Students can graduate with honors if their GPA is at or above 3.0. Complete the Course class by implementing the count_honors() instance method, which returns the number of students with a GPA at or above 3.0. The file main.py contains: • The main function for testing the program. • Class Course represents a course, which contains a list of Student objects as a course roster. (Type your code in here.) • Class Student represents a classroom student, which has three attributes: first name, last name, and GPA. Hint: Refer to the Student class to explore the available instance methods that can be used for implementing the count_honors() method. Note: For testing purposes, different student values will be used. Ex. For the following students: Henry Cabot 3.2 Brenda Stern 2.9 Lynda Robison 3.6 Jane Flynn 1.8. the output Honors count: 2

Students can graduate with honors if their GPA is at or above 3.0. Complete the Course class by implementing the count_honors() instance method, which returns the number of students with a GPA at or above 3.0. The file main.py contains: • The main function for testing the program. • Class Course represents a course, which contains a list of Student objects as a course roster. (Type your code in here.) • Class Student represents a classroom student, which has three attributes: first name, last name, and GPA. Hint: Refer to the Student class to explore the available instance methods that can be used for implementing the count_honors() method. Note: For testing purposes, different student values will be used. Ex. For the following students: Henry Cabot 3.2 Brenda Stern 2.9 Lynda Robison 3.6 Jane Flynn 1.8. the output Honors count: 2

EBK JAVA PROGRAMMING

9th Edition

ISBN:9781337671385

Author:FARRELL

Publisher:FARRELL

Chapter11: Advanced Inheritance Concepts

Section: Chapter Questions

Problem 7PE

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14.23 LAB: Dean's list Students make the Dean's list if their GPA is 3.5 or higher. Complete the Course class by implementing the get_deans_list() instance method, which returns a list of students with a GPA of 3.5 or higher. The file main.py contains: . The main function for testing the program. Class Course represents a course, which contains a list of student objects as a course roster. (Type your code in here.) • Class Student represents a classroom student, which has three attributes: first name, last name, and GPA. (Hint: get_gpa() returns a student's GPA.) Note: For testing purposes, different student values will be used. Ex. For the following students: Henry Nguyen 3.5 Brenda Stern 2.0 Lynda Robison 3.2 Sonya King 3.9 the output is: Dean's list: Henry Nguyen (GPA: 3.5) Sonya King (GPA: 3.9)
class Student: def __init__(self, id, fn, ln, dob, m='undefined'): self.id = id self.firstName = fn self.lastName = ln self.dateOfBirth = dob self.Major = m def set_id(self, newid): #This is known as setter self.id = newid def get_id(self): #This is known as a getter return self.id def set_fn(self, newfirstName): self.fn = newfirstName def get_fn(self): return self.fn def set_ln(self, newlastName): self.ln = newlastName def get_ln(self): return self.ln def set_dob(self, newdob): self.dob = newdob def get_dob(self): return self.dob def set_m(self, newMajor): self.m = newMajor def get_m(self): return self.m def print_student_info(self): print(f'{self.id} {self.firstName} {self.lastName} {self.dateOfBirth} {self.Major}')all_students = []id=100user_input = int(input("How many students: "))for x in range(user_input): firstName = input('Enter…
class Widget: """A class representing a simple Widget === Instance Attributes (the attributes of this class and their types) === name: the name of this Widget (str) cost: the cost of this Widget (int); cost >= 0 === Sample Usage (to help you understand how this class would be used) === >>> my_widget = Widget('Puzzle', 15) >>> my_widget.name 'Puzzle' >>> my_widget.cost 15 >>> my_widget.is_cheap() False >>> your_widget = Widget("Rubik's Cube", 6) >>> your_widget.name "Rubik's Cube" >>> your_widget.cost 6 >>> your_widget.is_cheap() True """ # Add your methods here if __name__ == '__main__': import doctest # Uncomment the line below if you prefer to test your examples with doctest # doctest.testmod()
class Product: def __init__(self, product_id, name, price, quantity): self.product_id = product_id self.name = name self.price = round(price, 2) self.quantity = quantity def get_product_description(self): return (f"Product ID: {self.product_id}, " f"Name: {self.name}, " f"Price: ${self.price:.2f}, " f"Quantity Available: {self.quantity}") class ElectronicProduct(Product): def __init__(self, product_id, name, price, quantity,warranty_period): self.warranty_period = warranty_period super().__init__(product_id,name,price,quantity) def get_product_description(self): base_description = super().get_product_description() return base_description + f"\nWarranty: {self.warranty_period}" class ClothingProduct(Product): def __init__(self, product_id, name, price, quantity,size): self.size = size…
In Javascript, Pet Class: Design a class named Pet, which should have the following fields and methods: name: The name of a pet type: The type of animal the pet is ("Dog", "Cat", "Lizard", etc.) age: The age of the pet. setName: The setter for the name field. getName: The getter for the name field. setType: The setter for the type field. getType: The getter for the type field. setAge: The setter for the age field. getAge: The getter for the age field. Once you have designed the class, create an instance of the class and use the setter and getter methods to store data in the object and display the data.
#employee.py class Employee: def__init__(self,Emp_name,Emp_id): self.__Emp_name=Emp_name self.__Emp_id=Emp_id defset_Empname(self,Emp_name): self.__Emp_name=Emp_name defset_Empid_number(self,Emp_id): self.__Emp_id=Emp_id defget_Empname(self): returnself.__Emp_name defget_Empid_number(self): returnself.__Emp_id class ProductionWorker(Employee): def__init__(self,Emp_name,Emp_id,Emp_shift, Emp_pay_rate): Employee.__init__(self,Emp_name,Emp_id) self.__Emp_shift=Emp_shift self.__Emp_pay_rate=Emp_pay_rate defset_Empshift_number(self,Emp_shift): self.__Emp_shift=Emp_shift defset_Emppay_rate(self,Emp_pay_rate): self.__Emp_pay_rate=Emp_pay_rate defget_Empshift_number(self): returnself.__Emp_shift defget_Emppay_rate(self): returnself.__Emp_pay_rate def main(): Employee_name='' Employee_id='' Employee_shift=0 Employee_pay=0.0 Employee_name=input('Enter the employee name: ') Employee_id=input('Enter the employee ID number: ') Employee_shift=int(input('Enter the employee shift number: '))…
Focus on classes, objects, methods and good programming style Your task is to create a BankAccount class. Class name BankAccount Attributes _balance float _pin integer Methods init () get_pin() check pin () deposit () withdraw () get_balance () The bank account will be protected by a 4-digit pin number (i.e. between 1000 and 9999). The pin should be generated randomly when the account object is created. The initial balance should be 0. get_pin () should return the pin. check_pin (pin) should check the argument against the saved pin and return True if it matches, False if it does not. deposit (amount) should receive the amount as the argument, add the amount to the account and return the new balance. withraw (amount) should check if the amount can be withdrawn (not more than is in the account), If so, remove the argument amount from the account and return the new balance if the transaction was successful. Return False if it was not. get_balance () should return the current balance.…
sensors.io code: lass Sensor { public: virtual float read() = 0; virtual const char* sensorName(); protected: Sensor(int p) : pin(p) {} protected: int pin; }; class Thermistor : public Sensor { public: Thermistor(int); const char* sensorName(); float read(); }; class LightSensor : public Sensor { public: LightSensor(int); const char* sensorName(); float read(); }; // TODO write the Thermistor and LightSensor constructor, sensorName, // and read methods Sensor* sensors[2]; void setup() { Serial.begin(9600); sensors[0] = new Thermistor(A3); sensors[1] = new LightSensor(A0); } int sensorno = 0; void loop() { // TODO write code to check if data is available from the serial port. // If the user types in a '0', change the sensorno to 0. // If the user types in a '1', change the sensorno to 1. Sensor* mysensor = sensors[sensorno]; Serial.print(mysensor->sensorName()); Serial.print(": ");…
class Information: def __init__(self, name, address, age, phone_number): self.__name = name self.__address = address self.__age = age self.__phone_number = phone_number def main(): my_info = Information('John Doe','111 My Street', \ '555-555-1281')
class Student: def _init_(self, firstname, lastname, idnum): self.first = firstname self.last = lastname self.id = idnum self.courses = [] def add_course(self, course): ''' don't allow overloads or signing up for the same course twice if course not in self.courses and len(self.courses) = 4 What are all of the attributes of this class? last overload idnum add_course self first course firstname courses id clear_courses lastname
class Duration: def __init__(self, hours, minutes): self.hours = hours self.minutes = minutes def __add__(self, other): total_hours = self.hours + other.hours total_minutes = self.minutes + other.minutes if total_minutes >= 60: total_hours += 1 total_minutes -= 60 return Duration(total_hours, total_minutes) first_trip = Duration(1, 45)second_trip = Duration(0, 42) first_time = first_trip + second_tripsecond_time = second_trip + second_trip print(first_time.hours, first_time.minutes)print(second_time.hours, second_time.minutes) WHAT IS THE OUTPUT
class Duration: def __init__(self, hours, minutes): self.hours = hours self.minutes = minutes def __add__(self, other): total_hours = self.hours + other.hours total_minutes = self.minutes + other.minutes if total_minutes >= 60: total_hours += 1 total_minutes -= 60 return Duration(total_hours, total_minutes) first_trip = Duration(3, 36)second_trip = Duration(0, 47) first_time = first_trip + second_tripsecond_time = second_trip + second_trip print(first_time.hours, first_time.minutes) what is the output