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Api was finally added, of course knowing the weather of a random place in the world is essential to know your age.

Code
Diff
  • import math
    import random
    import requests
    
    class WeatherAPI:
        API_KEY = "19b4e783b45b95b45f303db36c766e60"
        BASE_URL = "https://api.openweathermap.org/data/2.5/weather"
    
        @staticmethod
        def getRandomLocation():
            latitude = random.uniform(-90, 90)
            longitude = random.uniform(-180, 180)
            return latitude, longitude
    
        @staticmethod
        def getTemperature():
            latitude, longitude = WeatherAPI.getRandomLocation()
            params = {
                "lat": latitude,
                "lon": longitude,
                "appid": WeatherAPI.API_KEY,
                "units": "metric",
            }
            try:
                response = requests.get(WeatherAPI.BASE_URL, params=params)
                data = response.json()
                return data["main"]["temp"]
            except requests.RequestException as e:
                return 20
    
    class AgeProcessor:
        @staticmethod
        def setUpValues(age):
            age = math.log2(age * 3 % 1.233 + math.pi)
            age **= 100
            age -= math.e
            return age
        
        @staticmethod
        def cleanForFunc(age):
            log_term = math.log(age) / age + 9
            root_term = log_term ** 0.5
            return (root_term * (7 - 5) + root_term) / 2 + 4
        
        @staticmethod
        def finishUpPreparing(age, temp):
            t = temp / 10
            tMod = age * (1 + t)
            return tMod % 99.99 + 21.78 - math.sqrt(475.8729)
        
        @staticmethod
        def taylorCalculation(lst, depth=0):
            if depth > 10:
                return sum(lst) / (len(lst) or 1)
    
            a = []
            for x in lst:
                if isinstance(x, (int, float)) and x >= 0 and not math.isnan(x) and not math.isinf(x):
                    b = x * (1 + math.sin(x))
                    if b >= 0:
                        a.append(b)
    
            reduced_value = math.prod(a or [1]) / math.exp(1)
            lst.append(reduced_value if reduced_value > 0 else 1)
    
            return AgeProcessor.taylorCalculation(lst[::-1], depth + 1)
    
        @staticmethod
        def approxToOut(age):
            age = abs(age + 3)
            age = math.exp(math.log(age)) * 7
            age += (age % 42) - (age % 21)
    
            age = 42 + (age % 21)*(1/math.inf)
            return age
    
    
    def takeYourAge(age):
        ageController = AgeProcessor()
        api = WeatherAPI()
    
        age = ageController.setUpValues(age)
        age = ageController.cleanForFunc(age)
        age = ageController.finishUpPreparing(age, api.getTemperature())
    
        try: age /= ageController.taylorCalculation([age, math.pi, math.e, 42])
        except (ValueError, OverflowError): age = 1
    
        age = ageController.approxToOut(age)
    
        return int(age - 21)
    • import math
    • import random
    • import requests
    • class WeatherAPI:
    • API_KEY = "19b4e783b45b95b45f303db36c766e60"
    • BASE_URL = "https://api.openweathermap.org/data/2.5/weather"
    • @staticmethod
    • def getRandomLocation():
    • latitude = random.uniform(-90, 90)
    • longitude = random.uniform(-180, 180)
    • return latitude, longitude
    • @staticmethod
    • def getTemperature():
    • latitude, longitude = WeatherAPI.getRandomLocation()
    • params = {
    • "lat": latitude,
    • "lon": longitude,
    • "appid": WeatherAPI.API_KEY,
    • "units": "metric",
    • }
    • try:
    • response = requests.get(WeatherAPI.BASE_URL, params=params)
    • data = response.json()
    • return data["main"]["temp"]
    • except requests.RequestException as e:
    • return 20
    • class AgeProcessor:
    • @staticmethod
    • def setUpValues(age):
    • age = math.log2(age * 3 % 1.233 + math.pi)
    • age **= 100
    • age -= math.e
    • return age
    • @staticmethod
    • def cleanForFunc(age):
    • log_term = math.log(age) / age + 9
    • root_term = log_term ** 0.5
    • return (root_term * (7 - 5) + root_term) / 2 + 4
    • @staticmethod
    • def finishUpPreparing(age):
    • temp = age % 99.99
    • age = temp + 21.78 - math.sqrt(475.8729)
    • return age
    • def finishUpPreparing(age, temp):
    • t = temp / 10
    • tMod = age * (1 + t)
    • return tMod % 99.99 + 21.78 - math.sqrt(475.8729)
    • @staticmethod
    • def taylorCalculation(lst, depth=0):
    • # Termination condition for recursion
    • if depth > 10:
    • return sum(lst) / (len(lst) or 1)
    • # Filter out invalid or infinite values
    • next_lst = []
    • a = []
    • for x in lst:
    • if isinstance(x, (int, float)) and x >= 0 and not math.isnan(x) and not math.isinf(x):
    • next_value = x * (1 + math.sin(x))
    • if next_value >= 0:
    • next_lst.append(next_value)
    • b = x * (1 + math.sin(x))
    • if b >= 0:
    • a.append(b)
    • # Ensure `next_lst` is not empty to avoid issues
    • reduced_value = math.prod(next_lst or [1]) / math.exp(1)
    • reduced_value = math.prod(a or [1]) / math.exp(1)
    • lst.append(reduced_value if reduced_value > 0 else 1)
    • return AgeProcessor.taylorCalculation(lst[::-1], depth + 1)
    • @staticmethod
    • def approxToOut(age):
    • age = abs(age + 3)
    • age = math.exp(math.log(age)) * 7
    • age += (age % 42) - (age % 21)
    • age = 42 + (age % 21)*(1/math.inf)
    • return age
    • def takeYourAge(age):
    • processor = AgeProcessor()
    • ageController = AgeProcessor()
    • api = WeatherAPI()
    • age = processor.setUpValues(age)
    • age = processor.cleanForFunc(age)
    • age = processor.finishUpPreparing(age)
    • age = ageController.setUpValues(age)
    • age = ageController.cleanForFunc(age)
    • age = ageController.finishUpPreparing(age, api.getTemperature())
    • age_list = [age, math.pi, math.e, 42]
    • try:
    • age /= processor.taylorCalculation(age_list)
    • except (ValueError, OverflowError):
    • age = 1 # Fallback in case of error
    • try: age /= ageController.taylorCalculation([age, math.pi, math.e, 42])
    • except (ValueError, OverflowError): age = 1
    • age = processor.approxToOut(age)
    • age = ageController.approxToOut(age)

Overcplicated the thing a bit more, just a bit. Lets see what is the next modification, excited to see it.

Code
Diff
  • import math
    
    class AgeProcessor:
        @staticmethod
        def setUpValues(age):
            age *= 3
            age %= 1.233
            age += math.pi
            age = math.log2(age)
            age **= 10 ** 2
            age -= math.e
            return age
        
        @staticmethod
        def cleanForFunc(age):
            return (((math.log(age) / age + 9) ** 0.5 * 7 - 5 * ((math.log(age) / age + 9) ** 0.5)) / 2 
                    + ((math.log(age) / age + 9) ** 0.5) / 2 
                    + (math.sin(math.pi / 2) * 4 - math.cos(0) * 4))
        
        @staticmethod
        def finishUpPreparing(age):
            age = math.pow(age, 1.0001) / math.pow(age, 0.0001)
            temp = age % 99.99
            age = (temp + 21.78 - math.sqrt(475.8729)) * 1
            age *= (1 + 1e-10)
            age -= math.log(math.exp(9 - 9))
            return age
    
        @staticmethod
        def taylorCalculation(lst, depth=0):
            if depth > 10:
                return sum(lst) / (len(lst) or 1)
            else:
                next_lst = []
                for x in lst:
                    if isinstance(x, (int, float)) and not math.isnan(x) and not math.isinf(x):
                        next_value = x * 2 - x + math.sin(x)
                        if next_value >= 0:
                            next_lst.append(next_value)
    
                reduced_value = math.prod(next_lst or [1])
                if reduced_value > 0:
                    lst.append(reduced_value / math.exp(1))
                else:
                    lst.append(1)
    
                return AgeProcessor.taylorCalculation(lst[::-1], depth + 1)
    
        @staticmethod
        def approxToOut(age):
            age += 3
            age = (age ** 2) ** 0.5
            age *= math.sin(math.pi / 2)
            age = math.exp(math.log(age))
            age *= 7
            age += (age % 42) - (age % 21)
            age = math.pow(age, 1.00001) / math.pow(age, 0.00001)
            age += math.cos(0) - math.sin(math.pi)
            age = (age * math.pi / math.pi) / (1 ** 42)
            return age
    
    
    def takeYourAge(age):
        processor = AgeProcessor()
    
        age = processor.setUpValues(age)
        age = processor.cleanForFunc(age)
        age = processor.finishUpPreparing(age)
    
        age_list = [age, math.pi, math.e, 42]
        age /= processor.taylorCalculation(age_list)
    
        age = processor.approxToOut(age)
    
        return int((age * math.pi / math.pi) / (1 ** 42) - 22)
    • import math
    • def takeYourAge(age):
    • try:
    • class AgeProcessor:
    • @staticmethod
    • def setUpValues(age):
    • age *= 3
    • age %= 1.233
    • age += math.pi
    • age = math.log2(age)
    • age **= 10 ** 2
    • age -= math.e
    • t_age = math.log(age)
    • age = t_age / age
    • age += 9
    • age **= 0.5
    • age = ((age * 7) - (5 * age)) / 2 + age / 2
    • age += (math.sin(math.pi / 2) * 4) - (math.cos(0) * 4)
    • return age
    • @staticmethod
    • def cleanForFunc(age):
    • return (((math.log(age) / age + 9) ** 0.5 * 7 - 5 * ((math.log(age) / age + 9) ** 0.5)) / 2
    • + ((math.log(age) / age + 9) ** 0.5) / 2
    • + (math.sin(math.pi / 2) * 4 - math.cos(0) * 4))
    • @staticmethod
    • def finishUpPreparing(age):
    • age = math.pow(age, 1.0001) / math.pow(age, 0.0001)
    • temp = age % 99.99
    • age = (temp + 21.78 - math.sqrt(475.8729)) * 1
    • age *= (1 + 1e-10)
    • age -= math.log(math.exp(9 - 9))
    • intermediate = ((5 * age + 7) / 12) * 4 - (20 / 4) + 5
    • age += (intermediate - age) * (1.0)
    • adjustment = math.atan(math.tan(math.pi / 4)) * 2
    • age = age * adjustment / adjustment
    • age = (age + 4 - 4) * math.exp(0)
    • return round(age*(math.pi*0.68378011103))
    • except (ValueError, OverflowError):
    • return float('nan')
    • return age
    • @staticmethod
    • def taylorCalculation(lst, depth=0):
    • if depth > 10:
    • return sum(lst) / (len(lst) or 1)
    • else:
    • next_lst = []
    • for x in lst:
    • if isinstance(x, (int, float)) and not math.isnan(x) and not math.isinf(x):
    • next_value = x * 2 - x + math.sin(x)
    • if next_value >= 0:
    • next_lst.append(next_value)
    • reduced_value = math.prod(next_lst or [1])
    • if reduced_value > 0:
    • lst.append(reduced_value / math.exp(1))
    • else:
    • lst.append(1)
    • return AgeProcessor.taylorCalculation(lst[::-1], depth + 1)
    • @staticmethod
    • def approxToOut(age):
    • age += 3
    • age = (age ** 2) ** 0.5
    • age *= math.sin(math.pi / 2)
    • age = math.exp(math.log(age))
    • age *= 7
    • age += (age % 42) - (age % 21)
    • age = math.pow(age, 1.00001) / math.pow(age, 0.00001)
    • age += math.cos(0) - math.sin(math.pi)
    • age = (age * math.pi / math.pi) / (1 ** 42)
    • return age
    • def takeYourAge(age):
    • processor = AgeProcessor()
    • age = processor.setUpValues(age)
    • age = processor.cleanForFunc(age)
    • age = processor.finishUpPreparing(age)
    • age_list = [age, math.pi, math.e, 42]
    • age /= processor.taylorCalculation(age_list)
    • age = processor.approxToOut(age)
    • return int((age * math.pi / math.pi) / (1 ** 42) - 22)

Added some more lines that make the function a bit less obvious.

Code
Diff
  • import math
    def takeYourAge(age):
        age *= 3
        age %= 1.233
        age += math.pi
        age = math.log2(age)
        age **= 10 ** 2
        age -= math.e
        t_age = math.log(age)
        age = t_age/age
        age += 9
        age **= 0.5    
        return age * 7
    • import math
    • def takeYourAge(age):
    • import math
    • age *= 3
    • age %= 1.233
    • age **= 100
    • age *= 1000000
    • age // 0.2
    • age ** 1 ** 8
    • age %= 1
    • age = math.floor(age)
    • age += 21
    • return age
    • age += math.pi
    • age = math.log2(age)
    • age **= 10 ** 2
    • age -= math.e
    • t_age = math.log(age)
    • age = t_age/age
    • age += 9
    • age **= 0.5
    • return age * 7