def build_array(file_content):
array_content = [
hex(char)
for char in gzip_compress(file_content.encode("utf-8"))
]
for i in range(9, len(array_content), 9):
array_content[i] = f"\n\t{array_content[i]}"
return ",\t".join(array_content).replace('\t\n', '\n')
def encrypt(data: bytes,
password: Union[str, bytes],
compress: bool = False) -> bytes:
"""
encrypt data
:param data: plain data
:param password: password
:param compress: compress the encrypted data.
:return: encrypted data
"""
iv = Random.new().read(AES.block_size)
data = iv + __create_aes(password, iv).encrypt(data)
if compress:
return b'moca' + gzip_compress(data)
else:
return data
def load_html_page(self, filename):
#We can trim whitespace from the HTML file, so let's do that:
cleaned_html = list()
with open(getcwd() + sep + "html" + sep + filename,
mode="r",
encoding="UTF-8") as f:
for x in f:
cleaned_html.append(x.strip())
#Join the strings together, and then gzip the payload:
html_str = "".join(cleaned_html).encode()
html_gzip = gzip_compress(html_str)
#Both of these will be stored in a dictionary for quick lookup on the web server.
return html_str, html_gzip
def __call__(self, environ, start_response):
if 'gzip' not in environ.get('HTTP_ACCEPT_ENCODING', ''):
return self.middleware.application(environ, start_response)
self.start_response = start_response
app_iter = self.middleware.application(environ, self.gzip_start_response)
if app_iter is not None and self.compressible:
binary = gzip_compress(b''.join(app_iter), self.middleware.compress_level)
if hasattr(app_iter, 'close'):
app_iter.close()
self.remove_header('content-length')
self.headers.append(('content-encoding', 'gzip'))
self.set_header('content-length', len(binary))
start_response(self.status, self.headers, self.exc_info)
return [binary]
return app_iter
def serve_vdf_data(self):
#The parameters for this GET request are encoded into the URL:
(steam64, mission_index) = self.load_get_parameters()
#If the mission index is unspecified, generate the global tour keyvalue string:
if mission_index is None:
data = self.build_full_tour_kv(steam64)
#Otherwise, only return the bitflags for just that mission:
else:
data = self.build_mission_kv(steam64, mission_index)
#Based on whether the client accepts gzip encoding or not,
#determine whether we should compress this data or not:
raw_data = data.encode()
payload = gzip_compress(raw_data) if self.supports_gzip else raw_data
#Then serve it to the client:
self.serve_data(payload)
def generate_server_csv(self):
#The first row is the current unix time:
t = int(time())
csv_list = [str(t)]
#Add subsequent servers to it:
server_dict = master.server_info_dict
for x in server_dict:
#If the server hasn't reported an update for over a minute now, assume it went offline.
#Only include servers that have reported data sometime within the past minute.
data = server_dict[x]
if (t - data[-1]) < 60:
csv_list.append(create_csv_row(data))
#Join all the rows by newlines and make a binary string:
csv_raw = "\n".join(csv_list).encode()
#Based on whether the client accepts gzip encoding or not,
#determine whether we should compress this data or not:
return gzip_compress(csv_raw) if self.supports_gzip else csv_raw
def generate_player_csv(self, steam64):
#The first row contains the server timestamp, total wave credits (39), and total maximum waves (7).
p = master #One global lookup
max_waves = p.max_waves
first_row = create_csv_row((int(time()), p.total_credits, max_waves))
#Put this in a list:
csv_list = [first_row]
#Grab this player's tour progress:
player_tour_progress = p.tour_progress_dict.get(steam64)
if player_tour_progress is None: #steam64 bug compensation as reported by Benoist3012
player_tour_progress = p.tour_progress_dict.get(
steam64 + 2**32, ())
#Per mission tuple in this player's tour tuple:
for x in player_tour_progress:
#This is the row that becomes the CSV file string.
#None's become empty strings, timestamps stay the same:
new_row = ["" if y is None else y for y in x]
#Pad it with -1's for missions that have less than the maximum number of waves:
padding = max_waves - len(x)
new_row.extend((-1, ) * padding)
#Compile it into a CSV row string and put it into the csv list:
csv_list.append(create_csv_row(new_row))
#Join all the rows by newlines and make a binary string:
csv_raw = "\n".join(csv_list).encode()
#Based on whether the client accepts gzip encoding or not,
#determine whether we should compress this data or not:
return gzip_compress(csv_raw) if self.supports_gzip else csv_raw
def compress_string(s):
return gzip_compress(s, compresslevel=6, mtime=0)
def build_global_chart_csv(self):
#Grab the null tuple and turn it into a bunch of lists. Replace the None with 0's as well.
#We will use this to count how many wave credits have been earned per mission across all players.
#This is used to generate the line graph in quadrant 2 (wave credits vs wave number for each map).
mission_counter = [[0] * len(x) for x in self.null_tuple]
#Use this list to count the number of players that have earned a set number of wave credits.
#This is used to generate the line graph in quadrant 1 (players vs wave credits count).
credits_counter = [0] * self.total_credits
#Use these two lists to count how many players have participated and completed each mission in the tour:
total_missions = len(self.null_tuple)
participants_counter = [0] * total_missions
completionists_counter = [0] * total_missions
#Keep track of how many players received a medal:
medal_recepients = 0
#In this dictionary, pair each date (Month & Day) with the number of new players who participated in the tour that day:
timestamp_participated_dict = dict()
#For this dictionary, similar as the previous one, but store the number of people who *finished* the tour on each day:
timestamp_completed_dict = dict()
#Count the number of new players who have played at least 1 wave on each map, for each day.
#This is mostly for the map makers to see how many new players have played on their maps.
#
#The map index is used to index into this list. Init it with all empty dictionaries:
map_index_date_participant_counter = [
dict() for x in range(total_missions)
]
#Similarly, count the number of players who have beaten each map, on each day:
map_index_date_completist_counter = [
dict() for x in range(total_missions)
]
#Count the number of UNIQUE wave credits awarded on each day.
unique_wave_credits_awarded_dict = dict()
#Per tour tuple: (Per player's tour progress)
for t in self.tour_progress_dict.values():
#Keep a count of how many wave credits this player has earned:
wave_credits_earned = 0
#In this list, store the timestamps of ALL the wave credits they have earned:
timestamp_all_list = list()
#Keep track of whether the player has completed the tour or not.
#Assume they haven't unless otherwise proven.
tour_completion_bool_list = [False] * total_missions
#Per mission in the tour tuple:
for (x, y) in enumerate(t):
#Did this player complete the mission in full?
#Assume yes unless otherwise told. (There needs to be a single None in the tuple for this to become false.)
completed_mission = True
#Did this player participate in this mission by completing at least one wave in full?
#Assume no unless otherwise told. (There needs to be at least 1 entry that's not None for this to become true.)
participated_mission = False
#In this list, store the timestamps of all the wave credits they earned for this mission.
#We will use this to count the number of unique players who have played on each map, over time.
timestamp_mission_list = list()
#Per wave in the mission:
for (i, j) in enumerate(y):
#If this value is set to None, that means they didn't earn a wave credit for this wave.
#This also means they didn't complete the mission, so set that boolean to false:
if j is None:
completed_mission = False
continue
#Raise the mission counter: (the total wave credits earned per wave, per map)
mission_counter[x][i] += 1
#Raise the number of wave credits this player has earned:
wave_credits_earned += 1
#Put this timestamp in both timestamp lists:
timestamp_all_list.append(j)
timestamp_mission_list.append(j)
#This player has completed at least one wave in this mission, so set the participation boolean to true:
participated_mission = True
#Form a timestamp and increment the awarded wave credits dictionary.
stamp = localtime(j)
key = (stamp.tm_mon, stamp.tm_mday)
unique_wave_credits_awarded_dict[
key] = unique_wave_credits_awarded_dict.get(key, 0) + 1
#If the player participated in this mission, raise the participation counter for this mission:
if participated_mission:
participants_counter[x] += 1
#Do the same for completionists:
if completed_mission:
completionists_counter[x] += 1
#Put the mission completion boolean into the tour completion boolean list:
tour_completion_bool_list[x] = completed_mission
#If the mission timestamp list is empty, grind the next iteration:
if len(timestamp_mission_list) == 0:
continue
#Get the smallest timestamp (the first time this player completed a wave on this map), and form a date tuple:
stamp = localtime(min(timestamp_mission_list))
key = (stamp.tm_mon, stamp.tm_mday)
#And increment the counter for the appropriate date, for the appropriate map:
date_counter_dict = map_index_date_participant_counter[x]
date_counter_dict[key] = date_counter_dict.get(key, 0) + 1
#If they beat the mission, then do the same for the biggest timestamp, but store it in the completist list dictionary:
if completed_mission:
stamp = localtime(max(timestamp_mission_list))
key = (stamp.tm_mon, stamp.tm_mday)
date_counter_dict = map_index_date_completist_counter[x]
date_counter_dict[key] = date_counter_dict.get(key, 0) + 1
#Increment the global credits counter based on the number of wave credits this player has:
if wave_credits_earned != 0:
credits_counter[wave_credits_earned - 1] += 1
#If this player has completed all the missions, raise the medal recepients counter:
if False not in tour_completion_bool_list:
medal_recepients += 1
#Find the smallest timestamp. That's the time they participated in the tour.
#Increment that date by 1, since that's when this player participated in the tour:
stamp = localtime(min(timestamp_all_list))
key = (stamp.tm_mon, stamp.tm_mday)
timestamp_participated_dict[key] = timestamp_participated_dict.get(
key, 0) + 1
#If the player beat the tour, do the same thing as above, but use the largest
#timestamp and increment the completed players dictionary instead.
if len(timestamp_all_list) >= self.total_credits:
stamp = localtime(max(timestamp_all_list))
key = (stamp.tm_mon, stamp.tm_mday)
timestamp_completed_dict[key] = timestamp_completed_dict.get(
key, 0) + 1
#The last thing to compile data for is the global statistics table.
#We can get total tour participants from the length of the dictionary:
tour_participants = len(self.tour_progress_dict)
#Total medals is given by the medal_recepients variable.
#Total wave credits awarded is given by the row ID.
#Total unique wave credits can be obtained by summing the awarded wave credits by date dictionary:
global_credits_acquired = sum(
unique_wave_credits_awarded_dict.values())
#Total missions participated and completed can be found by summing the participants and completionists arrays accordingly:
total_participated_missions = sum(participants_counter)
total_completed_missions = sum(completionists_counter)
##########################################################
#Now we build the CSV data to transmit to clients.
csv_data = list()
#The mission counter list is transposed. Javascript expects the columns as maps and the wave numbers as rows,
#but the counter list has it backwards. We need to modify the counter list first.
#
#First, all the lists need to be the same length.
#First, find what's the length of the longest list in there:
longest_list_len = len(max(mission_counter, key=len))
#Then per list in the mission counter:
for x in mission_counter:
#Append enough -1's to the end of the list until it reaches the length of the longest list.
#This will make all the lists the same length in the counter list.
remaining_entries = longest_list_len - len(x)
x.extend((-1, ) * remaining_entries)
#Put the mission counter first into the csv data list:
for x in zip(*mission_counter):
csv_data.append(create_csv_row(x))
#Add an = as a delimiter:
csv_data.append("=")
#Then put the player wave credits counter in next.
#
#Delete the last value from the list because that's the total medal recepients, which we don't want
#to include, or else it will skew the chart horribly.
del credits_counter[len(credits_counter) - 1]
csv_data.append(create_csv_row(credits_counter))
#Add an = as a delimiter:
csv_data.append("=")
#Participants and completionists counters go next:
csv_data.append(create_csv_row(participants_counter))
csv_data.append(create_csv_row(completionists_counter))
#Add an = as a delimiter:
csv_data.append("=")
#This section is the biggest grindfest in the global statistics computation.
#For each date, compute the local and cumulative sum of the relevant data sections.
#Because the keys to this dictionary are all dates, sort the wave credits awarded dictionary by date:
#Because everything ultimately is measured by wave credit and/or its timestamp, it is safe to use the keys of this dictionary.
date_keys = tuple(sorted(unique_wave_credits_awarded_dict))
#Using the participants counter dictionary for each map and each date, compute the cumulative sum of participants on each map on each date:
cumulative_map_date_participants_counts = [
self.compute_successive_sum_dict(x, date_keys)
for x in map_index_date_participant_counter
]
#Do the same thing with the completists counter dictionary as well:
cumulative_map_date_completists_counts = [
self.compute_successive_sum_dict(x, date_keys)
for x in map_index_date_completist_counter
]
#Now, compute the *grand total* number of missions each player has completed and participated in on each day.
#These are NOT stacked dictionaries, but these are the sum of all missions participated/completed across all maps.
new_mission_completists = dict() #Completed
new_mission_participants = dict() #Participated
#Loop across every date tuple:
for x in date_keys:
#Total missions played by all participants:
for y in map_index_date_participant_counter:
new_mission_participants[x] = new_mission_participants.get(
x, 0) + y.get(x, 0)
#Total missions completed by all participants (completists):
for y in map_index_date_completist_counter:
new_mission_completists[x] = new_mission_completists.get(
x, 0) + y.get(x, 0)
#Now we need to generate the CSV data with all this data in it.
#
#Put all the dictionaries we have created in a single list:
dictionary_list = cumulative_map_date_participants_counts + cumulative_map_date_completists_counts + [
timestamp_participated_dict, timestamp_completed_dict,
new_mission_participants, new_mission_completists,
unique_wave_credits_awarded_dict, self.wave_credits_earned_per_day
]
#Using that dictionary list, generate the CSV rows for each dictionary in it.
#Loop across each date key:
for x in date_keys:
#Put the key in the row first. Flatten it out into (as) a list, since this is a CSV file.
row_data = list(x)
#Then for each dictionary, grab the value for this date from it, and put the value into the row list. Default to 0 if not found.
for y in dictionary_list:
row_data.append(y.get(x, 0))
#Then build a CSV string and put it into the big CSV data list:
csv_data.append(create_csv_row(row_data))
#Add an = as a delimiter:
csv_data.append("=")
#The statistics table information go last:
global_str = create_csv_row(
(tour_participants, medal_recepients, self.row_id,
global_credits_acquired, total_participated_missions,
total_completed_missions))
csv_data.append(global_str)
#Then build the full CSV file and cache it:
#That way, we don't have to go through this whole grind every time someone requests global tour information.
csv_raw = "\n".join(csv_data).encode()
csv_gzip = gzip_compress(csv_raw)
self.global_data_csv = (csv_raw, csv_gzip)
def compress_test(data: bytes,
output: bool = True) -> Dict[str, Tuple[int, int, int]]:
"""
Compare compress modules.
:param data: the data to compress.
:param output: if this value is True, print the results to console.
:return: {'module name': (<size of the compressed data>, <time to compress>, <time to decompress>)}
"""
res: Dict[str, Tuple[int, int, int]] = {}
try_print('+++++++++++++++++++++++++++++++++++++++++++++++++++++',
flag=output)
size = len(data)
try_print(f'Original size: {round(size/1024/1024), 4} MB', flag=output)
# gzip
for i in range(10):
tmp = gzip_compress(data, compresslevel=i)
key = f'gzip(compress level {i})'
res[key] = (len(tmp),
check_function_speed(gzip_compress, data, compresslevel=i),
check_function_speed(gzip_decompress, tmp))
__print(res, size, key, output)
# bz2
for i in range(1, 10):
tmp = bz2_compress(data, compresslevel=i)
key = f'bz2(compress level {i})'
res[key] = (len(tmp),
check_function_speed(bz2_compress, data, compresslevel=i),
check_function_speed(bz2_decompress, tmp))
__print(res, size, key, output)
# zlib
for i in range(10):
tmp = zlib_compress(data, level=i)
key = f'zlib(compress level {i})'
res[key] = (len(tmp), check_function_speed(zlib_compress,
data,
level=i),
check_function_speed(zlib_decompress, tmp))
__print(res, size, key, output)
# lzma
tmp = lzma_compress(data, FORMAT_XZ, CHECK_CRC64)
res[f'lzma(XZ - CRC64)'] = (len(tmp),
check_function_speed(lzma_compress, data,
FORMAT_XZ, CHECK_CRC64),
check_function_speed(lzma_decompress,
tmp,
format=FORMAT_XZ))
__print(res, size, f'lzma(XZ - CRC64)', output)
tmp = lzma_compress(data, FORMAT_XZ, CHECK_CRC32)
res[f'lzma(XZ - CRC32)'] = (len(tmp),
check_function_speed(lzma_compress, data,
FORMAT_XZ, CHECK_CRC32),
check_function_speed(lzma_decompress,
tmp,
format=FORMAT_XZ))
__print(res, size, f'lzma(XZ - CRC32)', output)
tmp = lzma_compress(data, FORMAT_XZ, CHECK_NONE)
res[f'lzma(XZ - NONE)'] = (len(tmp),
check_function_speed(lzma_compress, data,
FORMAT_XZ, CHECK_NONE),
check_function_speed(lzma_decompress,
tmp,
format=FORMAT_XZ))
__print(res, size, f'lzma(XZ - NONE)', output)
tmp = lzma_compress(data, FORMAT_ALONE, CHECK_NONE)
res[f'lzma(ALONE - NONE)'] = (len(tmp),
check_function_speed(lzma_compress, data,
FORMAT_ALONE,
CHECK_NONE),
check_function_speed(lzma_decompress,
tmp,
format=FORMAT_ALONE))
__print(res, size, f'lzma(ALONE - NONE)', output)
# brotli
tmp = brotli_compress(data)
key = 'brotli'
res[key] = (len(tmp), check_function_speed(brotli_compress, data),
check_function_speed(brotli_decompress, tmp))
__print(res, size, key, output)
try_print('+++++++++++++++++++++++++++++++++++++++++++++++++++++',
flag=output)
return res