESIAN, dim=3)
		
		self.assertRaises(TypeError, viennagrid.Point, x, coord_system=viennagrid.config.SPHERICAL, dim=1)
		self.assertRaises(TypeError, viennagrid.Point, x, coord_system=viennagrid.config.SPHERICAL, dim=2)
		self.assertRaises(TypeError, viennagrid.Point, x, coord_system=viennagrid.config.SPHERICAL, dim=3)
		
		self.assertRaises(TypeError, viennagrid.Point, x, coord_system=viennagrid.config.CYLINDRICAL, dim=1)
		self.assertRaises(TypeError, viennagrid.Point, x, coord_system=viennagrid.config.CYLINDRICAL, dim=2)
		self.assertRaises(TypeError, viennagrid.Point, x, coord_system=viennagrid.config.CYLINDRICAL, dim=3)
		
		self.assertRaises(TypeError, viennagrid.Point, x, coord_system=viennagrid.config.POLAR, dim=1)
		self.assertRaises(TypeError, viennagrid.Point, x, coord_system=viennagrid.config.POLAR, dim=2)
		self.assertRaises(TypeError, viennagrid.Point, x, coord_system=viennagrid.config.POLAR, dim=3)
		
		###########################################################################################
		
		"""
		Test signature:
		
		Point(x, y)
		"""
		
		x = 15
		y = 83
		z = 49
		
		p = viennagrid.Point(x, y)
		self.assertEqual(p.coord_system, viennagrid.config.CARTESIAN)
		self.assertEqual(p.dim, 2)
		self.assertTrue(*equal(p.coords[0], x))
		self.assertTrue(*equal(p.coords[1], y))
		
		###########################################################################################
		
		"""
		Test signature:
		
		Point(x, y, dim)
		"""
		
		p = viennagrid.Point(x, y, dim=2)
		self.assertEqual(p.coord_system, viennagrid.config.CARTESIAN)
		self.assertEqual(p.dim, 2)
		self.assertTrue(*equal(p.coords[0], x))
		self.assertTrue(*equal(p.coords[1], y))
		
		self.assertRaises(ValueError, viennagrid.Point, x, y, dim=3)
		
		self.assertRaises(ValueError, viennagrid.Point, x, y, dim=0)
		self.assertRaises(ValueError, viennagrid.Point, x, y, dim=1)
		self.assertRaises(ValueError, viennagrid.Point, x, y, dim=4)
		self.assertRaises(TypeError, viennagrid.Point, x, y, dim='')
		self.assertRaises(TypeError, viennagrid.Point, x, y, dim=[])
		self.assertRaises(TypeError, viennagrid.Point, x, y, dim=long(1))
		self.assertRaises(TypeError, viennagrid.Point, x, y, dim=float(1))
		self.assertRaises(TypeError, viennagrid.Point, x, y, dim=complex(1))
		
		###########################################################################################
		
		"""
		Test signature:
		
		Point(x, y, coord_system)
		"""
		
		
		p = viennagrid.Point(x, y, coord_system=viennagrid.config.CARTESIAN)
		self.assertEqual(p.coord_system, viennagrid.config.CARTESIAN)
		self.assertEqual(p.dim, 2)
		self.assertTrue(*equal(p.coords[0], x))
		self.assertTrue(*equal(p.coords[1], y))
		
		p = viennagrid.Point(x, y, coord_system=viennagrid.config.POLAR)
		self.assertEqual(p.coord_system, viennagrid.config.POLAR)
		self.assertEqual(p.dim, 2)
		self.assertTrue(*equal(p.coords[0], x))
		self.assertTrue(*equal(p.coords[1], y))
		
		self.assertRaises(TypeError, viennagrid.Point, x, y, coord_system=viennagrid.config.SPHERICAL)
		
		self.assertRaises(TypeError, viennagrid.Point, x, y, coord_system=viennagrid.config.CYLINDRICAL)
		
		self.assertRaises(ValueError, viennagrid.Point, x, y, coord_system='')
		self.assertRaises(TypeError, viennagrid.Point, x, y, coord_system=[])
		self.assertRaises(TypeError, viennagrid.Point, x, y, coord_system=int(1))
		
		###########################################################################################
		
		"""
		Test signature:
		
		Point(x, y, coord_system, dim)
		"""
		
		p = viennagrid.Point(x, y, coord_system=viennagrid.config.CARTESIAN, dim=2)
		self.assertEqual(p.coord_system, viennagrid.config.CARTESIAN)
		self.assertEqual(p.dim, 2)
		self.assertTrue(*equal(p.coords[0], x))
		self.assertTrue(*equal(p.coords[1], y))
		
		self.assertRaises(ValueError, viennagrid.Point, x, y, coord_system=viennagrid.config.CARTESIAN, dim=3)
		
		p = viennagrid.Point(x, y, coord_system=viennagrid.config.POLAR, dim=2)
		self.assertEqual(p.coord_system, viennagrid.config.POLAR)
		self.assertEqual(p.dim, 2)
		self.assertTrue(*equal(p.coords[0], x))
		self.assertTrue(*equal(p.coords[1], y))
		
		self.assertRaises(TypeError, viennagrid.Point, x, y, coord_system=viennagrid.config.SPHERICAL, dim=3)
		
		self.assertRaises(TypeError, viennagrid.Point, x, y, coord_system=viennagrid.config.CYLINDRICAL, dim=3)
		
		self.assertRaises(ValueError, viennagrid.Point, x, y, coord_system=viennagrid.config.CARTESIAN, dim=1)
		self.assertRaises(ValueError, viennagrid.Point, x, y, coord_system=viennagrid.config.CARTESIAN, dim=4)
		self.assertRaises(ValueError, viennagrid.Point, x, y, coord_system=viennagrid.config.POLAR, dim=1)
		self.assertRaises(ValueError, viennagrid.Point, x, y, coord_system=viennagrid.config.POLAR, dim=3)
		self.assertRaises(TypeError, viennagrid.Point, x, y, coord_system=viennagrid.config.SPHERICAL, dim=1)
		self.assertRaises(TypeError, viennagrid.Point, x, y, coord_system=viennagrid.config.SPHERICAL, dim=2)
		self.assertRaises(TypeError, viennagrid.Point, x, y, coord_system=viennagrid.config.SPHERICAL, dim=4)
		self.assertRaises(TypeError, viennagrid.Point, x, y, coord_system=viennagrid.config.CYLINDRICAL, dim=1)
		self.assertRaises(TypeError, viennagrid.Point, x, y, coord_system=viennagrid.config.CYLINDRICAL, dim=2)
		self.assertRaises(TypeError, viennagrid.Point, x, y, coord_system=viennagrid.config.CYLINDRICAL, dim=4)
		
		###########################################################################################
		
		"""
		Test signature:
		
		Point(x, y, z)
		"""
		
		p = viennagrid.Point(x, y, z)
		self.assertEqual(p.coord_system, viennagrid.config.CARTESIAN)
		self.assertEqual(p.dim, 3)
		self.assertTrue(*equal(p.coords[0], x))
		self.assertTrue(*equal(p.coords[1], y))
		self.assertTrue(*equal(p.coords[2], z))
		
		###########################################################################################
		
		"""
		Test signature:
		
		Point(x, y, z, dim)
		"""
		
		self.assertRaises(ValueError, viennagrid.Point, x, y, z, dim=2)
		
		p = viennagrid.Point(x, y, z, dim=3)
		self.assertEqual(p.coord_system, viennagrid.config.CARTESIAN)
		self.assertEqual(p.dim, 3)
		self.assertTrue(*equal(p.coords[0], x))
		self.assertTrue(*equal(p.coords[1], y))
		self.assertTrue(*equal(p.coords[2], z))
		
		self.assertRaises(ValueError, viennagrid.Point, x, y, z, dim=0)
		self.assertRaises(ValueError, viennagrid.Point, x, y, z, dim=1)
		self.assertRaises(ValueError, viennagrid.Point, x, y, z, dim=4)
		self.assertRaises(TypeError, viennagrid.Point, x, y, z, dim='')
		self.assertRaises(TypeError, viennagrid.Point, x, y, z, dim=[])
		self.assertRaises(TypeError, viennagrid.Point, x, y, z, dim=long(1))
		self.assertRaises(TypeError, viennagrid.Point, x, y, z, dim=float(1))
		self.assertRaises(TypeError, viennagrid.Point, x, y, z, dim=complex(1))
		
		###########################################################################################
		
		"""
		Test signature:
		
		Point(x, y, z, coord_system)
		"""
		
		p = viennagrid.Point(x, y, z, coord_system=viennagrid.config.CARTESIAN)
		self.assertEqual(p.coord_system, viennagrid.config.CARTESIAN)
		self.assertEqual(p.dim, 3)
		self.assertTrue(*equal(p.coords[0], x))
		self.assertTrue(*equal(p.coords[1], y))
		self.assertTrue(*equal(p.coords[2], z))
		
		self.assertRaises(TypeError, viennagrid.Point, x, y, z, coord_system=viennagrid.config.POLAR)
		
		p = viennagrid.Point(x, y, z, coord_system=viennagrid.config.SPHERICAL)
		self.assertEqual(p.coord_system, viennagrid.config.SPHERICAL)
		self.assertEqual(p.dim, 3)
		self.assertTrue(*equal(p.coords[0], x))
		self.assertTrue(*equal(p.coords[1], y))
		self.assertTrue(*equal(p.coords[2], z))
		
		p = viennagrid.Point(x, y, z, coord_system=viennagrid.config.CYLINDRICAL)
		self.assertEqual(p.coord_system, viennagrid.config.CYLINDRICAL)
		self.assertEqual(p.dim, 3)
		self.assertTrue(*equal(p.coords[0], x))
		self.assertTrue(*equal(p.coords[1], y))
		self.assertTrue(*equal(p.coords[2], z))
		
		self.assertRaises(ValueError, viennagrid.Point, x, y, z, coord_system='')
		self.assertRaises(TypeError, viennagrid.Point, x, y, z, coord_system=[])
		self.assertRaises(TypeError, viennagrid.Point, x, y, z, coord_system=int(1))
		
		###########################################################################################
		
		"""
		Test signature:
		
		Point(x, y, z, coord_system, dim)
		"""
		
		self.assertRaises(ValueError, viennagrid.Point, x, y, z, coord_system=viennagrid.config.CARTESIAN, dim=2)
		
		p = viennagrid.Point(x, y, z, coord_system=viennagrid.config.CARTESIAN, dim=3)
		self.assertEqual(p.coord_system, viennagrid.config.CARTESIAN)
		self.assertEqual(p.dim, 3)
		self.assertTrue(*equal(p.coords[0], x))
		self.assertTrue(*equal(p.coords[1], y))
		self.assertTrue(*equal(p.coords[2], z))
		
		self.assertRaises(TypeError, viennagrid.Point, x, y, z, coord_system=viennagrid.config.POLAR, dim=2)
		
		p = viennagrid.Point(x, y, z, coord_system=viennagrid.config.SPHERICAL, dim=3)
		self.assertEqual(p.coord_system, viennagrid.config.SPHERICAL)
		self.assertEqual(p.dim, 3)
		self.assertTrue(*equal(p.coords[0], x))
		self.assertTrue(*equal(p.coords[1], y))
		self.assertTrue(*equal(p.coords[2], z))
		
		p = viennagrid.Point(x, y, z, coord_system=viennagrid.config.CYLINDRICAL, dim=3)
		self.assertEqual(p.coord_system, viennagrid.config.CYLINDRICAL)
		self.assertEqual(p.dim, 3)
		self.assertTrue(*equal(p.coords[0], x))
		self.assertTrue(*equal(p.coords[1], y))
		self.assertTrue(*equal(p.coords[2], z))
		
		self.assertRaises(ValueError, viennagrid.Point, x, y, z, coord_system=viennagrid.config.CARTESIAN, dim=1)
		self.assertRaises(ValueError, viennagrid.Point, x, y, z, coord_system=viennagrid.config.CARTESIAN, dim=4)
		self.assertRaises(TypeError, viennagrid.Point, x, y, z, coord_system=viennagrid.config.POLAR, dim=1)
		self.assertRaises(TypeError, viennagrid.Point, x, y, z, coord_system=viennagrid.config.POLAR, dim=3)
		self.assertRaises(ValueError, viennagrid.Point, x, y, z, coord_system=viennagrid.config.SPHERICAL, dim=1)
		self.assertRaises(ValueError, viennagrid.Point, x, y, z, coord_system=viennagrid.config.SPHERICAL, dim=2)
		self.assertRaises(ValueError, viennagrid.Point, x, y, z, coord_system=viennagrid.config.SPHERICAL, dim=4)
		self.assertRaises(ValueError, viennagrid.Point, x, y, z, coord_system=viennagrid.config.CYLINDRICAL, dim=1)
		self.assertRaises(ValueError, viennagrid.Point, x, y, z, coord_system=viennagrid.config.CYLINDRICAL, dim=2)
		self.assertRaises(ValueError, viennagrid.Point, x, y, z, coord_system=viennagrid.config.CYLINDRICAL, dim=4)
Esempio n. 8
0
def test_mean_extractor_data():
    # Liverpool - Manchester Utd 1:0 (1:0, 0:0)
    # Swansea - Liverpool 2:2 (1:2, 1:0)
    # Liverpool - Southampton 0:1 (0:0, 0:1)
    # Sunderland - Liverpool 1:3 (0:2, 1:1)
    # Liverpool - Crystal Palace 3:1 (3:0, 0:1)
    # Newcastle - Liverpool  2:2 (1:1, 1:1)
    # Liverpool - West Brom  4:1 (2:0, 2:1)
    # Arsenal - Liverpool 2:0 (1:0, 1:0)
    # Liverpool - Fulham 4:0 (3:0, 1:0)
    all_data = select_matches([
        'W8tiZmre', 'b5ZpFZlH', 'Y7HP6S3Q', 'KSHwEqBg', 'l89fA1AI', 'plSc5COj',
        'tzC0PXFM', '8MZNtZpc', '0b78hWq9'
    ])
    all_data['real_outcome_o1x2'] = all_data.apply(get_outcome_o1x2, axis=1)
    extractor = MeanExtractor()
    _, extracted_data = extractor.extract(all_data)

    expected = [
        (np.nan, np.nan, np.nan, np.nan, np.nan, np.nan, np.nan, np.nan),
        (np.nan, np.nan, np.nan, np.nan, np.nan, np.nan, np.nan, np.nan),
        (1, np.nan, 1, 0, 0, np.nan, np.nan, np.nan),
        (np.nan, 2, np.nan, np.nan, np.nan, 0, 1, 0),
        (1 / 2, np.nan, 1 / 2, 0, 1 / 2, np.nan, np.nan, np.nan),
        (np.nan, 5 / 2, np.nan, np.nan, np.nan, 1 / 2, 1 / 2, 0),
        (4 / 3, np.nan, 2 / 3, 0, 1 / 3, np.nan, np.nan, np.nan),
        (np.nan, 7 / 3, np.nan, np.nan, np.nan, 1 / 3, 2 / 3, 0),
        (2, np.nan, 3 / 4, 0, 1 / 4, np.nan, np.nan, np.nan),
    ]
    for i, (total_score_home, total_score_away, w_prob_home, d_prob_home,
            l_prob_home, w_prob_away, d_prob_away,
            l_prob_away) in enumerate(expected):
        equal(
            extracted_data.loc[i, 'cummean_total_score_home_match_team_home'],
            total_score_home)
        equal(
            extracted_data.loc[i, 'cummean_total_score_away_match_team_away'],
            total_score_away)
        equal(extracted_data.loc[i, 'cummean_w_prob_home_match_team_home'],
              w_prob_home)
        equal(extracted_data.loc[i, 'cummean_d_prob_home_match_team_home'],
              d_prob_home)
        equal(extracted_data.loc[i, 'cummean_l_prob_home_match_team_home'],
              l_prob_home)
        equal(extracted_data.loc[i, 'cummean_w_prob_away_match_team_away'],
              w_prob_away)
        equal(extracted_data.loc[i, 'cummean_d_prob_away_match_team_away'],
              d_prob_away)
        equal(extracted_data.loc[i, 'cummean_l_prob_away_match_team_away'],
              l_prob_away)