python类insort_left()的实例源码

def __setitem__(self, key, value):
        """If key is in the dictionary, sets its value to value;
        otherwise adds the key to the dictionary with the given value

        >>> d = SortedDict(dict(s=1, a=2, n=3, i=4, t=5, y=6))
        >>> d["t"] = -17
        >>> d["z"] = 43
        >>> d["@"] = -11
        >>> d["m"] = 22
        >>> d["r"] = 5
        >>> d.keys()
        ['@', 'a', 'i', 'm', 'n', 'r', 's', 't', 'y', 'z']
        """
        if key not in self.__dict:
            bisect.insort_left(self.__keys, key)
        self.__dict[key] = value

def __setitem__(self, key, value):
        """If key is in the dictionary, sets its value to value;
        otherwise adds the key to the dictionary with the given value

        >>> d = OrderedDict(dict(s=1, a=2, n=3, i=4, t=5, y=6))
        >>> d["t"] = -17
        >>> d["z"] = 43
        >>> d["@"] = -11
        >>> d["m"] = 22
        >>> d["r"] = 5
        >>> d.keys()
        ['@', 'a', 'i', 'm', 'n', 'r', 's', 't', 'y', 'z']
        """
        if key not in self.__dict:
            bisect.insort_left(self.__keys, key)
        self.__dict[key] = value

def maxSlidingWindow(self, nums, k):
        """
        :type nums: List[int]
        :type k: int
        :rtype: List[int]
        """
        import bisect

        if len(nums) == 0: return []        # Special cases
        if k == 1: return nums

        ans = []
        window = []
        for i in xrange(len(nums)):
            bisect.insort_left(window, nums[i])
            if i == k-1:
                ans.append(window[-1])      # First element
            if i >= k:
                window.remove(nums[i-k])    # Remove the oldest element
                ans.append(window[-1])

        assert len(ans) == len(nums)-k+1
        return ans

def groupAnagrams(self, strs):
        """
        :type strs: List[str]
        :rtype: List[List[str]]
        """
        import bisect

        def getStrSig(s):
            """
            get the signature of str s
            """
            primes = [2,3,5,7,11,13,17,19,23,29,31,37,41,43,47,53,59,61,67,71,73,79,83,89,97,101]
            ord_a = ord('a')
            hashval = 1
            for c in s: hashval *= primes[ ord(c) - ord_a ]
            return hashval

        worddict = {}
        for s in strs:
            sig = getStrSig(s)    # Here use:  sig = ''.join(sorted(s))  still beats 93.9%
            if sig not in worddict:
                worddict[sig] = [s]
            else:
                bisect.insort_left(worddict[sig], s)    # insert the anagram with correct order
        return worddict.values()

def add_bom_level(doc, qty, bom):
    # Get the BOM doc
    #frappe.msgprint("Getting BOM for" + bom)
    bom_doc = frappe.get_doc("BOM",bom)

    #Add the operations from this BOM to the list
    new_operation = get_bom_operation(bom, qty)
    new_operation.idx = len(doc.operations)+1
    doc.operations.append(new_operation)

    #Go through each item in the BOM to decide if it is a Purchased or Manufactured item
    for myItem in bom_doc.items:
        item_quantity = qty * myItem.qty  
        item_doc = frappe.get_doc("Item",myItem.item_code)
        if myItem.bom_no and item_doc.default_material_request_type == "Manufacture":
            # This is a manufactured item and we should add it to the BOM Operations then scan it's children
            add_bom_level(doc,item_quantity, myItem.bom_no)
        else:
            # Consider it a purchased item, and just set the basics (Item Code, Qty, Supplier, Currency, Price List)
            #frappe.msgprint("Getting BOM for" + bom)
            new_purchased = get_purchase_item(myItem.item_code, item_quantity)
            new_purchased.idx = len(doc.items)+1
            bisect.insort_left(doc.items,new_purchased)

def update(self, x, sa, is_mask):
        # ??????
        self.last_sa = sa 
        if len(self.q_series) < self.period + 1:
            self.q_series.append(x)
        else:
            self.q_series = self.q_series[1:] + self.q_series[:1]
            self.q_series[-1] = x
        self._std = np.std(self.q_series[1:], axis = 0)
        if not is_mask:
            bisect.insort_left(self.anormal_heap, self.last_sa)

def _add_item(self, item):
        item._active = True
        self._items[item._id] = item
        if item._expiration_datetime:
            bisect.insort_left(self._expires_list, (item._expiration_datetime, item._id))
            self._schedule_expiration_check()

        self._storage_change()

def setdefault(self, key, value):
        """If key is in the dictionary, returns its value;
        otherwise adds the key with the given value which is also
        returned

        >>> d = SortedDict(dict(s=1, a=2, n=3, i=4, t=5, y=6))
        >>> d.setdefault("n", 99)
        3
        >>> d.values()
        [2, 4, 3, 1, 5, 6]
        >>> d.setdefault("r", -20)
        -20
        >>> d.items()[2:]
        [('n', 3), ('r', -20), ('s', 1), ('t', 5), ('y', 6)]
        >>> d.setdefault("@", -11)
        -11
        >>> d.setdefault("z", 99)
        99
        >>> d.setdefault("m", 50)
        50
        >>> d.keys()
        ['@', 'a', 'i', 'm', 'n', 'r', 's', 't', 'y', 'z']
        """
        if key not in self.__dict:
            bisect.insort_left(self.__keys, key)
        return self.__dict.setdefault(key, value)

def setdefault(self, key, value):
        """If key is in the dictionary, returns its value;
        otherwise adds the key with the given value which is also
        returned

        >>> d = OrderedDict(dict(s=1, a=2, n=3, i=4, t=5, y=6))
        >>> d.setdefault("n", 99)
        3
        >>> d.values()
        [2, 4, 3, 1, 5, 6]
        >>> d.setdefault("r", -20)
        -20
        >>> d.items()[2:]
        [('n', 3), ('r', -20), ('s', 1), ('t', 5), ('y', 6)]
        >>> d.setdefault("@", -11)
        -11
        >>> d.setdefault("z", 99)
        99
        >>> d.setdefault("m", 50)
        50
        >>> d.keys()
        ['@', 'a', 'i', 'm', 'n', 'r', 's', 't', 'y', 'z']
        """
        if key not in self.__dict:
            bisect.insort_left(self.__keys, key)
        return self.__dict.setdefault(key, value)

def add(self, movie):
        """Adds the given movie to the list if it isn't already
        present. Returns True if added; otherwise returns False."""
        if id(movie) in self.__movieFromId:
            return False
        key = self.key(movie.title, movie.year)
        bisect.insort_left(self.__movies, [key, movie])
        self.__movieFromId[id(movie)] = movie
        self.__dirty = True
        return True

def place(self):
        print 'Game Index:',self.root.gameindex






        # --------DO NOT DELETE!!!-------

        if self.iteration < 10:
            a = np.random.rand(10, 10)
            b = np.random.rand(10)
            c = np.random.rand(10, 3)
            d = np.random.rand(3)
            self.net = neural.Net(a, b, c, d, 1)
        # else:
        #     if self.file:
        #         self.file.close()
        #         bisect.insort_left(self.model_list, Model('files/data%s.txt' % self.iteration))
        #         # self.model_list.append(Model('files/data%s.txt' % self.iteration))
        #     if self.iteration%20 == 0:
        #         for i in self.model_list:
        #             print i.size
        #         for i in range(10):
        #             os.remove(self.model_list[0].file)
        #             del self.model_list[0]

        self.iteration += 1


        Player.place(self)

def _insort_call(self, call):
        # We want to insert the call in the appropriate time slot. A simple
        # bisect.insort_left() is not sufficient as the comparison of two
        # methods is not defined in Python 3.
        times = [c[0] for c in self._calls]
        index = bisect.bisect_left(times, call[0])
        self._calls.insert(index, call)

def _update_tag_positions(self, rule):
        """
        Update _tag_positions to reflect the changes to tags that are
        made by *rule*.
        """
        # Update the tag index.
        for pos in self._positions_by_rule[rule]:
            # Delete the old tag.
            old_tag_positions = self._tag_positions[rule.original_tag]
            old_index = bisect.bisect_left(old_tag_positions, pos)
            del old_tag_positions[old_index]
            # Insert the new tag.
            new_tag_positions = self._tag_positions[rule.replacement_tag]
            bisect.insort_left(new_tag_positions, pos)

def _update_tag_positions(self, rule):
        """
        Update _tag_positions to reflect the changes to tags that are
        made by *rule*.
        """
        # Update the tag index.
        for pos in self._positions_by_rule[rule]:
            # Delete the old tag.
            old_tag_positions = self._tag_positions[rule.original_tag]
            old_index = bisect.bisect_left(old_tag_positions, pos)
            del old_tag_positions[old_index]
            # Insert the new tag.
            new_tag_positions = self._tag_positions[rule.replacement_tag]
            bisect.insort_left(new_tag_positions, pos)

def split(self, nsegments=2, length=None, k=1, s=0):
        """Split the branch into segments"""
        if length is None:
            sublength = self.length / nsegments  # the target length of the segments
        else:
            sublength = float(length)

        # get the data that requires interpolation
        x, y, z, r = self['x'], self['y'], self['z'], self['radius']

        # the cumulative length
        t = numpy.r_[0, numpy.cumsum(((x[:-1] - x[1:]) ** 2 + (y[:-1] - y[1:]) ** 2) ** .5)]

        # create interpolation coefficients
        import scipy.interpolate
        splinecoeffs, u = scipy.interpolate.splprep([x, y, z, r], u=t, k=k, s=s)

        # create new parametrization array. It is supposed to consist of the old lengths
        # plus points that cut the length into the proper segment size
        tnew = t.tolist()
        # the indices where to split the resulting tnew
        indices = [0]
        import bisect
        for n in range(1, int(self.length / sublength) + 1):
            index = bisect.bisect_left(tnew, n * sublength)
            indices.append(index)
            bisect.insort_left(tnew, n * sublength)

        # append the end index for the last segment if last segment size is larger than eps
        if tnew[-1] - tnew[-2] > 0.01:
            indices.append(len(tnew))

        # interpolate the parametrization
        xn, yn, zn, rn = scipy.interpolate.splev(tnew, splinecoeffs)

        branchgen = lambda i0, i1: Branch(x=xn[i0:i1], y=yn[i0:i1], z=zn[i0:i1], r=rn[i0:i1])
        return [branchgen(i0, i1 + 1) for i0, i1 in zip(indices[:-1], indices[1:])]

def _update_tag_positions(self, rule):
        """
        Update _tag_positions to reflect the changes to tags that are
        made by *rule*.
        """
        # Update the tag index.
        for pos in self._positions_by_rule[rule]:
            # Delete the old tag.
            old_tag_positions = self._tag_positions[rule.original_tag]
            old_index = bisect.bisect_left(old_tag_positions, pos)
            del old_tag_positions[old_index]
            # Insert the new tag.
            new_tag_positions = self._tag_positions[rule.replacement_tag]
            bisect.insort_left(new_tag_positions, pos)

def push(self, id, freq):
        if id == None:
            return
        self.list.append((id, freq))
        bisect.insort_left(self.sortedList, MyElement(id, freq, len(self.list)))

def batch_list_insert(elem, sorted_elems):
        """ Step 1/3 of batch insertion.

            The first precomputing phase of a batch insert. Determines the list
            of elements to ultimately insert into the MHT.

            Arguments:
            elem - the next element to insert in this phase
            sorted_elems - the elements in the range to be inserted into
                           so far
        """

        bisect.insort_left(sorted_elems, elem)

def _update_tag_positions(self, rule):
        """
        Update _tag_positions to reflect the changes to tags that are
        made by *rule*.
        """
        # Update the tag index.
        for pos in self._positions_by_rule[rule]:
            # Delete the old tag.
            old_tag_positions = self._tag_positions[rule.original_tag]
            old_index = bisect.bisect_left(old_tag_positions, pos)
            del old_tag_positions[old_index]
            # Insert the new tag.
            new_tag_positions = self._tag_positions[rule.replacement_tag]
            bisect.insort_left(new_tag_positions, pos)

def _InsertTask(self, task):
    """Insert a task into the store, keeps lists sorted.

    Args:
      task: the new task.
    """
    assert self._lock.locked()
    eta = task.eta_usec()
    name = task.task_name()
    bisect.insort_left(self._sorted_by_eta, (eta, name, task))
    if task.has_tag():
      bisect.insort_left(self._sorted_by_tag, (task.tag(), eta, name, task))
    bisect.insort_left(self._sorted_by_name, (name, task))
    self.task_name_archive.add(name)

def _PostponeTaskInsertOnly(self, task, new_eta_usec):
    assert self._lock.locked()
    task.set_eta_usec(new_eta_usec)
    name = task.task_name()
    bisect.insort_left(self._sorted_by_eta, (new_eta_usec, name, task))
    if task.has_tag():
      tag = task.tag()
      bisect.insort_left(self._sorted_by_tag, (tag, new_eta_usec, name, task))

def _InsertTask(self, task):
    """Insert a task into the dummy store, keeps lists sorted.

    Args:
      task: the new task.
    """
    eta = task.eta_usec()
    name = task.task_name()
    bisect.insort_left(self._sorted_by_eta, (eta, name, task))
    bisect.insort_left(self._sorted_by_name, (name, task))

def _update_tag_positions(self, rule):
        """
        Update _tag_positions to reflect the changes to tags that are
        made by *rule*.
        """
        # Update the tag index.
        for pos in self._positions_by_rule[rule]:
            # Delete the old tag.
            old_tag_positions = self._tag_positions[rule.original_tag]
            old_index = bisect.bisect_left(old_tag_positions, pos)
            del old_tag_positions[old_index]
            # Insert the new tag.
            new_tag_positions = self._tag_positions[rule.replacement_tag]
            bisect.insort_left(new_tag_positions, pos)

def _update_tag_positions(self, rule):
        """
        Update _tag_positions to reflect the changes to tags that are
        made by *rule*.
        """
        # Update the tag index.
        for pos in self._positions_by_rule[rule]:
            # Delete the old tag.
            old_tag_positions = self._tag_positions[rule.original_tag]
            old_index = bisect.bisect_left(old_tag_positions, pos)
            del old_tag_positions[old_index]
            # Insert the new tag.
            new_tag_positions = self._tag_positions[rule.replacement_tag]
            bisect.insort_left(new_tag_positions, pos)

def add(self, value):
        index = self.indexer(value)
        bisect.insort_left(self.indexes, index)
        if index not in self.lookup:
            self.lookup[index] = [value]
        else:
            self.lookup[index].append(value)

def _update_tag_positions(self, rule):
        """
        Update _tag_positions to reflect the changes to tags that are
        made by *rule*.
        """
        # Update the tag index.
        for pos in self._positions_by_rule[rule]:
            # Delete the old tag.
            old_tag_positions = self._tag_positions[rule.original_tag]
            old_index = bisect.bisect_left(old_tag_positions, pos)
            del old_tag_positions[old_index]
            # Insert the new tag.
            new_tag_positions = self._tag_positions[rule.replacement_tag]
            bisect.insort_left(new_tag_positions, pos)

def insert(self):
        """
        Insert the current B3 instance in the database.
        Will also store the B3 instance reference in the QApplication.
        """
        # store it in the database first so we get the id
        cursor = B3App.Instance().storage.cursor()
        cursor.execute("INSERT INTO b3 (config) VALUES (?)", (self.config_path,))
        self.id = cursor.lastrowid
        LOG.debug('stored new process in the database: @%s:%s', self.id, self.config_path)
        cursor.close()
        # store in the QApplication
        if self not in B3App.Instance().processes:
            bisect.insort_left(B3App.Instance().processes, self)

def _update_tag_positions(self, rule):
        """
        Update _tag_positions to reflect the changes to tags that are
        made by *rule*.
        """
        # Update the tag index.
        for pos in self._positions_by_rule[rule]:
            # Delete the old tag.
            old_tag_positions = self._tag_positions[rule.original_tag]
            old_index = bisect.bisect_left(old_tag_positions, pos)
            del old_tag_positions[old_index]
            # Insert the new tag.
            new_tag_positions = self._tag_positions[rule.replacement_tag]
            bisect.insort_left(new_tag_positions, pos)

def chooseserver(self):
        connection = self.connect('www.speedtest.net')
        now = int(time() * 1000)
        # really contribute to speedtest.net OS statistics
        # maybe they won't block us again...
        extra_headers = {
            'Connection': 'Keep-Alive',
            'User-Agent': self.USER_AGENTS['Linux']
        }
        connection.request(
            'GET', '/speedtest-config.php?x=%d' % now, None, extra_headers)
        response = connection.getresponse()
        reply = response.read().decode('utf-8')
        match = re.search(
            r'<client ip="([^"]*)" lat="([^"]*)" lon="([^"]*)"', reply)
        location = None
        if match is None:
            util.info('[SC] Failed to retrieve coordinates')
            return None
        location = match.groups()
        util.info('[SC] Your IP: %s' % location[0])
        util.info('[SC] Your latitude: %s' % location[1])
        util.info('[SC] Your longitude: %s' % location[2])
        connection.request(
            'GET', '/speedtest-servers.php?x=%d' % now, None, extra_headers)
        response = connection.getresponse()
        reply = response.read().decode('utf-8')
        server_list = re.findall(
            r'<server url="([^"]*)" lat="([^"]*)" lon="([^"]*)"', reply)
        my_lat = float(location[1])
        my_lon = float(location[2])
        sorted_server_list = []
        for server in server_list:
            s_lat = float(server[1])
            s_lon = float(server[2])
            distance = sqrt(pow(s_lat - my_lat, 2) + pow(s_lon - my_lon, 2))
            bisect.insort_left(sorted_server_list, (distance, server[0]))
        best_server = (999999, '')
        for server in sorted_server_list[:10]:
            util.debug('[SC] server: %s' % server[1])
            match = re.search(
                r'http://([^/]+)/speedtest/upload\.php', server[1])
            if match is None:
                continue
            server_host = match.groups()[0]
            latency = self.ping(server_host)
            if latency < best_server[0]:
                best_server = (latency, server_host)
        if not best_server[1]:
            raise Exception('Cannot find a test server')
        util.debug('[SC] Best server: %s' % best_server[1])
        return best_server[1]