def modeConflict(track, list, type):
popup = tk.Toplevel()
popup.title(type.capitalize() + 'Conflict')
popup.configure(bg=bg)
ws = popup.winfo_screenwidth() # width of the screen
hs = popup.winfo_screenheight() # height of the screen
initialWidth = 550
y = (hs / 2) - (297 / 2)
for i in range(len(multimode(list))): initialWidth += (len(multimode(list)[i])) * 7
x = (ws / 2) - (initialWidth / 2)
popup.geometry('%dx%d+%d+%d' % (initialWidth, 270, x, y))
tk.Label(popup, text=type.capitalize() + " Conflict", font=("Proxima Nova Rg", 13), fg="white", bg=bg).pack(side="top", pady=(30, 15))
tk.Label(popup, text="The search returned more than one " + type, font=("Proxima Nova Rg", 11), fg="white", bg=bg).pack(side="top", pady=(10, 10))
tk.Label(popup, text=track.artist + ' - ' + track.title, font=("Proxima Nova Rg", 11), fg="white", bg=bg).pack(side="top", pady=(0, 30))
radioFrame = tk.Frame(popup)
radioFrame.config(bg=bg)
radioFrame.pack()
selection = tk.StringVar()
selection.set(None)
for i in range(len(multimode(list))):
option = tk.Radiobutton(radioFrame, variable=selection, value=multimode(list)[i], command=lambda i=i: selectOption(track, multimode(list), i, selection, selectButton, type), activebackground=bg, selectcolor=bg, bg=bg, fg="white")
option.deselect()
option.pack(padx=(20, 0), side="left")
tk.Label(radioFrame, text=multimode(list)[i], font=("Proxima Nova Rg", 11), fg="white", bg=bg).pack(side="left")
selectButton = tk.Button(popup, text="Select", font=("Proxima Nova Rg", 11), state=tk.DISABLED, fg="white", bg=bg, command=popup.destroy)
selectButton.pack(pady=(30, 0))
original = ''
if type == "genre": original = track.genre
elif type == "key": original = track.key
popup.attributes("-topmost", True)
popup.protocol("WM_DELETE_WINDOW", lambda track=track, popup=popup, value=original: onExit(track, value, popup, type))
popup.wait_window()
def handleTrackReport(track, audio, filename, webScrapingWindow, characters, options, initialCounter, imageCounter, images, informalTagDict):
conflict = False
# check year for false values
if "Release_Date" in options["Selected Tags (L)"] and len(track.yearList) != 0:
commonYearList = [word for word, word_count in Counter(track.yearList).most_common(5)]
commonYear = commonYearList[0]
if len(commonYearList) > 1:
for i in range(len(commonYearList) - 1):
# prioritize older years to avoid quoting re-releases
if len(track.yearList) <= 5 and int(commonYearList[0]) > int(commonYearList[i + 1]) and track.yearList.count(commonYearList[0]) <= track.yearList.count(commonYearList[i + 1]) * 2: commonYear = commonYearList[i + 1]
elif int(commonYearList[0]) > int(commonYearList[i + 1]) and track.yearList.count(commonYearList[0]) <= track.yearList.count(commonYearList[i + 1]) * 1.5 and track.yearList.count(commonYearList[0]) > 1: commonYear = commonYearList[i + 1]
if track.release_date != str(commonYear):
track.release_date = str(commonYear)
conflict = True
# check BPM for false values
if "BPM" in options["Selected Tags (L)"] and len(track.BPMList) != 0:
commonBPMList = ([word for word, word_count in Counter(track.BPMList).most_common(3)])
commonBPM = commonBPMList[0]
if len(commonBPMList) > 1 and int(commonBPMList[0]) * 2 == int(commonBPMList[1]) and int(commonBPMList[0]) < 85: commonBPM = commonBPMList[1]
if track.bpm != str(commonBPM):
track.bpm = str(commonBPM)
conflict = True
if "Key" in options["Selected Tags (L)"] and len(track.keyList) != 0:
if len(multimode(track.keyList)) == 1:
if track.key != str(mode(track.keyList)):
track.key = str(mode(track.keyList))
conflict = True
else:
modeConflict(track, track.keyList, "key")
conflict = True
if "Genre" in options["Selected Tags (L)"] and len(track.genreList) != 0:
if len(multimode(track.genreList)) == 1:
if track.genre != str(mode(track.genreList)):
track.genre = str(mode(track.genreList))
conflict = True
else:
modeConflict(track, track.genreList, "genre")
conflict = True
# update audio tags
if conflict == True or imageCounter > 0:
if filename.endswith(".flac"): FLAC_conflict(audio, track, options, initialCounter, imageCounter, images, informalTagDict)
elif filename.endswith(".aiff") or filename.endswith(".mp3") or filename.endswith(".wav"): ID3_conflict(audio, track, options, initialCounter, imageCounter, images, informalTagDict)
elif filename.endswith(".ogg"): Vorbis_conflict(audio, track, options, initialCounter, imageCounter, images, informalTagDict)
elif filename.endswith(".m4a"): M4A_conflict(audio, track, options, initialCounter, imageCounter, images, informalTagDict)
if len(str(track.artist) + " - " + str(track.title)) > characters: characters = len(str(track.artist) + " - " + str(track.title))
title = str(track.artist) + " - " + str(track.title)
results = ""
if "Release_Date" in options["Selected Tags (L)"]: results += "\nYear: " + str(track.release_date)
if "BPM" in options["Selected Tags (L)"]: results += "\nBPM: " + str(track.bpm)
if "Key" in options["Selected Tags (L)"]: results += "\nKey: " + str(track.key)
if "Genre" in options["Selected Tags (L)"]: results += "\nGenre: " + str(track.genre)
return title, results, webScrapingWindow, characters, track.imageSelection
def part2(input_list):
co2 = input_list
oxy = input_list
o = 0
c = 0
for i in range(len(input_list[0])):
if len(co2) != 1:
most = max(multimode([row[i] for row in co2]))
co2 = [row for row in co2 if row[i] == most]
if len(oxy) != 1:
most = max(multimode([row[i] for row in oxy]))
oxy = [row for row in oxy if row[i] != most]
o = int(oxy[0], 2)
c = int(co2[0], 2)
return o * c
def part2(input): o2set = set(range(0,len(input))) co2set = set(range(0,len(input))) bit_index = 0 new_list = input[:] while len(o2set)>1: old_list = new_list[:] new_list = [] for item in o2set: new_list.append(old_list[item]) transformed = [list(map(int, i)) for i in zip(*new_list)] multimodelist = statistics.multimode(transformed[bit_index]) most = multimodelist[-1] o2set = set(range(0,len(new_list))) o2setcopy = o2set.copy() for i in o2setcopy: if (transformed[bit_index][i]!=most): o2set.remove(i) bit_index+=1 o2 = int(new_list[list(o2set)[0]],2) bit_index = 0 new_list = input[:] while len(co2set)>1: old_list = new_list[:] new_list = [] for item in co2set: new_list.append(old_list[item]) transformed = [list(map(int, i)) for i in zip(*new_list)] multimodelist = statistics.multimode(transformed[bit_index]) most = multimodelist[0] co2set = set(range(0,len(new_list))) co2setcopy = co2set.copy() for i in co2setcopy: if (transformed[bit_index][i]==most): co2set.remove(i) bit_index+=1 co2 = int(new_list[list(co2set)[0]],2) return o2 * co2
def _modes(self):
"""
Returns as a list. Use "def pretty_modes"
below for returning strings.
"""
modes = multimode(self.rolls_simulation)
return modes
def stats():
listNum = int(input('How many numbers in your list?:'))
nums = []
for i in range(listNum):
nums.append(int(input("")))
op = input('What kind of operation would you like to do?\
\nChoose between "mode, mean, gmean, hmean, median, range, stdev" : ')
if op == 'mode':
return statistics.multimode(nums)
elif op == 'mean':
return statistics.mean(nums)
elif op == 'gmean':
return statistics.geometric_mean(nums)
elif op == 'hmean':
return statistics.harmonic_mean(nums)
elif op == 'median':
return statistics.median(nums)
elif op == 'stdev':
return statistics.stdev(nums)
elif op == 'range':
return max(nums) - min(nums)
def commonmedicine(patients, matchindexes, k):
medicine = []
count = 0
for i in matchindexes:
medicine.insert(count, patients[i][6])
count += 1
modes = statistics.multimode(medicine)
biggest = medicine.count(modes[0])
#TODO
if (len(modes) == k):
print("Each of the %d patients were given a different medication" % k)
elif (biggest >= float(k / 2)):
print(
"Medicine %d was given to %d of the %d patients (a majority of the patients)"
% (int(modes[0]), biggest, k))
elif (len(modes) == 1):
print(
"Medicine %d was given to %d of the %d patients (not a majority of the patients)"
% (int(modes[0]), biggest, k))
else:
print(
"Medicines %s were each given to %d of the %d patients (not a majority of the patients)"
% (modes, biggest, k))
def countLargestGroup(self, n: int) -> int:
"""
Elegant but not very efficient solution.
1 - multiple transition between str and int types
2 - 'multimode' is very complex method (uses sorting, grouping, etc.)
"""
return len(multimode(sum(map(int, str(i))) for i in range(1, n + 1)))
def calculateMode(data):
global mode
ints = [int(item) for item in data]
modeList = statistics.multimode(ints)
mode = ""
for item in modeList:
mode += str(item) + ", "
mode = mode[:-2]
def countLargestGroup(self, n):
"""
:type n: int
:rtype: int
"""
return len(
statistics.multimode(
sum(map(int, str(i))) for i in range(1, n + 1)))
def minK(k, distances, pointSet):
closestK = []
for i in range(2 * k - 1):
for index in nthMinIndex(i, distances):
closestK.append(pointSet[index][1])
try:
return multimode(closestK)[0]
except Exception:
return 0
def co2_bit_criteria(data: str):
report = data.splitlines()
for pos in range(len(report[0])):
col = [line[pos] for line in report]
target = {"0": "1", "1": "0"}[max(multimode(col))]
report = [line for line in report if line[pos] == target]
if len(report) <= 1:
return int(report[0], 2)
raise ValueError(data)
def get_mode(k_nearest_labels: list) -> int:
"""
this function calculate mode for k_nearest_labels
The mode of a sequence of numbers is the number with the highest frequency
"""
k_nearest_labels = [j for i in k_nearest_labels for j in i]
k_nearest_labels = multimode(k_nearest_labels)
return random.choice(k_nearest_labels)
def baseline_accuracy_row(brands_list, row):
preds = []
for brand in brands_list:
matches = find_brands(brand, row["transcription"])
for _ in matches:
preds.append(brand)
# now find most common value(s)
preds = statistics.multimode([s.lower().replace("-", " ") for s in preds])
correct = any(equal_brands(pred, row["brand"]) for pred in preds)
return pd.Series([preds, correct], index=["bl_preds", "bl_corrects"])
def migratoryBirds(arr):
"""
Determines the lowest, most frequent number.
Parameters:
arr (list): A list of integers.
Returns:
integer: The minimum mode.
"""
return min(multimode(arr))
def vote(df: pd.DataFrame, col_name: str) -> (Union[list, str], int, int):
total = df.shape[0]
voted = multimode(list(df.loc[:, col_name]))
voted_count = df[df[col_name] == voted[0]].shape[0]
if len(voted) == 1: # single mode value
voted = voted[0]
return voted, voted_count, total
def singlemode(data):
try:
# New in Python 3.8
modes = statistics.multimode(data)
except AttributeError:
return statistics.mode(data)
else:
if len(modes) > 1:
raise statistics.StatisticsError('no unique mode')
else:
return modes[0]
def CalcularModa(
datos): #Funcion para calcular la moda mediante la libreria statics
try: #Intenta
MM = stats.multimode(
datos
) #Dentro de MM se guarda la multimoda calculada con stats.multimode pasandole los datos
M = stats.mode(
datos
) #Dentro de M se guarda la moda calculada con stats.mode pasandole los datos
return [["Multimoda", MM], ["Moda", M]]
except: #De lo contrario arroja error
print("ERROR - No se pueden ejecutar la funcion con los datos")
def top():
#Call datebase to refresh data in route
movie_list = datebase()
top_10 = []
temporary_list = movie_list[:]
#Check of temporary_list have more positions than temporary_set. If yes that means that at least
#one movie have more recommendations than other movies
temporary_set = set(temporary_list)
#Check of there is at least on title with more than on recommendation
if len(temporary_list) != len(list(temporary_set)):
if len(temporary_set) >= 10:
while len(top_10) != 10:
if multimode(temporary_list):
# There can be more than one movie with the same number of recommendations
for movie in multimode(temporary_list):
number_of_recommendations = 0
#Delete all accourances from temporary_list to find another most common occurance
while movie in temporary_list:
number_of_recommendations += 1
temporary_list.remove(movie)
top_10.append([movie, number_of_recommendations])
#Solve problem if there are for exemple all 9 movies in top_10 and multimode gives
#2 or more movies to add
if len(top_10) == 10:
break
else:
#If there is less than 10 movies in the datebase:
while len(top_10) != len(temporary_set):
if multimode(temporary_list):
for movie in multimode(temporary_list):
number_of_recommendations = 0
#Delete all accourances from temporary_list to find another most common occurance
while movie in temporary_list:
number_of_recommendations += 1
temporary_list.remove(movie)
top_10.append([movie, number_of_recommendations])
return top_10
def part_2(file_path: str) -> int:
with open(file_path, "r") as f:
lines = f.read().splitlines()
ox, co2, l = 0, 0, len(lines[0])
ox_lines = lines
for i in range(l):
multimode = statistics.multimode([line[i] for line in ox_lines])
mode = multimode[0] if len(multimode) == 1 else "1"
ox_lines = [line for line in ox_lines if line[i] == mode]
if len(ox_lines) == 1:
ox = int(ox_lines[0], 2)
break
co2_lines = lines
for i in range(l):
multimode = statistics.multimode([line[i] for line in co2_lines])
mode = multimode[0] if len(multimode) == 1 else "1"
co2_lines = [line for line in co2_lines if line[i] == f"{1-int(mode)}"]
if len(co2_lines) == 1:
co2 = int(co2_lines[0], 2)
break
return ox * co2
def analyze_categorical():
result['type'] = 'categorical'
mode = statistics.multimode(actual_values)
m1 = mode[0]
result['mode 1'] = m1
result['mode 1 %'] = actual_values.count(m1) / len(actual_values)
if len(mode) > 1:
m2 = mode[1]
result['mode 2'] = m2
result['mode 2 %'] = actual_values.count(m2) / len(actual_values)
return result
def compute_top_songs_theory_helper(theory_dictionary):
"""Returns theory data on a user's top songs over a given time range
:param theory_dictionary: keys refer to music theory features, values refer to a list of ints about the feature in user's top songs
:type theory_dictionary: dictionary
:rtype: dictionary
:return: a sorted dictionary with both the song IDs (key) and song names (value)
"""
for feature in theory_dictionary:
if feature == "key" or feature == "mode":
# find the multimode (all "tied" elements are added into a list)
theory_dictionary[feature] = multimode(theory_dictionary[feature])
else:
# find the mean, round to 2 decimals
theory_dictionary[feature] = round(
sum(theory_dictionary[feature]) /
len(theory_dictionary[feature]), 2)
return theory_dictionary
def get_total_requests_in_sqs():
"""
Runs a loop to find the Request queue sizes and takes a Mode over them to get the approximate size of queue
:return: Size of the request queue in int.
"""
try:
time.sleep(1)
size_values = []
for _ in range(5):
size_values.append(int(mq.get_queue_size(s.REQUEST_QUEUE)))
logger.info("List of queue sizes fetched from SQS cluster: " +
" ".join(str(value) for value in size_values))
approx_size = multimode(size_values)[0]
logger.info("Approx size of Queue: %s", approx_size)
except ClientError as error:
raise error
else:
return approx_size
def most_frequent(self):
self.chain_code_mode = []
col = 0
print(self.chain_codes.shape)
print(self.chain_codes.shape[1])
while (col != self.chain_codes.shape[1]):
aux = self.chain_codes.transpose()[col]
# print(aux)
value = statistics.multimode(aux)
# print(value)
if (len(value) == 1):
self.chain_code_mode.append(value[0])
else:
rand = random.randint(0, 1)
self.chain_code_mode.append(value[rand])
col = col + 1
print(self.chain_code_mode)
return (self.chain_code_mode)
def get_mode(k_nearest_labels: list) -> int:
"""
this function calculate mode for k_nearest_labels
The mode of a sequence of numbers is the number with the highest frequency
(the one which repeats the most).
Parameters
----------
k_nearest_labels : list
matrix of data(list of lists)
Retunrs
-------
int
mode of k_nearest_labels
"""
k_nearest_labels = [j for i in k_nearest_labels for j in i]
k_nearest_labels = multimode(k_nearest_labels)
return random.choice(k_nearest_labels)
def simple_stats():
mean_list = statistics.mean(list_of_values)
print("mean_list : ", mean_list)
geometric_mean_list = statistics.geometric_mean(list_of_values)
print("geometric_mean_list : ", geometric_mean_list)
harmonic_mean_list = statistics.harmonic_mean(list_of_values)
print("harmonic_mean_list : ", harmonic_mean_list)
median_list = statistics.median(list_of_values)
print("median_list : ", median_list)
median_low_list = statistics.median_low(list_of_values)
print("median_low_list : ", median_low_list)
median_high_list = statistics.median_high(list_of_values)
print("median_high_list : ", median_high_list)
median_grouped_list = statistics.median_grouped(list_of_values)
print("median_grouped_list : ", median_grouped_list)
mode_list = statistics.mode(list_of_values)
print("mode_list : ", mode_list)
multimode_list = statistics.multimode(list_of_values)
print("multimode_list : ", multimode_list)
quantiles_list = statistics.quantiles(list_of_values)
print("quantiles_list : ", quantiles_list)
return mean_list, geometric_mean_list, harmonic_mean_list, median_list, median_low_list, median_high_list, median_grouped_list, mode_list, multimode_list, quantiles_list
def checkio(text: str) -> str:
lowertext=list(text.lower())
for x in lowertext[:]:
if ord(x) < 65:
lowertext.remove(x)
return min(statistics.multimode(lowertext))
#END OF MY CODE, THE REST IS THEIR TESTING
if __name__ == '__main__':
print("Example:")
print(checkio("Hello World!"))
#These "asserts" using only for self-checking and not necessary for auto-testing
assert checkio("Hello World!") == "l", "Hello test"
assert checkio("How do you do?") == "o", "O is most wanted"
assert checkio("One") == "e", "All letter only once."
assert checkio("Oops!") == "o", "Don't forget about lower case."
assert checkio("AAaooo!!!!") == "a", "Only letters."
assert checkio("abe") == "a", "The First."
print("Start the long test")
assert checkio("a" * 9000 + "b" * 1000) == "a", "Long."
print("The local tests are done.")
def run():
data = read_data()
sales = []
for row in data:
print(row)
#put the print function into the loop so you can see which keys the data set has and fix an error messages
#relating to a key issue --> key error
sale = int(row['Sales'])
sales.append(sale)
total = sum(sales)
minimum = min(sales)
maximum = max(sales)
average = mean(sales)
Middepoint = median(sales)
Modes = multimode(sales)
SampleSpread = stdev(sales)
print('Total sales: {}' .format(total))
print('Minimum sales: {}' .format(minimum))
print('Maximum sales: {}' .format(maximum))
print('Arithmetic Mean: {}' .format(average))
print('Ordinary Statistical Median: {}' .format(Middepoint))
print('Total Modes: {}' .format(Modes))
print('Sample Dispersion: {}' .format(SampleSpread))
def run():
data = read_data()
covid = []
for row in data:
print(row)
#put the print function into the loop so you can see which keys the data set has and fix an error messages
#relating to a key issue --> key error
coviddeaths = int(row['6/22/20'])
covid.append(coviddeaths)
total = sum(covid)
minimum = min(covid)
maximum = max(covid)
average = mean(covid)
Middepoint = median(covid)
Modes = multimode(covid)
SampleSpread = stdev(covid)
print('Total deaths: {}' .format(total))
print('Minimum deaths: {}' .format(minimum))
print('Maximum deaths: {}' .format(maximum))
print('Arithmetic Mean: {}' .format(average))
print('Ordinary Statistical Median: {}' .format(Middepoint))
print('Total Modes: {}' .format(Modes))
print('Sample Dispersion: {}' .format(SampleSpread))
for i in range(n - 1):
diff.append(values[i + 1] - values[i])
diff_len = len(set(diff))
if n == 1:
print(-1)
elif diff_len == 1:
if diff[0] == 0:
works = [values[-1] + diff[0]]
print(len(works))
print(*sorted(works))
else:
works = [values[0] - diff[0], values[-1] + diff[0]]
if n == 2:
if not (values[0] + values[1]) % 2:
works.append((values[0] + values[1]) // 2)
print(len(works))
print(*sorted(works))
elif diff_len == 2:
common, works = min(statistics.multimode(diff)), []
if common:
for i in range(1, n):
if values[i - 1] + common == values[i] - common:
works.append(values[i - 1] + common)
if len(works) > 1:
works = []
print(len(works))
if works:
print(*sorted(works))
else:
print(0)